EVOLUTION-MANAGER

Edit File: coordinateoperation.cpp

/****************************************************************************** * * Project: PROJ * Purpose: ISO19111:2019 implementation * Author: Even Rouault <even dot rouault at spatialys dot com> * ****************************************************************************** * Copyright (c) 2018, Even Rouault <even dot rouault at spatialys dot com> * * Permission is hereby granted, free of charge, to any person obtaining a * copy of this software and associated documentation files (the "Software"), * to deal in the Software without restriction, including without limitation * the rights to use, copy, modify, merge, publish, distribute, sublicense, * and/or sell copies of the Software, and to permit persons to whom the * Software is furnished to do so, subject to the following conditions: * * The above copyright notice and this permission notice shall be included * in all copies or substantial portions of the Software. * * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS * OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, * FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL * THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER * LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING * FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER * DEALINGS IN THE SOFTWARE. ****************************************************************************/ #ifndef FROM_PROJ_CPP #define FROM_PROJ_CPP #endif #define FROM_COORDINATE_OPERATION_CPP #include "proj/coordinateoperation.hpp" #include "proj/common.hpp" #include "proj/crs.hpp" #include "proj/io.hpp" #include "proj/metadata.hpp" #include "proj/util.hpp" #include "proj/internal/internal.hpp" #include "proj/internal/io_internal.hpp" // PROJ include order is sensitive // clang-format off #include "proj.h" #include "proj_internal.h" // M_PI // clang-format on #include <algorithm> #include <cassert> #include <cmath> #include <cstring> #include <memory> #include <set> #include <string> #include <vector> // #define DEBUG // #define DEBUG_SORT #if defined(DEBUG) || defined(DEBUG_SORT) #include <iostream> #endif using namespace NS_PROJ::internal; #if 0 namespace dropbox{ namespace oxygen { template<> nn<NS_PROJ::operation::CoordinateOperationPtr>::~nn() = default; template<> nn<NS_PROJ::operation::SingleOperationPtr>::~nn() = default; template<> nn<NS_PROJ::operation::ConversionPtr>::~nn() = default; template<> nn<NS_PROJ::operation::TransformationPtr>::~nn() = default; template<> nn<NS_PROJ::operation::ConcatenatedOperationPtr>::~nn() = default; template<> nn<NS_PROJ::operation::PointMotionOperationPtr>::~nn() = default; template<> nn<NS_PROJ::operation::GeneralOperationParameterPtr>::~nn() = default; template<> nn<NS_PROJ::operation::OperationParameterPtr>::~nn() = default; template<> nn<NS_PROJ::operation::GeneralParameterValuePtr>::~nn() = default; template<> nn<NS_PROJ::operation::ParameterValuePtr>::~nn() = default; template<> nn<NS_PROJ::operation::OperationMethodPtr>::~nn() = default; template<> nn<NS_PROJ::operation::OperationParameterValuePtr>::~nn() = default; template<> nn<std::unique_ptr<NS_PROJ::operation::CoordinateOperationFactory, std::default_delete<NS_PROJ::operation::CoordinateOperationFactory> > >::~nn() = default; template<> nn<std::unique_ptr<NS_PROJ::operation::CoordinateOperationContext, std::default_delete<NS_PROJ::operation::CoordinateOperationContext> > >::~nn() = default; }} #endif #include "proj/internal/coordinateoperation_constants.hpp" #include "proj/internal/coordinateoperation_internal.hpp" #include "proj/internal/esri_projection_mappings.hpp" #if 0 namespace dropbox{ namespace oxygen { template<> nn<std::shared_ptr<NS_PROJ::operation::InverseCoordinateOperation>>::~nn() = default; template<> nn<std::shared_ptr<NS_PROJ::operation::InverseConversion>>::~nn() = default; template<> nn<std::shared_ptr<NS_PROJ::operation::InverseTransformation>>::~nn() = default; template<> nn<NS_PROJ::operation::PROJBasedOperationPtr>::~nn() = default; }} #endif // --------------------------------------------------------------------------- NS_PROJ_START namespace operation { //! @cond Doxygen_Suppress constexpr double UTM_LATITUDE_OF_NATURAL_ORIGIN = 0.0; constexpr double UTM_SCALE_FACTOR = 0.9996; constexpr double UTM_FALSE_EASTING = 500000.0; constexpr double UTM_NORTH_FALSE_NORTHING = 0.0; constexpr double UTM_SOUTH_FALSE_NORTHING = 10000000.0; static const std::string INVERSE_OF = "Inverse of "; static const char *BALLPARK_GEOCENTRIC_TRANSLATION = "Ballpark geocentric translation"; static const char *NULL_GEOGRAPHIC_OFFSET = "Null geographic offset"; static const char *BALLPARK_GEOGRAPHIC_OFFSET = "Ballpark geographic offset"; static const char *BALLPARK_VERTICAL_TRANSFORMATION_PREFIX = " (ballpark vertical transformation"; static const char *BALLPARK_VERTICAL_TRANSFORMATION = " (ballpark vertical transformation)"; static const char *BALLPARK_VERTICAL_TRANSFORMATION_NO_ELLIPSOID_VERT_HEIGHT = " (ballpark vertical transformation, without ellipsoid height to vertical " "height correction)"; //! @endcond //! @cond Doxygen_Suppress static util::PropertyMap createPropertiesForInverse(const CoordinateOperation *op, bool derivedFrom, bool approximateInversion); //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress class InvalidOperationEmptyIntersection : public InvalidOperation { public: explicit InvalidOperationEmptyIntersection(const std::string &message); InvalidOperationEmptyIntersection( const InvalidOperationEmptyIntersection &other); ~InvalidOperationEmptyIntersection() override; }; InvalidOperationEmptyIntersection::InvalidOperationEmptyIntersection( const std::string &message) : InvalidOperation(message) {} InvalidOperationEmptyIntersection::InvalidOperationEmptyIntersection( const InvalidOperationEmptyIntersection &) = default; InvalidOperationEmptyIntersection::~InvalidOperationEmptyIntersection() = default; // --------------------------------------------------------------------------- static std::string createEntryEqParam(const std::string &a, const std::string &b) { return a < b ? a + b : b + a; } static std::set<std::string> buildSetEquivalentParameters() { std::set<std::string> set; const char *const listOfEquivalentParameterNames[][7] = { {"latitude_of_point_1", "Latitude_Of_1st_Point", nullptr}, {"longitude_of_point_1", "Longitude_Of_1st_Point", nullptr}, {"latitude_of_point_2", "Latitude_Of_2nd_Point", nullptr}, {"longitude_of_point_2", "Longitude_Of_2nd_Point", nullptr}, {"satellite_height", "height", nullptr}, {EPSG_NAME_PARAMETER_FALSE_EASTING, EPSG_NAME_PARAMETER_EASTING_FALSE_ORIGIN, EPSG_NAME_PARAMETER_EASTING_PROJECTION_CENTRE, nullptr}, {EPSG_NAME_PARAMETER_FALSE_NORTHING, EPSG_NAME_PARAMETER_NORTHING_FALSE_ORIGIN, EPSG_NAME_PARAMETER_NORTHING_PROJECTION_CENTRE, nullptr}, {EPSG_NAME_PARAMETER_SCALE_FACTOR_AT_NATURAL_ORIGIN, WKT1_SCALE_FACTOR, EPSG_NAME_PARAMETER_SCALE_FACTOR_INITIAL_LINE, EPSG_NAME_PARAMETER_SCALE_FACTOR_PSEUDO_STANDARD_PARALLEL, nullptr}, {WKT1_LATITUDE_OF_ORIGIN, WKT1_LATITUDE_OF_CENTER, EPSG_NAME_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN, EPSG_NAME_PARAMETER_LATITUDE_FALSE_ORIGIN, EPSG_NAME_PARAMETER_LATITUDE_PROJECTION_CENTRE, "Central_Parallel", nullptr}, {WKT1_CENTRAL_MERIDIAN, WKT1_LONGITUDE_OF_CENTER, EPSG_NAME_PARAMETER_LONGITUDE_OF_NATURAL_ORIGIN, EPSG_NAME_PARAMETER_LONGITUDE_FALSE_ORIGIN, EPSG_NAME_PARAMETER_LONGITUDE_PROJECTION_CENTRE, EPSG_NAME_PARAMETER_LONGITUDE_OF_ORIGIN, nullptr}, {"pseudo_standard_parallel_1", WKT1_STANDARD_PARALLEL_1, nullptr}, }; for (const auto &paramList : listOfEquivalentParameterNames) { for (size_t i = 0; paramList[i]; i++) { auto a = metadata::Identifier::canonicalizeName(paramList[i]); for (size_t j = i + 1; paramList[j]; j++) { auto b = metadata::Identifier::canonicalizeName(paramList[j]); set.insert(createEntryEqParam(a, b)); } } } return set; } bool areEquivalentParameters(const std::string &a, const std::string &b) { static const std::set<std::string> setEquivalentParameters = buildSetEquivalentParameters(); auto a_can = metadata::Identifier::canonicalizeName(a); auto b_can = metadata::Identifier::canonicalizeName(b); return setEquivalentParameters.find(createEntryEqParam(a_can, b_can)) != setEquivalentParameters.end(); } // --------------------------------------------------------------------------- PROJ_NO_INLINE const MethodMapping *getMapping(int epsg_code) noexcept { for (const auto &mapping : projectionMethodMappings) { if (mapping.epsg_code == epsg_code) { return &mapping; } } return nullptr; } // --------------------------------------------------------------------------- const MethodMapping *getMapping(const OperationMethod *method) noexcept { const std::string &name(method->nameStr()); const int epsg_code = method->getEPSGCode(); for (const auto &mapping : projectionMethodMappings) { if ((epsg_code != 0 && mapping.epsg_code == epsg_code) || metadata::Identifier::isEquivalentName(mapping.wkt2_name, name.c_str())) { return &mapping; } } return nullptr; } // --------------------------------------------------------------------------- const MethodMapping *getMappingFromWKT1(const std::string &wkt1_name) noexcept { // Unusual for a WKT1 projection name, but mentioned in OGC 12-063r5 C.4.2 if (ci_starts_with(wkt1_name, "UTM zone")) { return getMapping(EPSG_CODE_METHOD_TRANSVERSE_MERCATOR); } for (const auto &mapping : projectionMethodMappings) { if (mapping.wkt1_name && metadata::Identifier::isEquivalentName( mapping.wkt1_name, wkt1_name.c_str())) { return &mapping; } } return nullptr; } // --------------------------------------------------------------------------- const MethodMapping *getMapping(const char *wkt2_name) noexcept { for (const auto &mapping : projectionMethodMappings) { if (metadata::Identifier::isEquivalentName(mapping.wkt2_name, wkt2_name)) { return &mapping; } } return nullptr; } // --------------------------------------------------------------------------- std::vector<const MethodMapping *> getMappingsFromPROJName(const std::string &projName) { std::vector<const MethodMapping *> res; for (const auto &mapping : projectionMethodMappings) { if (mapping.proj_name_main && projName == mapping.proj_name_main) { res.push_back(&mapping); } } return res; } // --------------------------------------------------------------------------- static const ParamMapping *getMapping(const MethodMapping *mapping, const OperationParameterNNPtr &param) { if (mapping->params == nullptr) { return nullptr; } // First try with id const int epsg_code = param->getEPSGCode(); if (epsg_code) { for (int i = 0; mapping->params[i] != nullptr; ++i) { const auto *paramMapping = mapping->params[i]; if (paramMapping->epsg_code == epsg_code) { return paramMapping; } } } // then equivalent name const std::string &name = param->nameStr(); for (int i = 0; mapping->params[i] != nullptr; ++i) { const auto *paramMapping = mapping->params[i]; if (metadata::Identifier::isEquivalentName(paramMapping->wkt2_name, name.c_str())) { return paramMapping; } } // and finally different name, but equivalent parameter for (int i = 0; mapping->params[i] != nullptr; ++i) { const auto *paramMapping = mapping->params[i]; if (areEquivalentParameters(paramMapping->wkt2_name, name)) { return paramMapping; } } return nullptr; } // --------------------------------------------------------------------------- const ParamMapping *getMappingFromWKT1(const MethodMapping *mapping, const std::string &wkt1_name) { for (int i = 0; mapping->params[i] != nullptr; ++i) { const auto *paramMapping = mapping->params[i]; if (paramMapping->wkt1_name && (metadata::Identifier::isEquivalentName(paramMapping->wkt1_name, wkt1_name.c_str()) || areEquivalentParameters(paramMapping->wkt1_name, wkt1_name))) { return paramMapping; } } return nullptr; } // --------------------------------------------------------------------------- std::vector<const ESRIMethodMapping *> getMappingsFromESRI(const std::string &esri_name) { std::vector<const ESRIMethodMapping *> res; for (const auto &mapping : esriMappings) { if (ci_equal(esri_name, mapping.esri_name)) { res.push_back(&mapping); } } return res; } // --------------------------------------------------------------------------- static const ESRIMethodMapping *getESRIMapping(const std::string &wkt2_name, int epsg_code) { for (const auto &mapping : esriMappings) { if ((epsg_code != 0 && mapping.epsg_code == epsg_code) || ci_equal(wkt2_name, mapping.wkt2_name)) { return &mapping; } } return nullptr; } // --------------------------------------------------------------------------- static double getAccuracy(const std::vector<CoordinateOperationNNPtr> &ops); // Returns the accuracy of an operation, or -1 if unknown static double getAccuracy(const CoordinateOperationNNPtr &op) { if (dynamic_cast<const Conversion *>(op.get())) { // A conversion is perfectly accurate. return 0.0; } double accuracy = -1.0; const auto &accuracies = op->coordinateOperationAccuracies(); if (!accuracies.empty()) { try { accuracy = c_locale_stod(accuracies[0]->value()); } catch (const std::exception &) { } } else { auto concatenated = dynamic_cast<const ConcatenatedOperation *>(op.get()); if (concatenated) { accuracy = getAccuracy(concatenated->operations()); } } return accuracy; } // --------------------------------------------------------------------------- // Returns the accuracy of a set of concantenated operations, or -1 if unknown static double getAccuracy(const std::vector<CoordinateOperationNNPtr> &ops) { double accuracy = -1.0; for (const auto &subop : ops) { const double subops_accuracy = getAccuracy(subop); if (subops_accuracy < 0.0) { return -1.0; } if (accuracy < 0.0) { accuracy = 0.0; } accuracy += subops_accuracy; } return accuracy; } // --------------------------------------------------------------------------- static metadata::ExtentPtr getExtent(const std::vector<CoordinateOperationNNPtr> &ops, bool conversionExtentIsWorld, bool &emptyIntersection); static metadata::ExtentPtr getExtent(const CoordinateOperationNNPtr &op, bool conversionExtentIsWorld, bool &emptyIntersection) { auto conv = dynamic_cast<const Conversion *>(op.get()); if (conv) { emptyIntersection = false; return metadata::Extent::WORLD; } const auto &domains = op->domains(); if (!domains.empty()) { emptyIntersection = false; return domains[0]->domainOfValidity(); } auto concatenated = dynamic_cast<const ConcatenatedOperation *>(op.get()); if (!concatenated) { emptyIntersection = false; return nullptr; } return getExtent(concatenated->operations(), conversionExtentIsWorld, emptyIntersection); } // --------------------------------------------------------------------------- static const metadata::ExtentPtr nullExtent{}; static const metadata::ExtentPtr &getExtent(const crs::CRSNNPtr &crs) { const auto &domains = crs->domains(); if (!domains.empty()) { return domains[0]->domainOfValidity(); } const auto *boundCRS = dynamic_cast<const crs::BoundCRS *>(crs.get()); if (boundCRS) { return getExtent(boundCRS->baseCRS()); } return nullExtent; } // --------------------------------------------------------------------------- static metadata::ExtentPtr getExtent(const std::vector<CoordinateOperationNNPtr> &ops, bool conversionExtentIsWorld, bool &emptyIntersection) { metadata::ExtentPtr res = nullptr; for (const auto &subop : ops) { const auto &subExtent = getExtent(subop, conversionExtentIsWorld, emptyIntersection); if (!subExtent) { if (emptyIntersection) { return nullptr; } continue; } if (res == nullptr) { res = subExtent; } else { res = res->intersection(NN_NO_CHECK(subExtent)); if (!res) { emptyIntersection = true; return nullptr; } } } emptyIntersection = false; return res; } // --------------------------------------------------------------------------- static double getPseudoArea(const metadata::ExtentPtr &extent) { if (!extent) return 0.0; const auto &geographicElements = extent->geographicElements(); if (geographicElements.empty()) return 0.0; auto bbox = dynamic_cast<const metadata::GeographicBoundingBox *>( geographicElements[0].get()); if (!bbox) return 0; double w = bbox->westBoundLongitude(); double s = bbox->southBoundLatitude(); double e = bbox->eastBoundLongitude(); double n = bbox->northBoundLatitude(); if (w > e) { e += 360.0; } // Integrate cos(lat) between south_lat and north_lat return (e - w) * (std::sin(common::Angle(n).getSIValue()) - std::sin(common::Angle(s).getSIValue())); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct CoordinateOperation::Private { util::optional<std::string> operationVersion_{}; std::vector<metadata::PositionalAccuracyNNPtr> coordinateOperationAccuracies_{}; std::weak_ptr<crs::CRS> sourceCRSWeak_{}; std::weak_ptr<crs::CRS> targetCRSWeak_{}; crs::CRSPtr interpolationCRS_{}; util::optional<common::DataEpoch> sourceCoordinateEpoch_{}; util::optional<common::DataEpoch> targetCoordinateEpoch_{}; bool hasBallparkTransformation_ = false; // do not set this for a ProjectedCRS.definingConversion struct CRSStrongRef { crs::CRSNNPtr sourceCRS_; crs::CRSNNPtr targetCRS_; CRSStrongRef(const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn) : sourceCRS_(sourceCRSIn), targetCRS_(targetCRSIn) {} }; std::unique_ptr<CRSStrongRef> strongRef_{}; Private() = default; Private(const Private &other) : operationVersion_(other.operationVersion_), coordinateOperationAccuracies_(other.coordinateOperationAccuracies_), sourceCRSWeak_(other.sourceCRSWeak_), targetCRSWeak_(other.targetCRSWeak_), interpolationCRS_(other.interpolationCRS_), sourceCoordinateEpoch_(other.sourceCoordinateEpoch_), targetCoordinateEpoch_(other.targetCoordinateEpoch_), strongRef_(other.strongRef_ ? internal::make_unique<CRSStrongRef>( *(other.strongRef_)) : nullptr) {} Private &operator=(const Private &) = delete; }; // --------------------------------------------------------------------------- GridDescription::GridDescription() : shortName{}, fullName{}, packageName{}, url{}, directDownload(false), openLicense(false), available(false) {} GridDescription::~GridDescription() = default; GridDescription::GridDescription(const GridDescription &) = default; GridDescription::GridDescription(GridDescription &&other) noexcept : shortName(std::move(other.shortName)), fullName(std::move(other.fullName)), packageName(std::move(other.packageName)), url(std::move(other.url)), directDownload(other.directDownload), openLicense(other.openLicense), available(other.available) {} //! @endcond // --------------------------------------------------------------------------- CoordinateOperation::CoordinateOperation() : d(internal::make_unique<Private>()) {} // --------------------------------------------------------------------------- CoordinateOperation::CoordinateOperation(const CoordinateOperation &other) : ObjectUsage(other), d(internal::make_unique<Private>(*other.d)) {} // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress CoordinateOperation::~CoordinateOperation() = default; //! @endcond // --------------------------------------------------------------------------- /** \brief Return the version of the coordinate transformation (i.e. * instantiation * due to the stochastic nature of the parameters). * * Mandatory when describing a coordinate transformation or point motion * operation, and should not be supplied for a coordinate conversion. * * @return version or empty. */ const util::optional<std::string> & CoordinateOperation::operationVersion() const { return d->operationVersion_; } // --------------------------------------------------------------------------- /** \brief Return estimate(s) of the impact of this coordinate operation on * point accuracy. * * Gives position error estimates for target coordinates of this coordinate * operation, assuming no errors in source coordinates. * * @return estimate(s) or empty vector. */ const std::vector<metadata::PositionalAccuracyNNPtr> & CoordinateOperation::coordinateOperationAccuracies() const { return d->coordinateOperationAccuracies_; } // --------------------------------------------------------------------------- /** \brief Return the source CRS of this coordinate operation. * * This should not be null, expect for of a derivingConversion of a DerivedCRS * when the owning DerivedCRS has been destroyed. * * @return source CRS, or null. */ const crs::CRSPtr CoordinateOperation::sourceCRS() const { return d->sourceCRSWeak_.lock(); } // --------------------------------------------------------------------------- /** \brief Return the target CRS of this coordinate operation. * * This should not be null, expect for of a derivingConversion of a DerivedCRS * when the owning DerivedCRS has been destroyed. * * @return target CRS, or null. */ const crs::CRSPtr CoordinateOperation::targetCRS() const { return d->targetCRSWeak_.lock(); } // --------------------------------------------------------------------------- /** \brief Return the interpolation CRS of this coordinate operation. * * @return interpolation CRS, or null. */ const crs::CRSPtr &CoordinateOperation::interpolationCRS() const { return d->interpolationCRS_; } // --------------------------------------------------------------------------- /** \brief Return the source epoch of coordinates. * * @return source epoch of coordinates, or empty. */ const util::optional<common::DataEpoch> & CoordinateOperation::sourceCoordinateEpoch() const { return d->sourceCoordinateEpoch_; } // --------------------------------------------------------------------------- /** \brief Return the target epoch of coordinates. * * @return target epoch of coordinates, or empty. */ const util::optional<common::DataEpoch> & CoordinateOperation::targetCoordinateEpoch() const { return d->targetCoordinateEpoch_; } // --------------------------------------------------------------------------- void CoordinateOperation::setWeakSourceTargetCRS( std::weak_ptr<crs::CRS> sourceCRSIn, std::weak_ptr<crs::CRS> targetCRSIn) { d->sourceCRSWeak_ = sourceCRSIn; d->targetCRSWeak_ = targetCRSIn; } // --------------------------------------------------------------------------- void CoordinateOperation::setCRSs(const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const crs::CRSPtr &interpolationCRSIn) { d->strongRef_ = internal::make_unique<Private::CRSStrongRef>(sourceCRSIn, targetCRSIn); d->sourceCRSWeak_ = sourceCRSIn.as_nullable(); d->targetCRSWeak_ = targetCRSIn.as_nullable(); d->interpolationCRS_ = interpolationCRSIn; } // --------------------------------------------------------------------------- void CoordinateOperation::setCRSs(const CoordinateOperation *in, bool inverseSourceTarget) { auto l_sourceCRS = in->sourceCRS(); auto l_targetCRS = in->targetCRS(); if (l_sourceCRS && l_targetCRS) { auto nn_sourceCRS = NN_NO_CHECK(l_sourceCRS); auto nn_targetCRS = NN_NO_CHECK(l_targetCRS); if (inverseSourceTarget) { setCRSs(nn_targetCRS, nn_sourceCRS, in->interpolationCRS()); } else { setCRSs(nn_sourceCRS, nn_targetCRS, in->interpolationCRS()); } } } // --------------------------------------------------------------------------- void CoordinateOperation::setAccuracies( const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { d->coordinateOperationAccuracies_ = accuracies; } // --------------------------------------------------------------------------- /** \brief Return whether a coordinate operation can be instantiated as * a PROJ pipeline, checking in particular that referenced grids are * available. */ bool CoordinateOperation::isPROJInstantiable( const io::DatabaseContextPtr &databaseContext) const { try { exportToPROJString(io::PROJStringFormatter::create().get()); } catch (const std::exception &) { return false; } for (const auto &gridDesc : gridsNeeded(databaseContext)) { if (!gridDesc.available) { return false; } } return true; } // --------------------------------------------------------------------------- /** \brief Return whether a coordinate operation has a "ballpark" * transformation, * that is a very approximate one, due to lack of more accurate transformations. * * Typically a null geographic offset between two horizontal datum, or a * null vertical offset (or limited to unit changes) between two vertical * datum. Errors of several tens to one hundred meters might be expected, * compared to more accurate transformations. */ bool CoordinateOperation::hasBallparkTransformation() const { return d->hasBallparkTransformation_; } // --------------------------------------------------------------------------- void CoordinateOperation::setHasBallparkTransformation(bool b) { d->hasBallparkTransformation_ = b; } // --------------------------------------------------------------------------- void CoordinateOperation::setProperties( const util::PropertyMap &properties) // throw(InvalidValueTypeException) { ObjectUsage::setProperties(properties); properties.getStringValue(OPERATION_VERSION_KEY, d->operationVersion_); } // --------------------------------------------------------------------------- /** \brief Return a variation of the current coordinate operation whose axis * order is the one expected for visualization purposes. */ CoordinateOperationNNPtr CoordinateOperation::normalizeForVisualization() const { auto l_sourceCRS = sourceCRS(); auto l_targetCRS = targetCRS(); if (!l_sourceCRS || !l_targetCRS) { throw util::UnsupportedOperationException( "Cannot retrieve source or target CRS"); } const bool swapSource = l_sourceCRS->mustAxisOrderBeSwitchedForVisualization(); const bool swapTarget = l_targetCRS->mustAxisOrderBeSwitchedForVisualization(); auto l_this = NN_NO_CHECK(std::dynamic_pointer_cast<CoordinateOperation>( shared_from_this().as_nullable())); if (!swapSource && !swapTarget) { return l_this; } std::vector<CoordinateOperationNNPtr> subOps; if (swapSource) { auto op = Conversion::createAxisOrderReversal(false); op->setCRSs(l_sourceCRS->normalizeForVisualization(), NN_NO_CHECK(l_sourceCRS), nullptr); subOps.emplace_back(op); } subOps.emplace_back(l_this); if (swapTarget) { auto op = Conversion::createAxisOrderReversal(false); op->setCRSs(NN_NO_CHECK(l_targetCRS), l_targetCRS->normalizeForVisualization(), nullptr); subOps.emplace_back(op); } return util::nn_static_pointer_cast<CoordinateOperation>( ConcatenatedOperation::createComputeMetadata(subOps, true)); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress CoordinateOperationNNPtr CoordinateOperation::shallowClone() const { return _shallowClone(); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct OperationMethod::Private { util::optional<std::string> formula_{}; util::optional<metadata::Citation> formulaCitation_{}; std::vector<GeneralOperationParameterNNPtr> parameters_{}; std::string projMethodOverride_{}; }; //! @endcond // --------------------------------------------------------------------------- OperationMethod::OperationMethod() : d(internal::make_unique<Private>()) {} // --------------------------------------------------------------------------- OperationMethod::OperationMethod(const OperationMethod &other) : IdentifiedObject(other), d(internal::make_unique<Private>(*other.d)) {} // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress OperationMethod::~OperationMethod() = default; //! @endcond // --------------------------------------------------------------------------- /** \brief Return the formula(s) or procedure used by this coordinate operation * method. * * This may be a reference to a publication (in which case use * formulaCitation()). * * Note that the operation method may not be analytic, in which case this * attribute references or contains the procedure, not an analytic formula. * * @return the formula, or empty. */ const util::optional<std::string> &OperationMethod::formula() PROJ_PURE_DEFN { return d->formula_; } // --------------------------------------------------------------------------- /** \brief Return a reference to a publication giving the formula(s) or * procedure * used by the coordinate operation method. * * @return the formula citation, or empty. */ const util::optional<metadata::Citation> & OperationMethod::formulaCitation() PROJ_PURE_DEFN { return d->formulaCitation_; } // --------------------------------------------------------------------------- /** \brief Return the parameters of this operation method. * * @return the parameters. */ const std::vector<GeneralOperationParameterNNPtr> & OperationMethod::parameters() PROJ_PURE_DEFN { return d->parameters_; } // --------------------------------------------------------------------------- /** \brief Instantiate a operation method from a vector of * GeneralOperationParameter. * * @param properties See \ref general_properties. At minimum the name should be * defined. * @param parameters Vector of GeneralOperationParameterNNPtr. * @return a new OperationMethod. */ OperationMethodNNPtr OperationMethod::create( const util::PropertyMap &properties, const std::vector<GeneralOperationParameterNNPtr> &parameters) { OperationMethodNNPtr method( OperationMethod::nn_make_shared<OperationMethod>()); method->assignSelf(method); method->setProperties(properties); method->d->parameters_ = parameters; properties.getStringValue("proj_method", method->d->projMethodOverride_); return method; } // --------------------------------------------------------------------------- /** \brief Instantiate a operation method from a vector of OperationParameter. * * @param properties See \ref general_properties. At minimum the name should be * defined. * @param parameters Vector of OperationParameterNNPtr. * @return a new OperationMethod. */ OperationMethodNNPtr OperationMethod::create( const util::PropertyMap &properties, const std::vector<OperationParameterNNPtr> &parameters) { std::vector<GeneralOperationParameterNNPtr> parametersGeneral; parametersGeneral.reserve(parameters.size()); for (const auto &p : parameters) { parametersGeneral.push_back(p); } return create(properties, parametersGeneral); } // --------------------------------------------------------------------------- /** \brief Return the EPSG code, either directly, or through the name * @return code, or 0 if not found */ int OperationMethod::getEPSGCode() PROJ_PURE_DEFN { int epsg_code = IdentifiedObject::getEPSGCode(); if (epsg_code == 0) { auto l_name = nameStr(); if (ends_with(l_name, " (3D)")) { l_name.resize(l_name.size() - strlen(" (3D)")); } for (const auto &tuple : methodNameCodes) { if (metadata::Identifier::isEquivalentName(l_name.c_str(), tuple.name)) { return tuple.epsg_code; } } } return epsg_code; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void OperationMethod::_exportToWKT(io::WKTFormatter *formatter) const { const bool isWKT2 = formatter->version() == io::WKTFormatter::Version::WKT2; formatter->startNode(isWKT2 ? io::WKTConstants::METHOD : io::WKTConstants::PROJECTION, !identifiers().empty()); std::string l_name(nameStr()); if (!isWKT2) { const MethodMapping *mapping = getMapping(this); if (mapping == nullptr) { l_name = replaceAll(l_name, " ", "_"); } else { if (l_name == PROJ_WKT2_NAME_METHOD_GEOSTATIONARY_SATELLITE_SWEEP_X) { l_name = "Geostationary_Satellite"; } else { if (mapping->wkt1_name == nullptr) { throw io::FormattingException( std::string("Unsupported conversion method: ") + mapping->wkt2_name); } l_name = mapping->wkt1_name; } } } formatter->addQuotedString(l_name); if (formatter->outputId()) { formatID(formatter); } formatter->endNode(); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void OperationMethod::_exportToJSON( io::JSONFormatter *formatter) const // throw(FormattingException) { auto &writer = formatter->writer(); auto objectContext(formatter->MakeObjectContext("OperationMethod", !identifiers().empty())); writer.AddObjKey("name"); writer.Add(nameStr()); if (formatter->outputId()) { formatID(formatter); } } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress bool OperationMethod::_isEquivalentTo( const util::IComparable *other, util::IComparable::Criterion criterion) const { auto otherOM = dynamic_cast<const OperationMethod *>(other); if (otherOM == nullptr || !IdentifiedObject::_isEquivalentTo(other, criterion)) { return false; } // TODO test formula and formulaCitation const auto &params = parameters(); const auto &otherParams = otherOM->parameters(); const auto paramsSize = params.size(); if (paramsSize != otherParams.size()) { return false; } if (criterion == util::IComparable::Criterion::STRICT) { for (size_t i = 0; i < paramsSize; i++) { if (!params[i]->_isEquivalentTo(otherParams[i].get(), criterion)) { return false; } } } else { std::vector<bool> candidateIndices(paramsSize, true); for (size_t i = 0; i < paramsSize; i++) { bool found = false; for (size_t j = 0; j < paramsSize; j++) { if (candidateIndices[j] && params[i]->_isEquivalentTo(otherParams[j].get(), criterion)) { candidateIndices[j] = false; found = true; break; } } if (!found) { return false; } } } return true; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct GeneralParameterValue::Private {}; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress GeneralParameterValue::GeneralParameterValue() : d(nullptr) {} // --------------------------------------------------------------------------- GeneralParameterValue::GeneralParameterValue(const GeneralParameterValue &) : d(nullptr) {} //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress GeneralParameterValue::~GeneralParameterValue() = default; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct OperationParameterValue::Private { OperationParameterNNPtr parameter; ParameterValueNNPtr parameterValue; Private(const OperationParameterNNPtr &parameterIn, const ParameterValueNNPtr &valueIn) : parameter(parameterIn), parameterValue(valueIn) {} }; //! @endcond // --------------------------------------------------------------------------- OperationParameterValue::OperationParameterValue( const OperationParameterValue &other) : GeneralParameterValue(other), d(internal::make_unique<Private>(*other.d)) {} // --------------------------------------------------------------------------- OperationParameterValue::OperationParameterValue( const OperationParameterNNPtr &parameterIn, const ParameterValueNNPtr &valueIn) : GeneralParameterValue(), d(internal::make_unique<Private>(parameterIn, valueIn)) {} // --------------------------------------------------------------------------- /** \brief Instantiate a OperationParameterValue. * * @param parameterIn Parameter (definition). * @param valueIn Parameter value. * @return a new OperationParameterValue. */ OperationParameterValueNNPtr OperationParameterValue::create(const OperationParameterNNPtr &parameterIn, const ParameterValueNNPtr &valueIn) { return OperationParameterValue::nn_make_shared<OperationParameterValue>( parameterIn, valueIn); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress OperationParameterValue::~OperationParameterValue() = default; //! @endcond // --------------------------------------------------------------------------- /** \brief Return the parameter (definition) * * @return the parameter (definition). */ const OperationParameterNNPtr & OperationParameterValue::parameter() PROJ_PURE_DEFN { return d->parameter; } // --------------------------------------------------------------------------- /** \brief Return the parameter value. * * @return the parameter value. */ const ParameterValueNNPtr & OperationParameterValue::parameterValue() PROJ_PURE_DEFN { return d->parameterValue; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void OperationParameterValue::_exportToWKT( // cppcheck-suppress passedByValue io::WKTFormatter *formatter) const { _exportToWKT(formatter, nullptr); } void OperationParameterValue::_exportToWKT(io::WKTFormatter *formatter, const MethodMapping *mapping) const { const ParamMapping *paramMapping = mapping ? getMapping(mapping, d->parameter) : nullptr; if (paramMapping && paramMapping->wkt1_name == nullptr) { return; } const bool isWKT2 = formatter->version() == io::WKTFormatter::Version::WKT2; if (isWKT2 && parameterValue()->type() == ParameterValue::Type::FILENAME) { formatter->startNode(io::WKTConstants::PARAMETERFILE, !parameter()->identifiers().empty()); } else { formatter->startNode(io::WKTConstants::PARAMETER, !parameter()->identifiers().empty()); } if (paramMapping) { formatter->addQuotedString(paramMapping->wkt1_name); } else { formatter->addQuotedString(parameter()->nameStr()); } parameterValue()->_exportToWKT(formatter); if (formatter->outputId()) { parameter()->formatID(formatter); } formatter->endNode(); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void OperationParameterValue::_exportToJSON( io::JSONFormatter *formatter) const { auto &writer = formatter->writer(); auto objectContext(formatter->MakeObjectContext( "ParameterValue", !parameter()->identifiers().empty())); writer.AddObjKey("name"); writer.Add(parameter()->nameStr()); const auto &l_value(parameterValue()); if (l_value->type() == ParameterValue::Type::MEASURE) { writer.AddObjKey("value"); writer.Add(l_value->value().value(), 15); writer.AddObjKey("unit"); const auto &l_unit(l_value->value().unit()); if (l_unit == common::UnitOfMeasure::METRE || l_unit == common::UnitOfMeasure::DEGREE || l_unit == common::UnitOfMeasure::SCALE_UNITY) { writer.Add(l_unit.name()); } else { l_unit._exportToJSON(formatter); } } else if (l_value->type() == ParameterValue::Type::FILENAME) { writer.AddObjKey("value"); writer.Add(l_value->valueFile()); } if (formatter->outputId()) { parameter()->formatID(formatter); } } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress /** Utility method used on WKT2 import to convert from abridged transformation * to "normal" transformation parameters. */ bool OperationParameterValue::convertFromAbridged( const std::string &paramName, double &val, const common::UnitOfMeasure *&unit, int &paramEPSGCode) { if (metadata::Identifier::isEquivalentName( paramName.c_str(), EPSG_NAME_PARAMETER_X_AXIS_TRANSLATION) || paramEPSGCode == EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION) { unit = &common::UnitOfMeasure::METRE; paramEPSGCode = EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION; return true; } else if (metadata::Identifier::isEquivalentName( paramName.c_str(), EPSG_NAME_PARAMETER_Y_AXIS_TRANSLATION) || paramEPSGCode == EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION) { unit = &common::UnitOfMeasure::METRE; paramEPSGCode = EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION; return true; } else if (metadata::Identifier::isEquivalentName( paramName.c_str(), EPSG_NAME_PARAMETER_Z_AXIS_TRANSLATION) || paramEPSGCode == EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION) { unit = &common::UnitOfMeasure::METRE; paramEPSGCode = EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION; return true; } else if (metadata::Identifier::isEquivalentName( paramName.c_str(), EPSG_NAME_PARAMETER_X_AXIS_ROTATION) || paramEPSGCode == EPSG_CODE_PARAMETER_X_AXIS_ROTATION) { unit = &common::UnitOfMeasure::ARC_SECOND; paramEPSGCode = EPSG_CODE_PARAMETER_X_AXIS_ROTATION; return true; } else if (metadata::Identifier::isEquivalentName( paramName.c_str(), EPSG_NAME_PARAMETER_Y_AXIS_ROTATION) || paramEPSGCode == EPSG_CODE_PARAMETER_Y_AXIS_ROTATION) { unit = &common::UnitOfMeasure::ARC_SECOND; paramEPSGCode = EPSG_CODE_PARAMETER_Y_AXIS_ROTATION; return true; } else if (metadata::Identifier::isEquivalentName( paramName.c_str(), EPSG_NAME_PARAMETER_Z_AXIS_ROTATION) || paramEPSGCode == EPSG_CODE_PARAMETER_Z_AXIS_ROTATION) { unit = &common::UnitOfMeasure::ARC_SECOND; paramEPSGCode = EPSG_CODE_PARAMETER_Z_AXIS_ROTATION; return true; } else if (metadata::Identifier::isEquivalentName( paramName.c_str(), EPSG_NAME_PARAMETER_SCALE_DIFFERENCE) || paramEPSGCode == EPSG_CODE_PARAMETER_SCALE_DIFFERENCE) { val = (val - 1.0) * 1e6; unit = &common::UnitOfMeasure::PARTS_PER_MILLION; paramEPSGCode = EPSG_CODE_PARAMETER_SCALE_DIFFERENCE; return true; } return false; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress bool OperationParameterValue::_isEquivalentTo( const util::IComparable *other, util::IComparable::Criterion criterion) const { auto otherOPV = dynamic_cast<const OperationParameterValue *>(other); if (otherOPV == nullptr) { return false; } if (!d->parameter->_isEquivalentTo(otherOPV->d->parameter.get(), criterion)) { return false; } if (criterion == util::IComparable::Criterion::STRICT) { return d->parameterValue->_isEquivalentTo( otherOPV->d->parameterValue.get(), criterion); } if (d->parameterValue->_isEquivalentTo(otherOPV->d->parameterValue.get(), criterion)) { return true; } if (d->parameter->getEPSGCode() == EPSG_CODE_PARAMETER_AZIMUTH_INITIAL_LINE || d->parameter->getEPSGCode() == EPSG_CODE_PARAMETER_ANGLE_RECTIFIED_TO_SKEW_GRID) { if (parameterValue()->type() == ParameterValue::Type::MEASURE && otherOPV->parameterValue()->type() == ParameterValue::Type::MEASURE) { const double a = std::fmod(parameterValue()->value().convertToUnit( common::UnitOfMeasure::DEGREE) + 360.0, 360.0); const double b = std::fmod(otherOPV->parameterValue()->value().convertToUnit( common::UnitOfMeasure::DEGREE) + 360.0, 360.0); return std::fabs(a - b) <= 1e-10 * std::fabs(a); } } return false; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct GeneralOperationParameter::Private {}; //! @endcond // --------------------------------------------------------------------------- GeneralOperationParameter::GeneralOperationParameter() : d(nullptr) {} // --------------------------------------------------------------------------- GeneralOperationParameter::GeneralOperationParameter( const GeneralOperationParameter &other) : IdentifiedObject(other), d(nullptr) {} // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress GeneralOperationParameter::~GeneralOperationParameter() = default; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct OperationParameter::Private {}; //! @endcond // --------------------------------------------------------------------------- OperationParameter::OperationParameter() : d(nullptr) {} // --------------------------------------------------------------------------- OperationParameter::OperationParameter(const OperationParameter &other) : GeneralOperationParameter(other), d(nullptr) {} // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress OperationParameter::~OperationParameter() = default; //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a OperationParameter. * * @param properties See \ref general_properties. At minimum the name should be * defined. * @return a new OperationParameter. */ OperationParameterNNPtr OperationParameter::create(const util::PropertyMap &properties) { OperationParameterNNPtr op( OperationParameter::nn_make_shared<OperationParameter>()); op->assignSelf(op); op->setProperties(properties); return op; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress bool OperationParameter::_isEquivalentTo( const util::IComparable *other, util::IComparable::Criterion criterion) const { auto otherOP = dynamic_cast<const OperationParameter *>(other); if (otherOP == nullptr) { return false; } if (criterion == util::IComparable::Criterion::STRICT) { return IdentifiedObject::_isEquivalentTo(other, criterion); } if (IdentifiedObject::_isEquivalentTo(other, criterion)) { return true; } auto l_epsgCode = getEPSGCode(); return l_epsgCode != 0 && l_epsgCode == otherOP->getEPSGCode(); } //! @endcond // --------------------------------------------------------------------------- void OperationParameter::_exportToWKT(io::WKTFormatter *) const {} // --------------------------------------------------------------------------- /** \brief Return the name of a parameter designed by its EPSG code * @return name, or nullptr if not found */ const char *OperationParameter::getNameForEPSGCode(int epsg_code) noexcept { for (const auto &tuple : paramNameCodes) { if (tuple.epsg_code == epsg_code) { return tuple.name; } } return nullptr; } // --------------------------------------------------------------------------- /** \brief Return the EPSG code, either directly, or through the name * @return code, or 0 if not found */ int OperationParameter::getEPSGCode() PROJ_PURE_DEFN { int epsg_code = IdentifiedObject::getEPSGCode(); if (epsg_code == 0) { const auto &l_name = nameStr(); for (const auto &tuple : paramNameCodes) { if (metadata::Identifier::isEquivalentName(l_name.c_str(), tuple.name)) { return tuple.epsg_code; } } if (metadata::Identifier::isEquivalentName(l_name.c_str(), "Latitude of origin")) { return EPSG_CODE_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN; } if (metadata::Identifier::isEquivalentName(l_name.c_str(), "Scale factor")) { return EPSG_CODE_PARAMETER_SCALE_FACTOR_AT_NATURAL_ORIGIN; } } return epsg_code; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct SingleOperation::Private { std::vector<GeneralParameterValueNNPtr> parameterValues_{}; OperationMethodNNPtr method_; explicit Private(const OperationMethodNNPtr &methodIn) : method_(methodIn) {} }; //! @endcond // --------------------------------------------------------------------------- SingleOperation::SingleOperation(const OperationMethodNNPtr &methodIn) : d(internal::make_unique<Private>(methodIn)) {} // --------------------------------------------------------------------------- SingleOperation::SingleOperation(const SingleOperation &other) : #if !defined(COMPILER_WARNS_ABOUT_ABSTRACT_VBASE_INIT) CoordinateOperation(other), #endif d(internal::make_unique<Private>(*other.d)) { } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress SingleOperation::~SingleOperation() = default; //! @endcond // --------------------------------------------------------------------------- /** \brief Return the parameter values. * * @return the parameter values. */ const std::vector<GeneralParameterValueNNPtr> & SingleOperation::parameterValues() PROJ_PURE_DEFN { return d->parameterValues_; } // --------------------------------------------------------------------------- /** \brief Return the operation method associated to the operation. * * @return the operation method. */ const OperationMethodNNPtr &SingleOperation::method() PROJ_PURE_DEFN { return d->method_; } // --------------------------------------------------------------------------- void SingleOperation::setParameterValues( const std::vector<GeneralParameterValueNNPtr> &values) { d->parameterValues_ = values; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static const ParameterValuePtr nullParameterValue; //! @endcond /** \brief Return the parameter value corresponding to a parameter name or * EPSG code * * @param paramName the parameter name (or empty, in which case epsg_code * should be non zero) * @param epsg_code the parameter EPSG code (possibly zero) * @return the value, or nullptr if not found. */ const ParameterValuePtr & SingleOperation::parameterValue(const std::string &paramName, int epsg_code) const noexcept { if (epsg_code) { for (const auto &genOpParamvalue : parameterValues()) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto &parameter = opParamvalue->parameter(); if (parameter->getEPSGCode() == epsg_code) { return opParamvalue->parameterValue(); } } } } for (const auto &genOpParamvalue : parameterValues()) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto &parameter = opParamvalue->parameter(); if (metadata::Identifier::isEquivalentName( paramName.c_str(), parameter->nameStr().c_str())) { return opParamvalue->parameterValue(); } } } for (const auto &genOpParamvalue : parameterValues()) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto &parameter = opParamvalue->parameter(); if (areEquivalentParameters(paramName, parameter->nameStr())) { return opParamvalue->parameterValue(); } } } return nullParameterValue; } // --------------------------------------------------------------------------- /** \brief Return the parameter value corresponding to a EPSG code * * @param epsg_code the parameter EPSG code * @return the value, or nullptr if not found. */ const ParameterValuePtr &SingleOperation::parameterValue(int epsg_code) const noexcept { for (const auto &genOpParamvalue : parameterValues()) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto &parameter = opParamvalue->parameter(); if (parameter->getEPSGCode() == epsg_code) { return opParamvalue->parameterValue(); } } } return nullParameterValue; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static const common::Measure nullMeasure; //! @endcond /** \brief Return the parameter value, as a measure, corresponding to a * parameter name or EPSG code * * @param paramName the parameter name (or empty, in which case epsg_code * should be non zero) * @param epsg_code the parameter EPSG code (possibly zero) * @return the measure, or the empty Measure() object if not found. */ const common::Measure & SingleOperation::parameterValueMeasure(const std::string &paramName, int epsg_code) const noexcept { const auto &val = parameterValue(paramName, epsg_code); if (val && val->type() == ParameterValue::Type::MEASURE) { return val->value(); } return nullMeasure; } /** \brief Return the parameter value, as a measure, corresponding to a * EPSG code * * @param epsg_code the parameter EPSG code * @return the measure, or the empty Measure() object if not found. */ const common::Measure & SingleOperation::parameterValueMeasure(int epsg_code) const noexcept { const auto &val = parameterValue(epsg_code); if (val && val->type() == ParameterValue::Type::MEASURE) { return val->value(); } return nullMeasure; } //! @cond Doxygen_Suppress double SingleOperation::parameterValueNumericAsSI(int epsg_code) const noexcept { const auto &val = parameterValue(epsg_code); if (val && val->type() == ParameterValue::Type::MEASURE) { return val->value().getSIValue(); } return 0.0; } double SingleOperation::parameterValueNumeric( int epsg_code, const common::UnitOfMeasure &targetUnit) const noexcept { const auto &val = parameterValue(epsg_code); if (val && val->type() == ParameterValue::Type::MEASURE) { return val->value().convertToUnit(targetUnit); } return 0.0; } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a PROJ-based single operation. * * \note The operation might internally be a pipeline chaining several * operations. * The use of the SingleOperation modeling here is mostly to be able to get * the PROJ string as a parameter. * * @param properties Properties * @param PROJString the PROJ string. * @param sourceCRS source CRS (might be null). * @param targetCRS target CRS (might be null). * @param accuracies Vector of positional accuracy (might be empty). * @return the new instance */ SingleOperationNNPtr SingleOperation::createPROJBased( const util::PropertyMap &properties, const std::string &PROJString, const crs::CRSPtr &sourceCRS, const crs::CRSPtr &targetCRS, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return util::nn_static_pointer_cast<SingleOperation>( PROJBasedOperation::create(properties, PROJString, sourceCRS, targetCRS, accuracies)); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static SingleOperationNNPtr createPROJBased( const util::PropertyMap &properties, const io::IPROJStringExportableNNPtr &projExportable, const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies, bool hasBallparkTransformation) { return util::nn_static_pointer_cast<SingleOperation>( PROJBasedOperation::create(properties, projExportable, false, sourceCRS, targetCRS, accuracies, hasBallparkTransformation)); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress bool SingleOperation::_isEquivalentTo( const util::IComparable *other, util::IComparable::Criterion criterion) const { return _isEquivalentTo(other, criterion, false); } bool SingleOperation::_isEquivalentTo(const util::IComparable *other, util::IComparable::Criterion criterion, bool inOtherDirection) const { auto otherSO = dynamic_cast<const SingleOperation *>(other); if (otherSO == nullptr || (criterion == util::IComparable::Criterion::STRICT && !ObjectUsage::_isEquivalentTo(other, criterion))) { return false; } const int methodEPSGCode = d->method_->getEPSGCode(); const int otherMethodEPSGCode = otherSO->d->method_->getEPSGCode(); bool equivalentMethods = (criterion == util::IComparable::Criterion::EQUIVALENT && methodEPSGCode != 0 && methodEPSGCode == otherMethodEPSGCode) || d->method_->_isEquivalentTo(otherSO->d->method_.get(), criterion); if (!equivalentMethods && criterion == util::IComparable::Criterion::EQUIVALENT) { if ((methodEPSGCode == EPSG_CODE_METHOD_LAMBERT_AZIMUTHAL_EQUAL_AREA && otherMethodEPSGCode == EPSG_CODE_METHOD_LAMBERT_AZIMUTHAL_EQUAL_AREA_SPHERICAL) || (otherMethodEPSGCode == EPSG_CODE_METHOD_LAMBERT_AZIMUTHAL_EQUAL_AREA && methodEPSGCode == EPSG_CODE_METHOD_LAMBERT_AZIMUTHAL_EQUAL_AREA_SPHERICAL) || (methodEPSGCode == EPSG_CODE_METHOD_EQUIDISTANT_CYLINDRICAL && otherMethodEPSGCode == EPSG_CODE_METHOD_EQUIDISTANT_CYLINDRICAL_SPHERICAL) || (otherMethodEPSGCode == EPSG_CODE_METHOD_EQUIDISTANT_CYLINDRICAL && methodEPSGCode == EPSG_CODE_METHOD_EQUIDISTANT_CYLINDRICAL_SPHERICAL)) { auto geodCRS = dynamic_cast<const crs::GeodeticCRS *>(sourceCRS().get()); auto otherGeodCRS = dynamic_cast<const crs::GeodeticCRS *>( otherSO->sourceCRS().get()); if (geodCRS && otherGeodCRS && geodCRS->ellipsoid()->isSphere() && otherGeodCRS->ellipsoid()->isSphere()) { equivalentMethods = true; } } } if (!equivalentMethods) { if (criterion == util::IComparable::Criterion::EQUIVALENT) { const auto isTOWGS84Transf = [](int code) { return code == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOCENTRIC || code == EPSG_CODE_METHOD_POSITION_VECTOR_GEOCENTRIC || code == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOCENTRIC || code == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_2D || code == EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_2D || code == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_2D || code == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_3D || code == EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_3D || code == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_3D; }; // Translation vs (PV or CF) // or different PV vs CF convention if (isTOWGS84Transf(methodEPSGCode) && isTOWGS84Transf(otherMethodEPSGCode)) { auto transf = static_cast<const Transformation *>(this); auto otherTransf = static_cast<const Transformation *>(otherSO); auto params = transf->getTOWGS84Parameters(); auto otherParams = otherTransf->getTOWGS84Parameters(); assert(params.size() == 7); assert(otherParams.size() == 7); for (size_t i = 0; i < 7; i++) { if (std::fabs(params[i] - otherParams[i]) > 1e-10 * std::fabs(params[i])) { return false; } } return true; } // _1SP methods can sometimes be equivalent to _2SP ones // Check it by using convertToOtherMethod() if (methodEPSGCode == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_1SP && otherMethodEPSGCode == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP) { // Convert from 2SP to 1SP as the other direction has more // degree of liberties. return otherSO->_isEquivalentTo(this, criterion); } else if ((methodEPSGCode == EPSG_CODE_METHOD_MERCATOR_VARIANT_A && otherMethodEPSGCode == EPSG_CODE_METHOD_MERCATOR_VARIANT_B) || (methodEPSGCode == EPSG_CODE_METHOD_MERCATOR_VARIANT_B && otherMethodEPSGCode == EPSG_CODE_METHOD_MERCATOR_VARIANT_A) || (methodEPSGCode == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP && otherMethodEPSGCode == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_1SP)) { auto conv = dynamic_cast<const Conversion *>(this); if (conv) { auto eqConv = conv->convertToOtherMethod(otherMethodEPSGCode); if (eqConv) { return eqConv->_isEquivalentTo(other, criterion); } } } } return false; } const auto &values = d->parameterValues_; const auto &otherValues = otherSO->d->parameterValues_; const auto valuesSize = values.size(); const auto otherValuesSize = otherValues.size(); if (criterion == util::IComparable::Criterion::STRICT) { if (valuesSize != otherValuesSize) { return false; } for (size_t i = 0; i < valuesSize; i++) { if (!values[i]->_isEquivalentTo(otherValues[i].get(), criterion)) { return false; } } return true; } std::vector<bool> candidateIndices(otherValuesSize, true); bool equivalent = true; bool foundMissingArgs = valuesSize != otherValuesSize; for (size_t i = 0; equivalent && i < valuesSize; i++) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>(values[i].get()); if (!opParamvalue) return false; equivalent = false; bool sameNameDifferentValue = false; for (size_t j = 0; j < otherValuesSize; j++) { if (candidateIndices[j] && values[i]->_isEquivalentTo(otherValues[j].get(), criterion)) { candidateIndices[j] = false; equivalent = true; break; } else if (candidateIndices[j]) { auto otherOpParamvalue = dynamic_cast<const OperationParameterValue *>( otherValues[j].get()); if (!otherOpParamvalue) return false; sameNameDifferentValue = opParamvalue->parameter()->_isEquivalentTo( otherOpParamvalue->parameter().get(), criterion); if (sameNameDifferentValue) { candidateIndices[j] = false; break; } } } if (!equivalent && methodEPSGCode == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP) { // For LCC_2SP, the standard parallels can be switched and // this will result in the same result. const int paramEPSGCode = opParamvalue->parameter()->getEPSGCode(); if (paramEPSGCode == EPSG_CODE_PARAMETER_LATITUDE_1ST_STD_PARALLEL || paramEPSGCode == EPSG_CODE_PARAMETER_LATITUDE_2ND_STD_PARALLEL) { auto value_1st = parameterValue( EPSG_CODE_PARAMETER_LATITUDE_1ST_STD_PARALLEL); auto value_2nd = parameterValue( EPSG_CODE_PARAMETER_LATITUDE_2ND_STD_PARALLEL); if (value_1st && value_2nd) { equivalent = value_1st->_isEquivalentTo( otherSO ->parameterValue( EPSG_CODE_PARAMETER_LATITUDE_2ND_STD_PARALLEL) .get(), criterion) && value_2nd->_isEquivalentTo( otherSO ->parameterValue( EPSG_CODE_PARAMETER_LATITUDE_1ST_STD_PARALLEL) .get(), criterion); } } } if (equivalent) { continue; } if (sameNameDifferentValue) { break; } // If there are parameters in this method not found in the other one, // check that they are set to a default neutral value, that is 1 // for scale, and 0 otherwise. foundMissingArgs = true; const auto &value = opParamvalue->parameterValue(); if (value->type() != ParameterValue::Type::MEASURE) { break; } if (value->value().unit().type() == common::UnitOfMeasure::Type::SCALE) { equivalent = value->value().getSIValue() == 1.0; } else { equivalent = value->value().getSIValue() == 0.0; } } // In the case the arguments don't perfectly match, try the reverse // check. if (equivalent && foundMissingArgs && !inOtherDirection) { return otherSO->_isEquivalentTo(this, criterion, true); } // Equivalent formulations of 2SP can have different parameters // Then convert to 1SP and compare. if (!equivalent && methodEPSGCode == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP) { auto conv = dynamic_cast<const Conversion *>(this); auto otherConv = dynamic_cast<const Conversion *>(other); if (conv && otherConv) { auto thisAs1SP = conv->convertToOtherMethod( EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_1SP); auto otherAs1SP = otherConv->convertToOtherMethod( EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_1SP); if (thisAs1SP && otherAs1SP) { equivalent = thisAs1SP->_isEquivalentTo(otherAs1SP.get(), criterion); } } } return equivalent; } //! @endcond // --------------------------------------------------------------------------- std::set<GridDescription> SingleOperation::gridsNeeded( const io::DatabaseContextPtr &databaseContext) const { std::set<GridDescription> res; for (const auto &genOpParamvalue : parameterValues()) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto &value = opParamvalue->parameterValue(); if (value->type() == ParameterValue::Type::FILENAME) { GridDescription desc; desc.shortName = value->valueFile(); if (databaseContext) { databaseContext->lookForGridInfo( desc.shortName, desc.fullName, desc.packageName, desc.url, desc.directDownload, desc.openLicense, desc.available); } res.insert(desc); } } } return res; } // --------------------------------------------------------------------------- /** \brief Validate the parameters used by a coordinate operation. * * Return whether the method is known or not, or a list of missing or extra * parameters for the operations recognized by this implementation. */ std::list<std::string> SingleOperation::validateParameters() const { std::list<std::string> res; const auto &l_method = method(); const auto &methodName = l_method->nameStr(); const MethodMapping *methodMapping = nullptr; const auto methodEPSGCode = l_method->getEPSGCode(); for (const auto &mapping : projectionMethodMappings) { if (metadata::Identifier::isEquivalentName(mapping.wkt2_name, methodName.c_str()) || (methodEPSGCode != 0 && methodEPSGCode == mapping.epsg_code)) { methodMapping = &mapping; } } if (methodMapping == nullptr) { for (const auto &mapping : otherMethodMappings) { if (metadata::Identifier::isEquivalentName(mapping.wkt2_name, methodName.c_str()) || (methodEPSGCode != 0 && methodEPSGCode == mapping.epsg_code)) { methodMapping = &mapping; } } } if (!methodMapping) { res.emplace_back("Unknown method " + methodName); return res; } if (methodMapping->wkt2_name != methodName) { if (metadata::Identifier::isEquivalentName(methodMapping->wkt2_name, methodName.c_str())) { std::string msg("Method name "); msg += methodName; msg += " is equivalent to official "; msg += methodMapping->wkt2_name; msg += " but not strictly equal"; res.emplace_back(msg); } else { std::string msg("Method name "); msg += methodName; msg += ", matched to "; msg += methodMapping->wkt2_name; msg += ", through its EPSG code has not an equivalent name"; res.emplace_back(msg); } } if (methodEPSGCode != 0 && methodEPSGCode != methodMapping->epsg_code) { std::string msg("Method of EPSG code "); msg += toString(methodEPSGCode); msg += " does not match official code ("; msg += toString(methodMapping->epsg_code); msg += ')'; res.emplace_back(msg); } // Check if expected parameters are found for (int i = 0; methodMapping->params && methodMapping->params[i] != nullptr; ++i) { const auto *paramMapping = methodMapping->params[i]; const OperationParameterValue *opv = nullptr; for (const auto &genOpParamvalue : parameterValues()) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto &parameter = opParamvalue->parameter(); if ((paramMapping->epsg_code != 0 && parameter->getEPSGCode() == paramMapping->epsg_code) || ci_equal(parameter->nameStr(), paramMapping->wkt2_name)) { opv = opParamvalue; break; } } } if (!opv) { std::string msg("Cannot find expected parameter "); msg += paramMapping->wkt2_name; res.emplace_back(msg); continue; } const auto &parameter = opv->parameter(); if (paramMapping->wkt2_name != parameter->nameStr()) { if (ci_equal(parameter->nameStr(), paramMapping->wkt2_name)) { std::string msg("Parameter name "); msg += parameter->nameStr(); msg += " is equivalent to official "; msg += paramMapping->wkt2_name; msg += " but not strictly equal"; res.emplace_back(msg); } else { std::string msg("Parameter name "); msg += parameter->nameStr(); msg += ", matched to "; msg += paramMapping->wkt2_name; msg += ", through its EPSG code has not an equivalent name"; res.emplace_back(msg); } } const auto paramEPSGCode = parameter->getEPSGCode(); if (paramEPSGCode != 0 && paramEPSGCode != paramMapping->epsg_code) { std::string msg("Parameter of EPSG code "); msg += toString(paramEPSGCode); msg += " does not match official code ("; msg += toString(paramMapping->epsg_code); msg += ')'; res.emplace_back(msg); } } // Check if there are extra parameters for (const auto &genOpParamvalue : parameterValues()) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto &parameter = opParamvalue->parameter(); if (!getMapping(methodMapping, parameter)) { std::string msg("Parameter "); msg += parameter->nameStr(); msg += " found but not expected for this method"; res.emplace_back(msg); } } } return res; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct ParameterValue::Private { ParameterValue::Type type_{ParameterValue::Type::STRING}; std::unique_ptr<common::Measure> measure_{}; std::unique_ptr<std::string> stringValue_{}; int integerValue_{}; bool booleanValue_{}; explicit Private(const common::Measure &valueIn) : type_(ParameterValue::Type::MEASURE), measure_(internal::make_unique<common::Measure>(valueIn)) {} Private(const std::string &stringValueIn, ParameterValue::Type typeIn) : type_(typeIn), stringValue_(internal::make_unique<std::string>(stringValueIn)) {} explicit Private(int integerValueIn) : type_(ParameterValue::Type::INTEGER), integerValue_(integerValueIn) {} explicit Private(bool booleanValueIn) : type_(ParameterValue::Type::BOOLEAN), booleanValue_(booleanValueIn) {} }; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress ParameterValue::~ParameterValue() = default; //! @endcond // --------------------------------------------------------------------------- ParameterValue::ParameterValue(const common::Measure &measureIn) : d(internal::make_unique<Private>(measureIn)) {} // --------------------------------------------------------------------------- ParameterValue::ParameterValue(const std::string &stringValueIn, ParameterValue::Type typeIn) : d(internal::make_unique<Private>(stringValueIn, typeIn)) {} // --------------------------------------------------------------------------- ParameterValue::ParameterValue(int integerValueIn) : d(internal::make_unique<Private>(integerValueIn)) {} // --------------------------------------------------------------------------- ParameterValue::ParameterValue(bool booleanValueIn) : d(internal::make_unique<Private>(booleanValueIn)) {} // --------------------------------------------------------------------------- /** \brief Instantiate a ParameterValue from a Measure (i.e. a value associated * with a * unit) * * @return a new ParameterValue. */ ParameterValueNNPtr ParameterValue::create(const common::Measure &measureIn) { return ParameterValue::nn_make_shared<ParameterValue>(measureIn); } // --------------------------------------------------------------------------- /** \brief Instantiate a ParameterValue from a string value. * * @return a new ParameterValue. */ ParameterValueNNPtr ParameterValue::create(const char *stringValueIn) { return ParameterValue::nn_make_shared<ParameterValue>( std::string(stringValueIn), ParameterValue::Type::STRING); } // --------------------------------------------------------------------------- /** \brief Instantiate a ParameterValue from a string value. * * @return a new ParameterValue. */ ParameterValueNNPtr ParameterValue::create(const std::string &stringValueIn) { return ParameterValue::nn_make_shared<ParameterValue>( stringValueIn, ParameterValue::Type::STRING); } // --------------------------------------------------------------------------- /** \brief Instantiate a ParameterValue from a filename. * * @return a new ParameterValue. */ ParameterValueNNPtr ParameterValue::createFilename(const std::string &stringValueIn) { return ParameterValue::nn_make_shared<ParameterValue>( stringValueIn, ParameterValue::Type::FILENAME); } // --------------------------------------------------------------------------- /** \brief Instantiate a ParameterValue from a integer value. * * @return a new ParameterValue. */ ParameterValueNNPtr ParameterValue::create(int integerValueIn) { return ParameterValue::nn_make_shared<ParameterValue>(integerValueIn); } // --------------------------------------------------------------------------- /** \brief Instantiate a ParameterValue from a boolean value. * * @return a new ParameterValue. */ ParameterValueNNPtr ParameterValue::create(bool booleanValueIn) { return ParameterValue::nn_make_shared<ParameterValue>(booleanValueIn); } // --------------------------------------------------------------------------- /** \brief Returns the type of a parameter value. * * @return the type. */ const ParameterValue::Type &ParameterValue::type() PROJ_PURE_DEFN { return d->type_; } // --------------------------------------------------------------------------- /** \brief Returns the value as a Measure (assumes type() == Type::MEASURE) * @return the value as a Measure. */ const common::Measure &ParameterValue::value() PROJ_PURE_DEFN { return *d->measure_; } // --------------------------------------------------------------------------- /** \brief Returns the value as a string (assumes type() == Type::STRING) * @return the value as a string. */ const std::string &ParameterValue::stringValue() PROJ_PURE_DEFN { return *d->stringValue_; } // --------------------------------------------------------------------------- /** \brief Returns the value as a filename (assumes type() == Type::FILENAME) * @return the value as a filename. */ const std::string &ParameterValue::valueFile() PROJ_PURE_DEFN { return *d->stringValue_; } // --------------------------------------------------------------------------- /** \brief Returns the value as a integer (assumes type() == Type::INTEGER) * @return the value as a integer. */ int ParameterValue::integerValue() PROJ_PURE_DEFN { return d->integerValue_; } // --------------------------------------------------------------------------- /** \brief Returns the value as a boolean (assumes type() == Type::BOOLEAN) * @return the value as a boolean. */ bool ParameterValue::booleanValue() PROJ_PURE_DEFN { return d->booleanValue_; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void ParameterValue::_exportToWKT(io::WKTFormatter *formatter) const { const bool isWKT2 = formatter->version() == io::WKTFormatter::Version::WKT2; const auto &l_type = type(); if (l_type == Type::MEASURE) { const auto &l_value = value(); if (formatter->abridgedTransformation()) { const auto &unit = l_value.unit(); const auto &unitType = unit.type(); if (unitType == common::UnitOfMeasure::Type::LINEAR) { formatter->add(l_value.getSIValue()); } else if (unitType == common::UnitOfMeasure::Type::ANGULAR) { formatter->add( l_value.convertToUnit(common::UnitOfMeasure::ARC_SECOND)); } else if (unit == common::UnitOfMeasure::PARTS_PER_MILLION) { formatter->add(1.0 + l_value.value() * 1e-6); } else { formatter->add(l_value.value()); } } else { const auto &unit = l_value.unit(); if (isWKT2) { formatter->add(l_value.value()); } else { // In WKT1, as we don't output the natural unit, output to the // registered linear / angular unit. const auto &unitType = unit.type(); if (unitType == common::UnitOfMeasure::Type::LINEAR) { const auto &targetUnit = *(formatter->axisLinearUnit()); if (targetUnit.conversionToSI() == 0.0) { throw io::FormattingException( "cannot convert value to target linear unit"); } formatter->add(l_value.convertToUnit(targetUnit)); } else if (unitType == common::UnitOfMeasure::Type::ANGULAR) { const auto &targetUnit = *(formatter->axisAngularUnit()); if (targetUnit.conversionToSI() == 0.0) { throw io::FormattingException( "cannot convert value to target angular unit"); } formatter->add(l_value.convertToUnit(targetUnit)); } else { formatter->add(l_value.getSIValue()); } } if (isWKT2 && unit != common::UnitOfMeasure::NONE) { if (!formatter ->primeMeridianOrParameterUnitOmittedIfSameAsAxis() || (unit != common::UnitOfMeasure::SCALE_UNITY && unit != *(formatter->axisLinearUnit()) && unit != *(formatter->axisAngularUnit()))) { unit._exportToWKT(formatter); } } } } else if (l_type == Type::STRING || l_type == Type::FILENAME) { formatter->addQuotedString(stringValue()); } else if (l_type == Type::INTEGER) { formatter->add(integerValue()); } else { throw io::FormattingException("boolean parameter value not handled"); } } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress bool ParameterValue::_isEquivalentTo( const util::IComparable *other, util::IComparable::Criterion criterion) const { auto otherPV = dynamic_cast<const ParameterValue *>(other); if (otherPV == nullptr) { return false; } if (type() != otherPV->type()) { return false; } switch (type()) { case Type::MEASURE: { return value()._isEquivalentTo(otherPV->value(), criterion); } case Type::STRING: case Type::FILENAME: { return stringValue() == otherPV->stringValue(); } case Type::INTEGER: { return integerValue() == otherPV->integerValue(); } case Type::BOOLEAN: { return booleanValue() == otherPV->booleanValue(); } default: { assert(false); break; } } return true; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct Conversion::Private {}; //! @endcond // --------------------------------------------------------------------------- Conversion::Conversion(const OperationMethodNNPtr &methodIn, const std::vector<GeneralParameterValueNNPtr> &values) : SingleOperation(methodIn), d(nullptr) { setParameterValues(values); } // --------------------------------------------------------------------------- Conversion::Conversion(const Conversion &other) : CoordinateOperation(other), SingleOperation(other), d(nullptr) {} // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress Conversion::~Conversion() = default; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress ConversionNNPtr Conversion::shallowClone() const { auto conv = Conversion::nn_make_shared<Conversion>(*this); conv->assignSelf(conv); conv->setCRSs(this, false); return conv; } CoordinateOperationNNPtr Conversion::_shallowClone() const { return util::nn_static_pointer_cast<CoordinateOperation>(shallowClone()); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress ConversionNNPtr Conversion::alterParametersLinearUnit(const common::UnitOfMeasure &unit, bool convertToNewUnit) const { std::vector<GeneralParameterValueNNPtr> newValues; bool changesDone = false; for (const auto &genOpParamvalue : parameterValues()) { bool updated = false; auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto &paramValue = opParamvalue->parameterValue(); if (paramValue->type() == ParameterValue::Type::MEASURE) { const auto &measure = paramValue->value(); if (measure.unit().type() == common::UnitOfMeasure::Type::LINEAR) { if (!measure.unit()._isEquivalentTo( unit, util::IComparable::Criterion::EQUIVALENT)) { const double newValue = convertToNewUnit ? measure.convertToUnit(unit) : measure.value(); newValues.emplace_back(OperationParameterValue::create( opParamvalue->parameter(), ParameterValue::create( common::Measure(newValue, unit)))); updated = true; } } } } if (updated) { changesDone = true; } else { newValues.emplace_back(genOpParamvalue); } } if (changesDone) { auto conv = create(util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, "unknown"), method(), newValues); conv->setCRSs(this, false); return conv; } else { return NN_NO_CHECK( util::nn_dynamic_pointer_cast<Conversion>(shared_from_this())); } } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a Conversion from a vector of GeneralParameterValue. * * @param properties See \ref general_properties. At minimum the name should be * defined. * @param methodIn the operation method. * @param values the values. * @return a new Conversion. * @throws InvalidOperation */ ConversionNNPtr Conversion::create(const util::PropertyMap &properties, const OperationMethodNNPtr &methodIn, const std::vector<GeneralParameterValueNNPtr> &values) // throw InvalidOperation { if (methodIn->parameters().size() != values.size()) { throw InvalidOperation( "Inconsistent number of parameters and parameter values"); } auto conv = Conversion::nn_make_shared<Conversion>(methodIn, values); conv->assignSelf(conv); conv->setProperties(properties); return conv; } // --------------------------------------------------------------------------- /** \brief Instantiate a Conversion and its OperationMethod * * @param propertiesConversion See \ref general_properties of the conversion. * At minimum the name should be defined. * @param propertiesOperationMethod See \ref general_properties of the operation * method. At minimum the name should be defined. * @param parameters the operation parameters. * @param values the operation values. Constraint: * values.size() == parameters.size() * @return a new Conversion. * @throws InvalidOperation */ ConversionNNPtr Conversion::create( const util::PropertyMap &propertiesConversion, const util::PropertyMap &propertiesOperationMethod, const std::vector<OperationParameterNNPtr> &parameters, const std::vector<ParameterValueNNPtr> &values) // throw InvalidOperation { OperationMethodNNPtr op( OperationMethod::create(propertiesOperationMethod, parameters)); if (parameters.size() != values.size()) { throw InvalidOperation( "Inconsistent number of parameters and parameter values"); } std::vector<GeneralParameterValueNNPtr> generalParameterValues; generalParameterValues.reserve(values.size()); for (size_t i = 0; i < values.size(); i++) { generalParameterValues.push_back( OperationParameterValue::create(parameters[i], values[i])); } return create(propertiesConversion, op, generalParameterValues); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress // --------------------------------------------------------------------------- static util::PropertyMap createMapNameEPSGCode(const std::string &name, int code) { return util::PropertyMap() .set(common::IdentifiedObject::NAME_KEY, name) .set(metadata::Identifier::CODESPACE_KEY, metadata::Identifier::EPSG) .set(metadata::Identifier::CODE_KEY, code); } // --------------------------------------------------------------------------- static util::PropertyMap createMapNameEPSGCode(const char *name, int code) { return util::PropertyMap() .set(common::IdentifiedObject::NAME_KEY, name) .set(metadata::Identifier::CODESPACE_KEY, metadata::Identifier::EPSG) .set(metadata::Identifier::CODE_KEY, code); } // --------------------------------------------------------------------------- static util::PropertyMap createMethodMapNameEPSGCode(int code) { const char *name = nullptr; for (const auto &tuple : methodNameCodes) { if (tuple.epsg_code == code) { name = tuple.name; break; } } assert(name); return createMapNameEPSGCode(name, code); } // --------------------------------------------------------------------------- static util::PropertyMap getUTMConversionProperty(const util::PropertyMap &properties, int zone, bool north) { if (!properties.get(common::IdentifiedObject::NAME_KEY)) { std::string conversionName("UTM zone "); conversionName += toString(zone); conversionName += (north ? 'N' : 'S'); return createMapNameEPSGCode(conversionName, (north ? 16000 : 17000) + zone); } else { return properties; } } // --------------------------------------------------------------------------- static util::PropertyMap addDefaultNameIfNeeded(const util::PropertyMap &properties, const std::string &defaultName) { if (!properties.get(common::IdentifiedObject::NAME_KEY)) { return util::PropertyMap(properties) .set(common::IdentifiedObject::NAME_KEY, defaultName); } else { return properties; } } // --------------------------------------------------------------------------- static ConversionNNPtr createConversion(const util::PropertyMap &properties, const MethodMapping *mapping, const std::vector<ParameterValueNNPtr> &values) { std::vector<OperationParameterNNPtr> parameters; for (int i = 0; mapping->params[i] != nullptr; i++) { const auto *param = mapping->params[i]; auto paramProperties = util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, param->wkt2_name); if (param->epsg_code != 0) { paramProperties .set(metadata::Identifier::CODESPACE_KEY, metadata::Identifier::EPSG) .set(metadata::Identifier::CODE_KEY, param->epsg_code); } auto parameter = OperationParameter::create(paramProperties); parameters.push_back(parameter); } auto methodProperties = util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, mapping->wkt2_name); if (mapping->epsg_code != 0) { methodProperties .set(metadata::Identifier::CODESPACE_KEY, metadata::Identifier::EPSG) .set(metadata::Identifier::CODE_KEY, mapping->epsg_code); } return Conversion::create( addDefaultNameIfNeeded(properties, mapping->wkt2_name), methodProperties, parameters, values); } //! @endcond // --------------------------------------------------------------------------- ConversionNNPtr Conversion::create(const util::PropertyMap &properties, int method_epsg_code, const std::vector<ParameterValueNNPtr> &values) { const MethodMapping *mapping = getMapping(method_epsg_code); assert(mapping); return createConversion(properties, mapping, values); } // --------------------------------------------------------------------------- ConversionNNPtr Conversion::create(const util::PropertyMap &properties, const char *method_wkt2_name, const std::vector<ParameterValueNNPtr> &values) { const MethodMapping *mapping = getMapping(method_wkt2_name); assert(mapping); return createConversion(properties, mapping, values); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct VectorOfParameters : public std::vector<OperationParameterNNPtr> { VectorOfParameters() : std::vector<OperationParameterNNPtr>() {} explicit VectorOfParameters( std::initializer_list<OperationParameterNNPtr> list) : std::vector<OperationParameterNNPtr>(list) {} VectorOfParameters(const VectorOfParameters &) = delete; ~VectorOfParameters(); }; // This way, we disable inlining of destruction, and save a lot of space VectorOfParameters::~VectorOfParameters() = default; struct VectorOfValues : public std::vector<ParameterValueNNPtr> { VectorOfValues() : std::vector<ParameterValueNNPtr>() {} explicit VectorOfValues(std::initializer_list<ParameterValueNNPtr> list) : std::vector<ParameterValueNNPtr>(list) {} explicit VectorOfValues(std::initializer_list<common::Measure> list); VectorOfValues(const VectorOfValues &) = delete; VectorOfValues(VectorOfValues &&) = default; ~VectorOfValues(); }; static std::vector<ParameterValueNNPtr> buildParameterValueFromMeasure( const std::initializer_list<common::Measure> &list) { std::vector<ParameterValueNNPtr> res; for (const auto &v : list) { res.emplace_back(ParameterValue::create(v)); } return res; } VectorOfValues::VectorOfValues(std::initializer_list<common::Measure> list) : std::vector<ParameterValueNNPtr>(buildParameterValueFromMeasure(list)) {} // This way, we disable inlining of destruction, and save a lot of space VectorOfValues::~VectorOfValues() = default; PROJ_NO_INLINE static VectorOfValues createParams(const common::Measure &m1, const common::Measure &m2, const common::Measure &m3) { return VectorOfValues{ParameterValue::create(m1), ParameterValue::create(m2), ParameterValue::create(m3)}; } PROJ_NO_INLINE static VectorOfValues createParams(const common::Measure &m1, const common::Measure &m2, const common::Measure &m3, const common::Measure &m4) { return VectorOfValues{ ParameterValue::create(m1), ParameterValue::create(m2), ParameterValue::create(m3), ParameterValue::create(m4)}; } PROJ_NO_INLINE static VectorOfValues createParams(const common::Measure &m1, const common::Measure &m2, const common::Measure &m3, const common::Measure &m4, const common::Measure &m5) { return VectorOfValues{ ParameterValue::create(m1), ParameterValue::create(m2), ParameterValue::create(m3), ParameterValue::create(m4), ParameterValue::create(m5), }; } PROJ_NO_INLINE static VectorOfValues createParams(const common::Measure &m1, const common::Measure &m2, const common::Measure &m3, const common::Measure &m4, const common::Measure &m5, const common::Measure &m6) { return VectorOfValues{ ParameterValue::create(m1), ParameterValue::create(m2), ParameterValue::create(m3), ParameterValue::create(m4), ParameterValue::create(m5), ParameterValue::create(m6), }; } PROJ_NO_INLINE static VectorOfValues createParams(const common::Measure &m1, const common::Measure &m2, const common::Measure &m3, const common::Measure &m4, const common::Measure &m5, const common::Measure &m6, const common::Measure &m7) { return VectorOfValues{ ParameterValue::create(m1), ParameterValue::create(m2), ParameterValue::create(m3), ParameterValue::create(m4), ParameterValue::create(m5), ParameterValue::create(m6), ParameterValue::create(m7), }; } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a [Universal Transverse Mercator] *(https://proj.org/operations/projections/utm.html) conversion. * * UTM is a family of conversions, of EPSG codes from 16001 to 16060 for the * northern hemisphere, and 17001 to 17060 for the southern hemisphere, * based on the Transverse Mercator projection method. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param zone UTM zone number between 1 and 60. * @param north true for UTM northern hemisphere, false for UTM southern * hemisphere. * @return a new Conversion. */ ConversionNNPtr Conversion::createUTM(const util::PropertyMap &properties, int zone, bool north) { return create( getUTMConversionProperty(properties, zone, north), EPSG_CODE_METHOD_TRANSVERSE_MERCATOR, createParams(common::Angle(UTM_LATITUDE_OF_NATURAL_ORIGIN), common::Angle(zone * 6.0 - 183.0), common::Scale(UTM_SCALE_FACTOR), common::Length(UTM_FALSE_EASTING), common::Length(north ? UTM_NORTH_FALSE_NORTHING : UTM_SOUTH_FALSE_NORTHING))); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Transverse Mercator] *(https://proj.org/operations/projections/tmerc.html) projection method. * * This method is defined as [EPSG:9807] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9807) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param scale See \ref scale * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createTransverseMercator( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Scale &scale, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_TRANSVERSE_MERCATOR, createParams(centerLat, centerLong, scale, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Gauss Schreiber Transverse *Mercator] *(https://proj.org/operations/projections/gstmerc.html) projection method. * * This method is also known as Gauss-Laborde Reunion. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param scale See \ref scale * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createGaussSchreiberTransverseMercator( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Scale &scale, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_GAUSS_SCHREIBER_TRANSVERSE_MERCATOR, createParams(centerLat, centerLong, scale, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Transverse Mercator South *Orientated] *(https://proj.org/operations/projections/tmerc.html) projection method. * * This method is defined as [EPSG:9808] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9808) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param scale See \ref scale * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createTransverseMercatorSouthOriented( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Scale &scale, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_TRANSVERSE_MERCATOR_SOUTH_ORIENTATED, createParams(centerLat, centerLong, scale, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Two Point Equidistant] *(https://proj.org/operations/projections/tpeqd.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeFirstPoint Latitude of first point. * @param longitudeFirstPoint Longitude of first point. * @param latitudeSecondPoint Latitude of second point. * @param longitudeSeconPoint Longitude of second point. * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createTwoPointEquidistant(const util::PropertyMap &properties, const common::Angle &latitudeFirstPoint, const common::Angle &longitudeFirstPoint, const common::Angle &latitudeSecondPoint, const common::Angle &longitudeSeconPoint, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_TWO_POINT_EQUIDISTANT, createParams(latitudeFirstPoint, longitudeFirstPoint, latitudeSecondPoint, longitudeSeconPoint, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the Tunisia Mapping Grid projection * method. * * This method is defined as [EPSG:9816] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9816) * * \note There is currently no implementation of the method formulas in PROJ. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createTunisiaMappingGrid( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, EPSG_CODE_METHOD_TUNISIA_MAPPING_GRID, createParams(centerLat, centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Albers Conic Equal Area] *(https://proj.org/operations/projections/aea.html) projection method. * * This method is defined as [EPSG:9822] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9822) * * @note the order of arguments is conformant with the corresponding EPSG * mode and different than OGRSpatialReference::setACEA() of GDAL &lt;= 2.3 * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeFalseOrigin See \ref latitude_false_origin * @param longitudeFalseOrigin See \ref longitude_false_origin * @param latitudeFirstParallel See \ref latitude_first_std_parallel * @param latitudeSecondParallel See \ref latitude_second_std_parallel * @param eastingFalseOrigin See \ref easting_false_origin * @param northingFalseOrigin See \ref northing_false_origin * @return a new Conversion. */ ConversionNNPtr Conversion::createAlbersEqualArea(const util::PropertyMap &properties, const common::Angle &latitudeFalseOrigin, const common::Angle &longitudeFalseOrigin, const common::Angle &latitudeFirstParallel, const common::Angle &latitudeSecondParallel, const common::Length &eastingFalseOrigin, const common::Length &northingFalseOrigin) { return create(properties, EPSG_CODE_METHOD_ALBERS_EQUAL_AREA, createParams(latitudeFalseOrigin, longitudeFalseOrigin, latitudeFirstParallel, latitudeSecondParallel, eastingFalseOrigin, northingFalseOrigin)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Lambert Conic Conformal 1SP] *(https://proj.org/operations/projections/lcc.html) projection method. * * This method is defined as [EPSG:9801] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9801) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param scale See \ref scale * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createLambertConicConformal_1SP( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Scale &scale, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_1SP, createParams(centerLat, centerLong, scale, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Lambert Conic Conformal (2SP)] *(https://proj.org/operations/projections/lcc.html) projection method. * * This method is defined as [EPSG:9802] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9802) * * @note the order of arguments is conformant with the corresponding EPSG * mode and different than OGRSpatialReference::setLCC() of GDAL &lt;= 2.3 * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeFalseOrigin See \ref latitude_false_origin * @param longitudeFalseOrigin See \ref longitude_false_origin * @param latitudeFirstParallel See \ref latitude_first_std_parallel * @param latitudeSecondParallel See \ref latitude_second_std_parallel * @param eastingFalseOrigin See \ref easting_false_origin * @param northingFalseOrigin See \ref northing_false_origin * @return a new Conversion. */ ConversionNNPtr Conversion::createLambertConicConformal_2SP( const util::PropertyMap &properties, const common::Angle &latitudeFalseOrigin, const common::Angle &longitudeFalseOrigin, const common::Angle &latitudeFirstParallel, const common::Angle &latitudeSecondParallel, const common::Length &eastingFalseOrigin, const common::Length &northingFalseOrigin) { return create(properties, EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP, createParams(latitudeFalseOrigin, longitudeFalseOrigin, latitudeFirstParallel, latitudeSecondParallel, eastingFalseOrigin, northingFalseOrigin)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Lambert Conic Conformal (2SP *Michigan)] *(https://proj.org/operations/projections/lcc.html) projection method. * * This method is defined as [EPSG:1051] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::1051) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeFalseOrigin See \ref latitude_false_origin * @param longitudeFalseOrigin See \ref longitude_false_origin * @param latitudeFirstParallel See \ref latitude_first_std_parallel * @param latitudeSecondParallel See \ref latitude_second_std_parallel * @param eastingFalseOrigin See \ref easting_false_origin * @param northingFalseOrigin See \ref northing_false_origin * @param ellipsoidScalingFactor Ellipsoid scaling factor. * @return a new Conversion. */ ConversionNNPtr Conversion::createLambertConicConformal_2SP_Michigan( const util::PropertyMap &properties, const common::Angle &latitudeFalseOrigin, const common::Angle &longitudeFalseOrigin, const common::Angle &latitudeFirstParallel, const common::Angle &latitudeSecondParallel, const common::Length &eastingFalseOrigin, const common::Length &northingFalseOrigin, const common::Scale &ellipsoidScalingFactor) { return create(properties, EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP_MICHIGAN, createParams(latitudeFalseOrigin, longitudeFalseOrigin, latitudeFirstParallel, latitudeSecondParallel, eastingFalseOrigin, northingFalseOrigin, ellipsoidScalingFactor)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Lambert Conic Conformal (2SP *Belgium)] *(https://proj.org/operations/projections/lcc.html) projection method. * * This method is defined as [EPSG:9803] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9803) * * \warning The formulas used currently in PROJ are, incorrectly, the ones of * the regular LCC_2SP method. * * @note the order of arguments is conformant with the corresponding EPSG * mode and different than OGRSpatialReference::setLCCB() of GDAL &lt;= 2.3 * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeFalseOrigin See \ref latitude_false_origin * @param longitudeFalseOrigin See \ref longitude_false_origin * @param latitudeFirstParallel See \ref latitude_first_std_parallel * @param latitudeSecondParallel See \ref latitude_second_std_parallel * @param eastingFalseOrigin See \ref easting_false_origin * @param northingFalseOrigin See \ref northing_false_origin * @return a new Conversion. */ ConversionNNPtr Conversion::createLambertConicConformal_2SP_Belgium( const util::PropertyMap &properties, const common::Angle &latitudeFalseOrigin, const common::Angle &longitudeFalseOrigin, const common::Angle &latitudeFirstParallel, const common::Angle &latitudeSecondParallel, const common::Length &eastingFalseOrigin, const common::Length &northingFalseOrigin) { return create(properties, EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP_BELGIUM, createParams(latitudeFalseOrigin, longitudeFalseOrigin, latitudeFirstParallel, latitudeSecondParallel, eastingFalseOrigin, northingFalseOrigin)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Modified Azimuthal *Equidistant] *(https://proj.org/operations/projections/aeqd.html) projection method. * * This method is defined as [EPSG:9832] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9832) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeNatOrigin See \ref center_latitude * @param longitudeNatOrigin See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createAzimuthalEquidistant( const util::PropertyMap &properties, const common::Angle &latitudeNatOrigin, const common::Angle &longitudeNatOrigin, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_MODIFIED_AZIMUTHAL_EQUIDISTANT, createParams(latitudeNatOrigin, longitudeNatOrigin, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Guam Projection] *(https://proj.org/operations/projections/aeqd.html) projection method. * * This method is defined as [EPSG:9831] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9831) * * @param properties See \ref general_properties of the conversion. If the name *is * not provided, it is automatically set. * @param latitudeNatOrigin See \ref center_latitude * @param longitudeNatOrigin See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createGuamProjection( const util::PropertyMap &properties, const common::Angle &latitudeNatOrigin, const common::Angle &longitudeNatOrigin, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_GUAM_PROJECTION, createParams(latitudeNatOrigin, longitudeNatOrigin, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Bonne] *(https://proj.org/operations/projections/bonne.html) projection method. * * This method is defined as [EPSG:9827] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9827) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeNatOrigin See \ref center_latitude . PROJ calls its the * standard parallel 1. * @param longitudeNatOrigin See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createBonne(const util::PropertyMap &properties, const common::Angle &latitudeNatOrigin, const common::Angle &longitudeNatOrigin, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_BONNE, createParams(latitudeNatOrigin, longitudeNatOrigin, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Lambert Cylindrical Equal Area *(Spherical)] *(https://proj.org/operations/projections/cea.html) projection method. * * This method is defined as [EPSG:9834] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9834) * * \warning The PROJ cea computation code would select the ellipsoidal form if * a non-spherical ellipsoid is used for the base GeographicalCRS. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeFirstParallel See \ref latitude_first_std_parallel. * @param longitudeNatOrigin See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createLambertCylindricalEqualAreaSpherical( const util::PropertyMap &properties, const common::Angle &latitudeFirstParallel, const common::Angle &longitudeNatOrigin, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_LAMBERT_CYLINDRICAL_EQUAL_AREA_SPHERICAL, createParams(latitudeFirstParallel, longitudeNatOrigin, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Lambert Cylindrical Equal Area *(ellipsoidal form)] *(https://proj.org/operations/projections/cea.html) projection method. * * This method is defined as [EPSG:9835] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9835) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeFirstParallel See \ref latitude_first_std_parallel. * @param longitudeNatOrigin See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createLambertCylindricalEqualArea( const util::PropertyMap &properties, const common::Angle &latitudeFirstParallel, const common::Angle &longitudeNatOrigin, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_LAMBERT_CYLINDRICAL_EQUAL_AREA, createParams(latitudeFirstParallel, longitudeNatOrigin, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Cassini-Soldner] * (https://proj.org/operations/projections/cass.html) projection method. * * This method is defined as [EPSG:9806] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9806) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createCassiniSoldner( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, EPSG_CODE_METHOD_CASSINI_SOLDNER, createParams(centerLat, centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Equidistant Conic] *(https://proj.org/operations/projections/eqdc.html) projection method. * * There is no equivalent in EPSG. * * @note Although not found in EPSG, the order of arguments is conformant with * the "spirit" of EPSG and different than OGRSpatialReference::setEC() of GDAL *&lt;= 2.3 * @param properties See \ref general_properties of the conversion. *If the name * is not provided, it is automatically set. * * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param latitudeFirstParallel See \ref latitude_first_std_parallel * @param latitudeSecondParallel See \ref latitude_second_std_parallel * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createEquidistantConic( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Angle &latitudeFirstParallel, const common::Angle &latitudeSecondParallel, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_EQUIDISTANT_CONIC, createParams(centerLat, centerLong, latitudeFirstParallel, latitudeSecondParallel, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Eckert I] * (https://proj.org/operations/projections/eck1.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createEckertI(const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_ECKERT_I, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Eckert II] * (https://proj.org/operations/projections/eck2.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createEckertII( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_ECKERT_II, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Eckert III] * (https://proj.org/operations/projections/eck3.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createEckertIII( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_ECKERT_III, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Eckert IV] * (https://proj.org/operations/projections/eck4.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createEckertIV( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_ECKERT_IV, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Eckert V] * (https://proj.org/operations/projections/eck5.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createEckertV(const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_ECKERT_V, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Eckert VI] * (https://proj.org/operations/projections/eck6.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createEckertVI( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_ECKERT_VI, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Equidistant Cylindrical] *(https://proj.org/operations/projections/eqc.html) projection method. * * This is also known as the Equirectangular method, and in the particular case * where the latitude of first parallel is 0. * * This method is defined as [EPSG:1028] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::1028) * * @note This is the equivalent OGRSpatialReference::SetEquirectangular2( * 0.0, latitudeFirstParallel, falseEasting, falseNorthing ) of GDAL &lt;= 2.3, * where the lat_0 / center_latitude parameter is forced to 0. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeFirstParallel See \ref latitude_first_std_parallel. * @param longitudeNatOrigin See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createEquidistantCylindrical( const util::PropertyMap &properties, const common::Angle &latitudeFirstParallel, const common::Angle &longitudeNatOrigin, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_EQUIDISTANT_CYLINDRICAL, createParams(latitudeFirstParallel, 0.0, longitudeNatOrigin, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Equidistant Cylindrical *(Spherical)] *(https://proj.org/operations/projections/eqc.html) projection method. * * This is also known as the Equirectangular method, and in the particular case * where the latitude of first parallel is 0. * * This method is defined as [EPSG:1029] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::1029) * * @note This is the equivalent OGRSpatialReference::SetEquirectangular2( * 0.0, latitudeFirstParallel, falseEasting, falseNorthing ) of GDAL &lt;= 2.3, * where the lat_0 / center_latitude parameter is forced to 0. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeFirstParallel See \ref latitude_first_std_parallel. * @param longitudeNatOrigin See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createEquidistantCylindricalSpherical( const util::PropertyMap &properties, const common::Angle &latitudeFirstParallel, const common::Angle &longitudeNatOrigin, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_EQUIDISTANT_CYLINDRICAL_SPHERICAL, createParams(latitudeFirstParallel, 0.0, longitudeNatOrigin, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Gall (Stereographic)] * (https://proj.org/operations/projections/gall.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createGall(const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_GALL_STEREOGRAPHIC, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Goode Homolosine] * (https://proj.org/operations/projections/goode.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createGoodeHomolosine( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_GOODE_HOMOLOSINE, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Interrupted Goode Homolosine] * (https://proj.org/operations/projections/igh.html) projection method. * * There is no equivalent in EPSG. * * @note OGRSpatialReference::SetIGH() of GDAL &lt;= 2.3 assumes the 3 * projection * parameters to be zero and this is the nominal case. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createInterruptedGoodeHomolosine( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_INTERRUPTED_GOODE_HOMOLOSINE, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Geostationary Satellite View] * (https://proj.org/operations/projections/geos.html) projection method, * with the sweep angle axis of the viewing instrument being x * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param height Height of the view point above the Earth. * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createGeostationarySatelliteSweepX( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &height, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, PROJ_WKT2_NAME_METHOD_GEOSTATIONARY_SATELLITE_SWEEP_X, createParams(centerLong, height, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Geostationary Satellite View] * (https://proj.org/operations/projections/geos.html) projection method, * with the sweep angle axis of the viewing instrument being y. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param height Height of the view point above the Earth. * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createGeostationarySatelliteSweepY( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &height, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, PROJ_WKT2_NAME_METHOD_GEOSTATIONARY_SATELLITE_SWEEP_Y, createParams(centerLong, height, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Gnomonic] *(https://proj.org/operations/projections/gnom.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createGnomonic( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, PROJ_WKT2_NAME_METHOD_GNOMONIC, createParams(centerLat, centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Hotine Oblique Mercator *(Variant A)] *(https://proj.org/operations/projections/omerc.html) projection method * * This is the variant with the no_uoff parameter, which corresponds to * GDAL &gt;=2.3 Hotine_Oblique_Mercator projection. * In this variant, the false grid coordinates are * defined at the intersection of the initial line and the aposphere (the * equator on one of the intermediate surfaces inherent in the method), that is * at the natural origin of the coordinate system). * * This method is defined as [EPSG:9812] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9812) * * \note In the case where azimuthInitialLine = angleFromRectifiedToSkrewGrid = *90deg, * this maps to the [Swiss Oblique Mercator] *(https://proj.org/operations/projections/somerc.html) formulas. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeProjectionCentre See \ref latitude_projection_centre * @param longitudeProjectionCentre See \ref longitude_projection_centre * @param azimuthInitialLine See \ref azimuth_initial_line * @param angleFromRectifiedToSkrewGrid See * \ref angle_from_recitfied_to_skrew_grid * @param scale See \ref scale_factor_initial_line * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createHotineObliqueMercatorVariantA( const util::PropertyMap &properties, const common::Angle &latitudeProjectionCentre, const common::Angle &longitudeProjectionCentre, const common::Angle &azimuthInitialLine, const common::Angle &angleFromRectifiedToSkrewGrid, const common::Scale &scale, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, EPSG_CODE_METHOD_HOTINE_OBLIQUE_MERCATOR_VARIANT_A, createParams(latitudeProjectionCentre, longitudeProjectionCentre, azimuthInitialLine, angleFromRectifiedToSkrewGrid, scale, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Hotine Oblique Mercator *(Variant B)] *(https://proj.org/operations/projections/omerc.html) projection method * * This is the variant without the no_uoff parameter, which corresponds to * GDAL &gt;=2.3 Hotine_Oblique_Mercator_Azimuth_Center projection. * In this variant, the false grid coordinates are defined at the projection *centre. * * This method is defined as [EPSG:9815] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9815) * * \note In the case where azimuthInitialLine = angleFromRectifiedToSkrewGrid = *90deg, * this maps to the [Swiss Oblique Mercator] *(https://proj.org/operations/projections/somerc.html) formulas. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeProjectionCentre See \ref latitude_projection_centre * @param longitudeProjectionCentre See \ref longitude_projection_centre * @param azimuthInitialLine See \ref azimuth_initial_line * @param angleFromRectifiedToSkrewGrid See * \ref angle_from_recitfied_to_skrew_grid * @param scale See \ref scale_factor_initial_line * @param eastingProjectionCentre See \ref easting_projection_centre * @param northingProjectionCentre See \ref northing_projection_centre * @return a new Conversion. */ ConversionNNPtr Conversion::createHotineObliqueMercatorVariantB( const util::PropertyMap &properties, const common::Angle &latitudeProjectionCentre, const common::Angle &longitudeProjectionCentre, const common::Angle &azimuthInitialLine, const common::Angle &angleFromRectifiedToSkrewGrid, const common::Scale &scale, const common::Length &eastingProjectionCentre, const common::Length &northingProjectionCentre) { return create( properties, EPSG_CODE_METHOD_HOTINE_OBLIQUE_MERCATOR_VARIANT_B, createParams(latitudeProjectionCentre, longitudeProjectionCentre, azimuthInitialLine, angleFromRectifiedToSkrewGrid, scale, eastingProjectionCentre, northingProjectionCentre)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Hotine Oblique Mercator Two *Point Natural Origin] *(https://proj.org/operations/projections/omerc.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeProjectionCentre See \ref latitude_projection_centre * @param latitudePoint1 Latitude of point 1. * @param longitudePoint1 Latitude of point 1. * @param latitudePoint2 Latitude of point 2. * @param longitudePoint2 Longitude of point 2. * @param scale See \ref scale_factor_initial_line * @param eastingProjectionCentre See \ref easting_projection_centre * @param northingProjectionCentre See \ref northing_projection_centre * @return a new Conversion. */ ConversionNNPtr Conversion::createHotineObliqueMercatorTwoPointNaturalOrigin( const util::PropertyMap &properties, const common::Angle &latitudeProjectionCentre, const common::Angle &latitudePoint1, const common::Angle &longitudePoint1, const common::Angle &latitudePoint2, const common::Angle &longitudePoint2, const common::Scale &scale, const common::Length &eastingProjectionCentre, const common::Length &northingProjectionCentre) { return create( properties, PROJ_WKT2_NAME_METHOD_HOTINE_OBLIQUE_MERCATOR_TWO_POINT_NATURAL_ORIGIN, { ParameterValue::create(latitudeProjectionCentre), ParameterValue::create(latitudePoint1), ParameterValue::create(longitudePoint1), ParameterValue::create(latitudePoint2), ParameterValue::create(longitudePoint2), ParameterValue::create(scale), ParameterValue::create(eastingProjectionCentre), ParameterValue::create(northingProjectionCentre), }); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Laborde Oblique Mercator] *(https://proj.org/operations/projections/labrd.html) projection method. * * This method is defined as [EPSG:9813] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9813) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeProjectionCentre See \ref latitude_projection_centre * @param longitudeProjectionCentre See \ref longitude_projection_centre * @param azimuthInitialLine See \ref azimuth_initial_line * @param scale See \ref scale_factor_initial_line * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createLabordeObliqueMercator( const util::PropertyMap &properties, const common::Angle &latitudeProjectionCentre, const common::Angle &longitudeProjectionCentre, const common::Angle &azimuthInitialLine, const common::Scale &scale, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_LABORDE_OBLIQUE_MERCATOR, createParams(latitudeProjectionCentre, longitudeProjectionCentre, azimuthInitialLine, scale, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [International Map of the World *Polyconic] *(https://proj.org/operations/projections/imw_p.html) projection method. * * There is no equivalent in EPSG. * * @note the order of arguments is conformant with the corresponding EPSG * mode and different than OGRSpatialReference::SetIWMPolyconic() of GDAL &lt;= *2.3 * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param latitudeFirstParallel See \ref latitude_first_std_parallel * @param latitudeSecondParallel See \ref latitude_second_std_parallel * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createInternationalMapWorldPolyconic( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Angle &latitudeFirstParallel, const common::Angle &latitudeSecondParallel, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_INTERNATIONAL_MAP_WORLD_POLYCONIC, createParams(centerLong, latitudeFirstParallel, latitudeSecondParallel, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Krovak (north oriented)] *(https://proj.org/operations/projections/krovak.html) projection method. * * This method is defined as [EPSG:1041] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::1041) * * The coordinates are returned in the "GIS friendly" order: easting, northing. * This method is similar to createKrovak(), except that the later returns * projected values as southing, westing, where * southing(Krovak) = -northing(Krovak_North) and * westing(Krovak) = -easting(Krovak_North). * * @note The current PROJ implementation of Krovak hard-codes * colatitudeConeAxis = 30deg17'17.30311" * and latitudePseudoStandardParallel = 78deg30'N, which are the values used for * the ProjectedCRS S-JTSK (Ferro) / Krovak East North (EPSG:5221). * It also hard-codes the parameters of the Bessel ellipsoid typically used for * Krovak. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeProjectionCentre See \ref latitude_projection_centre * @param longitudeOfOrigin See \ref longitude_of_origin * @param colatitudeConeAxis See \ref colatitude_cone_axis * @param latitudePseudoStandardParallel See \ref *latitude_pseudo_standard_parallel * @param scaleFactorPseudoStandardParallel See \ref *scale_factor_pseudo_standard_parallel * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createKrovakNorthOriented( const util::PropertyMap &properties, const common::Angle &latitudeProjectionCentre, const common::Angle &longitudeOfOrigin, const common::Angle &colatitudeConeAxis, const common::Angle &latitudePseudoStandardParallel, const common::Scale &scaleFactorPseudoStandardParallel, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_KROVAK_NORTH_ORIENTED, createParams(latitudeProjectionCentre, longitudeOfOrigin, colatitudeConeAxis, latitudePseudoStandardParallel, scaleFactorPseudoStandardParallel, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Krovak] *(https://proj.org/operations/projections/krovak.html) projection method. * * This method is defined as [EPSG:9819] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9819) * * The coordinates are returned in the historical order: southing, westing * This method is similar to createKrovakNorthOriented(), except that the later *returns * projected values as easting, northing, where * easting(Krovak_North) = -westing(Krovak) and * northing(Krovak_North) = -southing(Krovak). * * @note The current PROJ implementation of Krovak hard-codes * colatitudeConeAxis = 30deg17'17.30311" * and latitudePseudoStandardParallel = 78deg30'N, which are the values used for * the ProjectedCRS S-JTSK (Ferro) / Krovak East North (EPSG:5221). * It also hard-codes the parameters of the Bessel ellipsoid typically used for * Krovak. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeProjectionCentre See \ref latitude_projection_centre * @param longitudeOfOrigin See \ref longitude_of_origin * @param colatitudeConeAxis See \ref colatitude_cone_axis * @param latitudePseudoStandardParallel See \ref *latitude_pseudo_standard_parallel * @param scaleFactorPseudoStandardParallel See \ref *scale_factor_pseudo_standard_parallel * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createKrovak(const util::PropertyMap &properties, const common::Angle &latitudeProjectionCentre, const common::Angle &longitudeOfOrigin, const common::Angle &colatitudeConeAxis, const common::Angle &latitudePseudoStandardParallel, const common::Scale &scaleFactorPseudoStandardParallel, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_KROVAK, createParams(latitudeProjectionCentre, longitudeOfOrigin, colatitudeConeAxis, latitudePseudoStandardParallel, scaleFactorPseudoStandardParallel, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Lambert Azimuthal Equal Area] *(https://proj.org/operations/projections/laea.html) projection method. * * This method is defined as [EPSG:9820] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9820) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeNatOrigin See \ref center_latitude * @param longitudeNatOrigin See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createLambertAzimuthalEqualArea( const util::PropertyMap &properties, const common::Angle &latitudeNatOrigin, const common::Angle &longitudeNatOrigin, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_LAMBERT_AZIMUTHAL_EQUAL_AREA, createParams(latitudeNatOrigin, longitudeNatOrigin, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Miller Cylindrical] *(https://proj.org/operations/projections/mill.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createMillerCylindrical( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_MILLER_CYLINDRICAL, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Mercator] *(https://proj.org/operations/projections/merc.html) projection method. * * This is the variant, also known as Mercator (1SP), defined with the scale * factor. Note that latitude of natural origin (centerLat) is a parameter, * but unused in the transformation formulas. * * This method is defined as [EPSG:9804] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9804) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude . Should be 0. * @param centerLong See \ref center_longitude * @param scale See \ref scale * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createMercatorVariantA( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Scale &scale, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_MERCATOR_VARIANT_A, createParams(centerLat, centerLong, scale, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Mercator] *(https://proj.org/operations/projections/merc.html) projection method. * * This is the variant, also known as Mercator (2SP), defined with the latitude * of the first standard parallel (the second standard parallel is implicitly * the opposite value). The latitude of natural origin is fixed to zero. * * This method is defined as [EPSG:9805] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9805) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeFirstParallel See \ref latitude_first_std_parallel * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createMercatorVariantB( const util::PropertyMap &properties, const common::Angle &latitudeFirstParallel, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_MERCATOR_VARIANT_B, createParams(latitudeFirstParallel, centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Popular Visualisation Pseudo *Mercator] *(https://proj.org/operations/projections/webmerc.html) projection method. * * Also known as WebMercator. Mostly/only used for Projected CRS EPSG:3857 * (WGS 84 / Pseudo-Mercator) * * This method is defined as [EPSG:1024] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::1024) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude . Usually 0 * @param centerLong See \ref center_longitude . Usually 0 * @param falseEasting See \ref false_easting . Usually 0 * @param falseNorthing See \ref false_northing . Usually 0 * @return a new Conversion. */ ConversionNNPtr Conversion::createPopularVisualisationPseudoMercator( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, EPSG_CODE_METHOD_POPULAR_VISUALISATION_PSEUDO_MERCATOR, createParams(centerLat, centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Mollweide] * (https://proj.org/operations/projections/moll.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createMollweide( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_MOLLWEIDE, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [New Zealand Map Grid] * (https://proj.org/operations/projections/nzmg.html) projection method. * * This method is defined as [EPSG:9811] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9811) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createNewZealandMappingGrid( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, EPSG_CODE_METHOD_NZMG, createParams(centerLat, centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Oblique Stereographic *(Alternative)] *(https://proj.org/operations/projections/sterea.html) projection method. * * This method is defined as [EPSG:9809] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9809) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param scale See \ref scale * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createObliqueStereographic( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Scale &scale, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_OBLIQUE_STEREOGRAPHIC, createParams(centerLat, centerLong, scale, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Orthographic] *(https://proj.org/operations/projections/ortho.html) projection method. * * This method is defined as [EPSG:9840] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9840) * * \note At the time of writing, PROJ only implements the spherical formulation * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createOrthographic( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, EPSG_CODE_METHOD_ORTHOGRAPHIC, createParams(centerLat, centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [American Polyconic] *(https://proj.org/operations/projections/poly.html) projection method. * * This method is defined as [EPSG:9818] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9818) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createAmericanPolyconic( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, EPSG_CODE_METHOD_AMERICAN_POLYCONIC, createParams(centerLat, centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Polar Stereographic (Variant *A)] *(https://proj.org/operations/projections/stere.html) projection method. * * This method is defined as [EPSG:9810] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9810) * * This is the variant of polar stereographic defined with a scale factor. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude . Should be 90 deg ou -90 deg. * @param centerLong See \ref center_longitude * @param scale See \ref scale * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createPolarStereographicVariantA( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Scale &scale, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_POLAR_STEREOGRAPHIC_VARIANT_A, createParams(centerLat, centerLong, scale, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Polar Stereographic (Variant *B)] *(https://proj.org/operations/projections/stere.html) projection method. * * This method is defined as [EPSG:9829] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9829) * * This is the variant of polar stereographic defined with a latitude of * standard parallel. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeStandardParallel See \ref latitude_std_parallel * @param longitudeOfOrigin See \ref longitude_of_origin * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createPolarStereographicVariantB( const util::PropertyMap &properties, const common::Angle &latitudeStandardParallel, const common::Angle &longitudeOfOrigin, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_POLAR_STEREOGRAPHIC_VARIANT_B, createParams(latitudeStandardParallel, longitudeOfOrigin, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Robinson] * (https://proj.org/operations/projections/robin.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createRobinson( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_ROBINSON, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Sinusoidal] * (https://proj.org/operations/projections/sinu.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createSinusoidal( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_SINUSOIDAL, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Stereographic] *(https://proj.org/operations/projections/stere.html) projection method. * * There is no equivalent in EPSG. This method implements the original "Oblique * Stereographic" method described in "Snyder's Map Projections - A Working *manual", * which is different from the "Oblique Stereographic (alternative") method * implemented in createObliqueStereographic(). * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param scale See \ref scale * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createStereographic( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Scale &scale, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_STEREOGRAPHIC, createParams(centerLat, centerLong, scale, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Van der Grinten] * (https://proj.org/operations/projections/vandg.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createVanDerGrinten( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_VAN_DER_GRINTEN, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Wagner I] * (https://proj.org/operations/projections/wag1.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createWagnerI(const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_WAGNER_I, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Wagner II] * (https://proj.org/operations/projections/wag2.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createWagnerII( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_WAGNER_II, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Wagner III] * (https://proj.org/operations/projections/wag3.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param latitudeTrueScale Latitude of true scale. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createWagnerIII( const util::PropertyMap &properties, const common::Angle &latitudeTrueScale, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_WAGNER_III, createParams(latitudeTrueScale, centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Wagner IV] * (https://proj.org/operations/projections/wag4.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createWagnerIV( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_WAGNER_IV, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Wagner V] * (https://proj.org/operations/projections/wag5.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createWagnerV(const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_WAGNER_V, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Wagner VI] * (https://proj.org/operations/projections/wag6.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createWagnerVI( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_WAGNER_VI, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Wagner VII] * (https://proj.org/operations/projections/wag7.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createWagnerVII( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, PROJ_WKT2_NAME_METHOD_WAGNER_VII, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Quadrilateralized Spherical *Cube] *(https://proj.org/operations/projections/qsc.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLat See \ref center_latitude * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createQuadrilateralizedSphericalCube( const util::PropertyMap &properties, const common::Angle &centerLat, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create( properties, PROJ_WKT2_NAME_METHOD_QUADRILATERALIZED_SPHERICAL_CUBE, createParams(centerLat, centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Spherical Cross-Track Height] *(https://proj.org/operations/projections/sch.html) projection method. * * There is no equivalent in EPSG. * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param pegPointLat Peg point latitude. * @param pegPointLong Peg point longitude. * @param pegPointHeading Peg point heading. * @param pegPointHeight Peg point height. * @return a new Conversion. */ ConversionNNPtr Conversion::createSphericalCrossTrackHeight( const util::PropertyMap &properties, const common::Angle &pegPointLat, const common::Angle &pegPointLong, const common::Angle &pegPointHeading, const common::Length &pegPointHeight) { return create(properties, PROJ_WKT2_NAME_METHOD_SPHERICAL_CROSS_TRACK_HEIGHT, createParams(pegPointLat, pegPointLong, pegPointHeading, pegPointHeight)); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the [Equal Earth] * (https://proj.org/operations/projections/eqearth.html) projection method. * * This method is defined as [EPSG:1078] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::1078) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param centerLong See \ref center_longitude * @param falseEasting See \ref false_easting * @param falseNorthing See \ref false_northing * @return a new Conversion. */ ConversionNNPtr Conversion::createEqualEarth( const util::PropertyMap &properties, const common::Angle &centerLong, const common::Length &falseEasting, const common::Length &falseNorthing) { return create(properties, EPSG_CODE_METHOD_EQUAL_EARTH, createParams(centerLong, falseEasting, falseNorthing)); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static OperationParameterNNPtr createOpParamNameEPSGCode(int code) { const char *name = OperationParameter::getNameForEPSGCode(code); assert(name); return OperationParameter::create(createMapNameEPSGCode(name, code)); } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the Change of Vertical Unit * method. * * This method is defined as [EPSG:1069] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::1069) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param factor Conversion factor * @return a new Conversion. */ ConversionNNPtr Conversion::createChangeVerticalUnit(const util::PropertyMap &properties, const common::Scale &factor) { return create(properties, createMethodMapNameEPSGCode( EPSG_CODE_METHOD_CHANGE_VERTICAL_UNIT), VectorOfParameters{ createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_UNIT_CONVERSION_SCALAR), }, VectorOfValues{ factor, }); } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the Axis order reversal method * * This swaps the longitude, latitude axis. * * This method is defined as [EPSG:9843] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9843), * or for 3D as [EPSG:9844] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9844) * * @param is3D Whether this should apply on 3D geographicCRS * @return a new Conversion. */ ConversionNNPtr Conversion::createAxisOrderReversal(bool is3D) { if (is3D) { return create(createMapNameEPSGCode( "axis order change (geographic3D horizontal)", 15499), createMethodMapNameEPSGCode( EPSG_CODE_METHOD_AXIS_ORDER_REVERSAL_3D), {}, {}); } else { return create(createMapNameEPSGCode("axis order change (2D)", 15498), createMethodMapNameEPSGCode( EPSG_CODE_METHOD_AXIS_ORDER_REVERSAL_2D), {}, {}); } } // --------------------------------------------------------------------------- /** \brief Instantiate a conversion based on the Geographic/Geocentric method. * * This method is defined as [EPSG:9602] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9602), * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @return a new Conversion. */ ConversionNNPtr Conversion::createGeographicGeocentric(const util::PropertyMap &properties) { return create(properties, createMethodMapNameEPSGCode( EPSG_CODE_METHOD_GEOGRAPHIC_GEOCENTRIC), {}, {}); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static util::PropertyMap &addDomains(util::PropertyMap &map, const common::ObjectUsage *obj) { auto ar = util::ArrayOfBaseObject::create(); for (const auto &domain : obj->domains()) { ar->add(domain); } if (!ar->empty()) { map.set(common::ObjectUsage::OBJECT_DOMAIN_KEY, ar); } return map; } // --------------------------------------------------------------------------- static void addModifiedIdentifier(util::PropertyMap &map, const common::IdentifiedObject *obj, bool inverse, bool derivedFrom) { // If original operation is AUTH:CODE, then assign INVERSE(AUTH):CODE // as identifier. auto ar = util::ArrayOfBaseObject::create(); for (const auto &idSrc : obj->identifiers()) { auto authName = *(idSrc->codeSpace()); const auto &srcCode = idSrc->code(); if (derivedFrom) { authName = concat("DERIVED_FROM(", authName, ")"); } if (inverse) { if (starts_with(authName, "INVERSE(") && authName.back() == ')') { authName = authName.substr(strlen("INVERSE(")); authName.resize(authName.size() - 1); } else { authName = concat("INVERSE(", authName, ")"); } } auto idsProp = util::PropertyMap().set( metadata::Identifier::CODESPACE_KEY, authName); ar->add(metadata::Identifier::create(srcCode, idsProp)); } if (!ar->empty()) { map.set(common::IdentifiedObject::IDENTIFIERS_KEY, ar); } } // --------------------------------------------------------------------------- static util::PropertyMap createPropertiesForInverse(const OperationMethodNNPtr &method) { util::PropertyMap map; const std::string &forwardName = method->nameStr(); if (!forwardName.empty()) { if (starts_with(forwardName, INVERSE_OF)) { map.set(common::IdentifiedObject::NAME_KEY, forwardName.substr(INVERSE_OF.size())); } else { map.set(common::IdentifiedObject::NAME_KEY, INVERSE_OF + forwardName); } } addModifiedIdentifier(map, method.get(), true, false); return map; } // --------------------------------------------------------------------------- InverseConversion::InverseConversion(const ConversionNNPtr &forward) : Conversion( OperationMethod::create(createPropertiesForInverse(forward->method()), forward->method()->parameters()), forward->parameterValues()), InverseCoordinateOperation(forward, true) { setPropertiesFromForward(); } // --------------------------------------------------------------------------- InverseConversion::~InverseConversion() = default; // --------------------------------------------------------------------------- ConversionNNPtr InverseConversion::inverseAsConversion() const { return NN_NO_CHECK( util::nn_dynamic_pointer_cast<Conversion>(forwardOperation_)); } // --------------------------------------------------------------------------- CoordinateOperationNNPtr InverseConversion::create(const ConversionNNPtr &forward) { auto conv = util::nn_make_shared<InverseConversion>(forward); conv->assignSelf(conv); return conv; } // --------------------------------------------------------------------------- CoordinateOperationNNPtr InverseConversion::_shallowClone() const { auto op = InverseConversion::nn_make_shared<InverseConversion>( inverseAsConversion()->shallowClone()); op->assignSelf(op); op->setCRSs(this, false); return util::nn_static_pointer_cast<CoordinateOperation>(op); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static bool isAxisOrderReversal2D(int methodEPSGCode) { return methodEPSGCode == EPSG_CODE_METHOD_AXIS_ORDER_REVERSAL_2D; } static bool isAxisOrderReversal3D(int methodEPSGCode) { return methodEPSGCode == EPSG_CODE_METHOD_AXIS_ORDER_REVERSAL_3D; } bool isAxisOrderReversal(int methodEPSGCode) { return isAxisOrderReversal2D(methodEPSGCode) || isAxisOrderReversal3D(methodEPSGCode); } //! @endcond // --------------------------------------------------------------------------- CoordinateOperationNNPtr Conversion::inverse() const { const int methodEPSGCode = method()->getEPSGCode(); if (methodEPSGCode == EPSG_CODE_METHOD_CHANGE_VERTICAL_UNIT) { const double convFactor = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_UNIT_CONVERSION_SCALAR); auto conv = createChangeVerticalUnit( createPropertiesForInverse(this, false, false), common::Scale(1.0 / convFactor)); conv->setCRSs(this, true); return conv; } const bool l_isAxisOrderReversal2D = isAxisOrderReversal2D(methodEPSGCode); const bool l_isAxisOrderReversal3D = isAxisOrderReversal3D(methodEPSGCode); if (l_isAxisOrderReversal2D || l_isAxisOrderReversal3D) { auto conv = createAxisOrderReversal(l_isAxisOrderReversal3D); conv->setCRSs(this, true); return conv; } if (methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC_GEOCENTRIC) { auto conv = createGeographicGeocentric( createPropertiesForInverse(this, false, false)); conv->setCRSs(this, true); return conv; } return InverseConversion::create(NN_NO_CHECK( util::nn_dynamic_pointer_cast<Conversion>(shared_from_this()))); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static double msfn(double phi, double e2) { const double sinphi = std::sin(phi); const double cosphi = std::cos(phi); return pj_msfn(sinphi, cosphi, e2); } // --------------------------------------------------------------------------- static double tsfn(double phi, double ec) { const double sinphi = std::sin(phi); return pj_tsfn(phi, sinphi, ec); } // --------------------------------------------------------------------------- // Function whose zeroes are the sin of the standard parallels of LCC_2SP static double lcc_1sp_to_2sp_f(double sinphi, double K, double ec, double n) { const double x = sinphi; const double ecx = ec * x; return (1 - x * x) / (1 - ecx * ecx) - K * K * std::pow((1.0 - x) / (1.0 + x) * std::pow((1.0 + ecx) / (1.0 - ecx), ec), n); } // --------------------------------------------------------------------------- // Find the sin of the standard parallels of LCC_2SP static double find_zero_lcc_1sp_to_2sp_f(double sinphi0, bool bNorth, double K, double ec) { double a, b; double f_a; if (bNorth) { // Look for zero above phi0 a = sinphi0; b = 1.0; // sin(North pole) f_a = 1.0; // some positive value, but we only care about the sign } else { // Look for zero below phi0 a = -1.0; // sin(South pole) b = sinphi0; f_a = -1.0; // minus infinity in fact, but we only care about the sign } // We use dichotomy search. lcc_1sp_to_2sp_f() is positive at sinphi_init, // has a zero in ]-1,sinphi0[ and ]sinphi0,1[ ranges for (int N = 0; N < 100; N++) { double c = (a + b) / 2; double f_c = lcc_1sp_to_2sp_f(c, K, ec, sinphi0); if (f_c == 0.0 || (b - a) < 1e-18) { return c; } if ((f_c > 0 && f_a > 0) || (f_c < 0 && f_a < 0)) { a = c; f_a = f_c; } else { b = c; } } return (a + b) / 2; } static inline double DegToRad(double x) { return x / 180.0 * M_PI; } static inline double RadToDeg(double x) { return x / M_PI * 180.0; } //! @endcond // --------------------------------------------------------------------------- /** * \brief Return an equivalent projection. * * Currently implemented: * <ul> * <li>EPSG_CODE_METHOD_MERCATOR_VARIANT_A (1SP) to * EPSG_CODE_METHOD_MERCATOR_VARIANT_B (2SP)</li> * <li>EPSG_CODE_METHOD_MERCATOR_VARIANT_B (2SP) to * EPSG_CODE_METHOD_MERCATOR_VARIANT_A (1SP)</li> * <li>EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_1SP to * EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP</li> * <li>EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP to * EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_1SP</li> * </ul> * * @param targetEPSGCode EPSG code of the target method. * @return new conversion, or nullptr */ ConversionPtr Conversion::convertToOtherMethod(int targetEPSGCode) const { const int current_epsg_code = method()->getEPSGCode(); if (current_epsg_code == targetEPSGCode) { return util::nn_dynamic_pointer_cast<Conversion>(shared_from_this()); } auto geogCRS = dynamic_cast<crs::GeodeticCRS *>(sourceCRS().get()); if (!geogCRS) { return nullptr; } const double e2 = geogCRS->ellipsoid()->squaredEccentricity(); if (e2 < 0) { return nullptr; } if (current_epsg_code == EPSG_CODE_METHOD_MERCATOR_VARIANT_A && targetEPSGCode == EPSG_CODE_METHOD_MERCATOR_VARIANT_B && parameterValueNumericAsSI( EPSG_CODE_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN) == 0.0) { const double k0 = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_SCALE_FACTOR_AT_NATURAL_ORIGIN); if (!(k0 > 0 && k0 <= 1.0 + 1e-10)) return nullptr; const double dfStdP1Lat = (k0 >= 1.0) ? 0.0 : std::acos(std::sqrt((1.0 - e2) / ((1.0 / (k0 * k0)) - e2))); auto latitudeFirstParallel = common::Angle( common::Angle(dfStdP1Lat, common::UnitOfMeasure::RADIAN) .convertToUnit(common::UnitOfMeasure::DEGREE), common::UnitOfMeasure::DEGREE); auto conv = createMercatorVariantB( util::PropertyMap(), latitudeFirstParallel, common::Angle(parameterValueMeasure( EPSG_CODE_PARAMETER_LONGITUDE_OF_NATURAL_ORIGIN)), common::Length( parameterValueMeasure(EPSG_CODE_PARAMETER_FALSE_EASTING)), common::Length( parameterValueMeasure(EPSG_CODE_PARAMETER_FALSE_NORTHING))); conv->setCRSs(this, false); return conv.as_nullable(); } if (current_epsg_code == EPSG_CODE_METHOD_MERCATOR_VARIANT_B && targetEPSGCode == EPSG_CODE_METHOD_MERCATOR_VARIANT_A) { const double phi1 = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_LATITUDE_1ST_STD_PARALLEL); if (!(std::fabs(phi1) < M_PI / 2)) return nullptr; const double k0 = msfn(phi1, e2); auto conv = createMercatorVariantA( util::PropertyMap(), common::Angle(0.0, common::UnitOfMeasure::DEGREE), common::Angle(parameterValueMeasure( EPSG_CODE_PARAMETER_LONGITUDE_OF_NATURAL_ORIGIN)), common::Scale(k0, common::UnitOfMeasure::SCALE_UNITY), common::Length( parameterValueMeasure(EPSG_CODE_PARAMETER_FALSE_EASTING)), common::Length( parameterValueMeasure(EPSG_CODE_PARAMETER_FALSE_NORTHING))); conv->setCRSs(this, false); return conv.as_nullable(); } if (current_epsg_code == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_1SP && targetEPSGCode == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP) { // Notations m0, t0, n, m1, t1, F are those of the EPSG guidance // "1.3.1.1 Lambert Conic Conformal (2SP)" and // "1.3.1.2 Lambert Conic Conformal (1SP)" and // or Snyder pages 106-109 auto latitudeOfOrigin = common::Angle(parameterValueMeasure( EPSG_CODE_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN)); const double phi0 = latitudeOfOrigin.getSIValue(); const double k0 = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_SCALE_FACTOR_AT_NATURAL_ORIGIN); if (!(std::fabs(phi0) < M_PI / 2)) return nullptr; if (!(k0 > 0 && k0 <= 1.0 + 1e-10)) return nullptr; const double ec = std::sqrt(e2); const double m0 = msfn(phi0, e2); const double t0 = tsfn(phi0, ec); const double n = sin(phi0); if (std::fabs(n) < 1e-10) return nullptr; if (fabs(k0 - 1.0) <= 1e-10) { auto conv = createLambertConicConformal_2SP( util::PropertyMap(), latitudeOfOrigin, common::Angle(parameterValueMeasure( EPSG_CODE_PARAMETER_LONGITUDE_OF_NATURAL_ORIGIN)), latitudeOfOrigin, latitudeOfOrigin, common::Length( parameterValueMeasure(EPSG_CODE_PARAMETER_FALSE_EASTING)), common::Length( parameterValueMeasure(EPSG_CODE_PARAMETER_FALSE_NORTHING))); conv->setCRSs(this, false); return conv.as_nullable(); } else { const double K = k0 * m0 / std::pow(t0, n); const double phi1 = std::asin(find_zero_lcc_1sp_to_2sp_f(n, true, K, ec)); const double phi2 = std::asin(find_zero_lcc_1sp_to_2sp_f(n, false, K, ec)); double phi1Deg = RadToDeg(phi1); double phi2Deg = RadToDeg(phi2); // Try to round to hundreth of degree if very close to it if (std::fabs(phi1Deg * 1000 - std::floor(phi1Deg * 1000 + 0.5)) < 1e-8) phi1Deg = floor(phi1Deg * 1000 + 0.5) / 1000; if (std::fabs(phi2Deg * 1000 - std::floor(phi2Deg * 1000 + 0.5)) < 1e-8) phi2Deg = std::floor(phi2Deg * 1000 + 0.5) / 1000; // The following improvement is too turn the LCC1SP equivalent of // EPSG:2154 to the real LCC2SP // If the computed latitude of origin is close to .0 or .5 degrees // then check if rounding it to it will get a false northing // close to an integer const double FN = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_FALSE_NORTHING); const double latitudeOfOriginDeg = latitudeOfOrigin.convertToUnit(common::UnitOfMeasure::DEGREE); if (std::fabs(latitudeOfOriginDeg * 2 - std::floor(latitudeOfOriginDeg * 2 + 0.5)) < 0.2) { const double dfRoundedLatOfOrig = std::floor(latitudeOfOriginDeg * 2 + 0.5) / 2; const double m1 = msfn(phi1, e2); const double t1 = tsfn(phi1, ec); const double F = m1 / (n * std::pow(t1, n)); const double a = geogCRS->ellipsoid()->semiMajorAxis().getSIValue(); const double tRoundedLatOfOrig = tsfn(DegToRad(dfRoundedLatOfOrig), ec); const double FN_correction = a * F * (std::pow(tRoundedLatOfOrig, n) - std::pow(t0, n)); const double FN_corrected = FN - FN_correction; const double FN_corrected_rounded = std::floor(FN_corrected + 0.5); if (std::fabs(FN_corrected - FN_corrected_rounded) < 1e-8) { auto conv = createLambertConicConformal_2SP( util::PropertyMap(), common::Angle(dfRoundedLatOfOrig, common::UnitOfMeasure::DEGREE), common::Angle(parameterValueMeasure( EPSG_CODE_PARAMETER_LONGITUDE_OF_NATURAL_ORIGIN)), common::Angle(phi1Deg, common::UnitOfMeasure::DEGREE), common::Angle(phi2Deg, common::UnitOfMeasure::DEGREE), common::Length(parameterValueMeasure( EPSG_CODE_PARAMETER_FALSE_EASTING)), common::Length(FN_corrected_rounded)); conv->setCRSs(this, false); return conv.as_nullable(); } } auto conv = createLambertConicConformal_2SP( util::PropertyMap(), latitudeOfOrigin, common::Angle(parameterValueMeasure( EPSG_CODE_PARAMETER_LONGITUDE_OF_NATURAL_ORIGIN)), common::Angle(phi1Deg, common::UnitOfMeasure::DEGREE), common::Angle(phi2Deg, common::UnitOfMeasure::DEGREE), common::Length( parameterValueMeasure(EPSG_CODE_PARAMETER_FALSE_EASTING)), common::Length(FN)); conv->setCRSs(this, false); return conv.as_nullable(); } } if (current_epsg_code == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_2SP && targetEPSGCode == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_1SP) { // Notations m0, t0, m1, t1, m2, t2 n, F are those of the EPSG guidance // "1.3.1.1 Lambert Conic Conformal (2SP)" and // "1.3.1.2 Lambert Conic Conformal (1SP)" and // or Snyder pages 106-109 const double phiF = parameterValueMeasure(EPSG_CODE_PARAMETER_LATITUDE_FALSE_ORIGIN) .getSIValue(); const double phi1 = parameterValueMeasure(EPSG_CODE_PARAMETER_LATITUDE_1ST_STD_PARALLEL) .getSIValue(); const double phi2 = parameterValueMeasure(EPSG_CODE_PARAMETER_LATITUDE_2ND_STD_PARALLEL) .getSIValue(); if (!(std::fabs(phiF) < M_PI / 2)) return nullptr; if (!(std::fabs(phi1) < M_PI / 2)) return nullptr; if (!(std::fabs(phi2) < M_PI / 2)) return nullptr; const double ec = std::sqrt(e2); const double m1 = msfn(phi1, e2); const double m2 = msfn(phi2, e2); const double t1 = tsfn(phi1, ec); const double t2 = tsfn(phi2, ec); const double n_denom = std::log(t1) - std::log(t2); const double n = (std::fabs(n_denom) < 1e-10) ? std::sin(phi1) : (std::log(m1) - std::log(m2)) / n_denom; if (std::fabs(n) < 1e-10) return nullptr; const double F = m1 / (n * std::pow(t1, n)); const double phi0 = std::asin(n); const double m0 = msfn(phi0, e2); const double t0 = tsfn(phi0, ec); const double F0 = m0 / (n * std::pow(t0, n)); const double k0 = F / F0; const double a = geogCRS->ellipsoid()->semiMajorAxis().getSIValue(); const double tF = tsfn(phiF, ec); const double FN_correction = a * F * (std::pow(tF, n) - std::pow(t0, n)); double phi0Deg = RadToDeg(phi0); // Try to round to thousandth of degree if very close to it if (std::fabs(phi0Deg * 1000 - std::floor(phi0Deg * 1000 + 0.5)) < 1e-8) phi0Deg = std::floor(phi0Deg * 1000 + 0.5) / 1000; auto conv = createLambertConicConformal_1SP( util::PropertyMap(), common::Angle(phi0Deg, common::UnitOfMeasure::DEGREE), common::Angle(parameterValueMeasure( EPSG_CODE_PARAMETER_LONGITUDE_FALSE_ORIGIN)), common::Scale(k0), common::Length(parameterValueMeasure( EPSG_CODE_PARAMETER_EASTING_FALSE_ORIGIN)), common::Length( parameterValueNumericAsSI( EPSG_CODE_PARAMETER_NORTHING_FALSE_ORIGIN) + (std::fabs(FN_correction) > 1e-8 ? FN_correction : 0))); conv->setCRSs(this, false); return conv.as_nullable(); } return nullptr; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static void getESRIMethodNameAndParams(const Conversion *conv, const std::string &methodName, int methodEPSGCode, const char *&esriMethodName, const ESRIParamMapping *&esriParams) { esriParams = nullptr; esriMethodName = nullptr; const auto *esriMapping = getESRIMapping(methodName, methodEPSGCode); const auto l_targetCRS = conv->targetCRS(); if (esriMapping) { esriParams = esriMapping->params; esriMethodName = esriMapping->esri_name; if (esriMapping->epsg_code == EPSG_CODE_METHOD_EQUIDISTANT_CYLINDRICAL || esriMapping->epsg_code == EPSG_CODE_METHOD_EQUIDISTANT_CYLINDRICAL_SPHERICAL) { if (l_targetCRS && ci_find(l_targetCRS->nameStr(), "Plate Carree") != std::string::npos && conv->parameterValueNumericAsSI( EPSG_CODE_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN) == 0.0) { esriParams = paramsESRI_Plate_Carree; esriMethodName = "Plate_Carree"; } else { esriParams = paramsESRI_Equidistant_Cylindrical; esriMethodName = "Equidistant_Cylindrical"; } } else if (esriMapping->epsg_code == EPSG_CODE_METHOD_TRANSVERSE_MERCATOR) { if (ci_find(conv->nameStr(), "Gauss Kruger") != std::string::npos || (l_targetCRS && (ci_find(l_targetCRS->nameStr(), "Gauss") != std::string::npos || ci_find(l_targetCRS->nameStr(), "GK_") != std::string::npos))) { esriParams = paramsESRI_Gauss_Kruger; esriMethodName = "Gauss_Kruger"; } else { esriParams = paramsESRI_Transverse_Mercator; esriMethodName = "Transverse_Mercator"; } } else if (esriMapping->epsg_code == EPSG_CODE_METHOD_HOTINE_OBLIQUE_MERCATOR_VARIANT_A) { if (std::abs( conv->parameterValueNumericAsSI( EPSG_CODE_PARAMETER_AZIMUTH_INITIAL_LINE) - conv->parameterValueNumericAsSI( EPSG_CODE_PARAMETER_ANGLE_RECTIFIED_TO_SKEW_GRID)) < 1e-15) { esriParams = paramsESRI_Hotine_Oblique_Mercator_Azimuth_Natural_Origin; esriMethodName = "Hotine_Oblique_Mercator_Azimuth_Natural_Origin"; } else { esriParams = paramsESRI_Rectified_Skew_Orthomorphic_Natural_Origin; esriMethodName = "Rectified_Skew_Orthomorphic_Natural_Origin"; } } else if (esriMapping->epsg_code == EPSG_CODE_METHOD_HOTINE_OBLIQUE_MERCATOR_VARIANT_B) { if (std::abs( conv->parameterValueNumericAsSI( EPSG_CODE_PARAMETER_AZIMUTH_INITIAL_LINE) - conv->parameterValueNumericAsSI( EPSG_CODE_PARAMETER_ANGLE_RECTIFIED_TO_SKEW_GRID)) < 1e-15) { esriParams = paramsESRI_Hotine_Oblique_Mercator_Azimuth_Center; esriMethodName = "Hotine_Oblique_Mercator_Azimuth_Center"; } else { esriParams = paramsESRI_Rectified_Skew_Orthomorphic_Center; esriMethodName = "Rectified_Skew_Orthomorphic_Center"; } } else if (esriMapping->epsg_code == EPSG_CODE_METHOD_POLAR_STEREOGRAPHIC_VARIANT_B) { if (conv->parameterValueNumericAsSI( EPSG_CODE_PARAMETER_LATITUDE_STD_PARALLEL) > 0) { esriMethodName = "Stereographic_North_Pole"; } else { esriMethodName = "Stereographic_South_Pole"; } } } } // --------------------------------------------------------------------------- const char *Conversion::getESRIMethodName() const { const auto &l_method = method(); const auto &methodName = l_method->nameStr(); const auto methodEPSGCode = l_method->getEPSGCode(); const ESRIParamMapping *esriParams = nullptr; const char *esriMethodName = nullptr; getESRIMethodNameAndParams(this, methodName, methodEPSGCode, esriMethodName, esriParams); return esriMethodName; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress const char *Conversion::getWKT1GDALMethodName() const { const auto &l_method = method(); const auto methodEPSGCode = l_method->getEPSGCode(); if (methodEPSGCode == EPSG_CODE_METHOD_POPULAR_VISUALISATION_PSEUDO_MERCATOR) { return "Mercator_1SP"; } const MethodMapping *mapping = getMapping(l_method.get()); return mapping ? mapping->wkt1_name : nullptr; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void Conversion::_exportToWKT(io::WKTFormatter *formatter) const { const auto &l_method = method(); const auto &methodName = l_method->nameStr(); const auto methodEPSGCode = l_method->getEPSGCode(); const bool isWKT2 = formatter->version() == io::WKTFormatter::Version::WKT2; if (!isWKT2 && formatter->useESRIDialect()) { if (methodEPSGCode == EPSG_CODE_METHOD_MERCATOR_VARIANT_A) { auto eqConv = convertToOtherMethod(EPSG_CODE_METHOD_MERCATOR_VARIANT_B); if (eqConv) { eqConv->_exportToWKT(formatter); return; } } } if (isWKT2) { formatter->startNode(formatter->useDerivingConversion() ? io::WKTConstants::DERIVINGCONVERSION : io::WKTConstants::CONVERSION, !identifiers().empty()); formatter->addQuotedString(nameStr()); } else { formatter->enter(); formatter->pushOutputUnit(false); formatter->pushOutputId(false); } #ifdef DEBUG_CONVERSION_ID if (sourceCRS() && targetCRS()) { formatter->startNode("SOURCECRS_ID", false); sourceCRS()->formatID(formatter); formatter->endNode(); formatter->startNode("TARGETCRS_ID", false); targetCRS()->formatID(formatter); formatter->endNode(); } #endif bool bAlreadyWritten = false; if (!isWKT2 && formatter->useESRIDialect()) { const ESRIParamMapping *esriParams = nullptr; const char *esriMethodName = nullptr; getESRIMethodNameAndParams(this, methodName, methodEPSGCode, esriMethodName, esriParams); if (esriMethodName && esriParams) { formatter->startNode(io::WKTConstants::PROJECTION, false); formatter->addQuotedString(esriMethodName); formatter->endNode(); for (int i = 0; esriParams[i].esri_name != nullptr; i++) { const auto &esriParam = esriParams[i]; formatter->startNode(io::WKTConstants::PARAMETER, false); formatter->addQuotedString(esriParam.esri_name); if (esriParam.wkt2_name) { const auto &pv = parameterValue(esriParam.wkt2_name, esriParam.epsg_code); if (pv && pv->type() == ParameterValue::Type::MEASURE) { const auto &v = pv->value(); // as we don't output the natural unit, output // to the registered linear / angular unit. const auto &unitType = v.unit().type(); if (unitType == common::UnitOfMeasure::Type::LINEAR) { formatter->add(v.convertToUnit( *(formatter->axisLinearUnit()))); } else if (unitType == common::UnitOfMeasure::Type::ANGULAR) { const auto &angUnit = *(formatter->axisAngularUnit()); double val = v.convertToUnit(angUnit); if (angUnit == common::UnitOfMeasure::DEGREE) { if (val > 180.0) { val -= 360.0; } else if (val < -180.0) { val += 360.0; } } formatter->add(val); } else { formatter->add(v.getSIValue()); } } else if (ci_find(esriParam.esri_name, "scale") != std::string::npos) { formatter->add(1.0); } else { formatter->add(0.0); } } else { formatter->add(esriParam.fixed_value); } formatter->endNode(); } bAlreadyWritten = true; } } else if (!isWKT2) { if (methodEPSGCode == EPSG_CODE_METHOD_POPULAR_VISUALISATION_PSEUDO_MERCATOR) { const double latitudeOrigin = parameterValueNumeric( EPSG_CODE_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN, common::UnitOfMeasure::DEGREE); if (latitudeOrigin != 0) { throw io::FormattingException( std::string("Unsupported value for ") + EPSG_NAME_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN); } bAlreadyWritten = true; formatter->startNode(io::WKTConstants::PROJECTION, false); formatter->addQuotedString("Mercator_1SP"); formatter->endNode(); formatter->startNode(io::WKTConstants::PARAMETER, false); formatter->addQuotedString("central_meridian"); const double centralMeridian = parameterValueNumeric( EPSG_CODE_PARAMETER_LONGITUDE_OF_NATURAL_ORIGIN, common::UnitOfMeasure::DEGREE); formatter->add(centralMeridian); formatter->endNode(); formatter->startNode(io::WKTConstants::PARAMETER, false); formatter->addQuotedString("scale_factor"); formatter->add(1.0); formatter->endNode(); formatter->startNode(io::WKTConstants::PARAMETER, false); formatter->addQuotedString("false_easting"); const double falseEasting = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_FALSE_EASTING); formatter->add(falseEasting); formatter->endNode(); formatter->startNode(io::WKTConstants::PARAMETER, false); formatter->addQuotedString("false_northing"); const double falseNorthing = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_FALSE_NORTHING); formatter->add(falseNorthing); formatter->endNode(); } else if (starts_with(methodName, "PROJ ")) { bAlreadyWritten = true; formatter->startNode(io::WKTConstants::PROJECTION, false); formatter->addQuotedString("custom_proj4"); formatter->endNode(); } } if (!bAlreadyWritten) { l_method->_exportToWKT(formatter); const MethodMapping *mapping = !isWKT2 ? getMapping(l_method.get()) : nullptr; for (const auto &genOpParamvalue : parameterValues()) { // EPSG has normally no Latitude of natural origin for Equidistant // Cylindrical but PROJ can handle it, so output the parameter if // not zero if ((methodEPSGCode == EPSG_CODE_METHOD_EQUIDISTANT_CYLINDRICAL || methodEPSGCode == EPSG_CODE_METHOD_EQUIDISTANT_CYLINDRICAL_SPHERICAL)) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue && opParamvalue->parameter()->getEPSGCode() == EPSG_CODE_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN) { const auto &paramValue = opParamvalue->parameterValue(); if (paramValue->type() == ParameterValue::Type::MEASURE) { const auto &measure = paramValue->value(); if (measure.getSIValue() == 0) { continue; } } } } genOpParamvalue->_exportToWKT(formatter, mapping); } } if (isWKT2) { if (formatter->outputId()) { formatID(formatter); } formatter->endNode(); } else { formatter->popOutputUnit(); formatter->popOutputId(); formatter->leave(); } } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void Conversion::_exportToJSON( io::JSONFormatter *formatter) const // throw(FormattingException) { auto &writer = formatter->writer(); auto objectContext( formatter->MakeObjectContext("Conversion", !identifiers().empty())); writer.AddObjKey("name"); auto l_name = nameStr(); if (l_name.empty()) { writer.Add("unnamed"); } else { writer.Add(l_name); } writer.AddObjKey("method"); formatter->setOmitTypeInImmediateChild(); formatter->setAllowIDInImmediateChild(); method()->_exportToJSON(formatter); const auto &l_parameterValues = parameterValues(); if (!l_parameterValues.empty()) { writer.AddObjKey("parameters"); { auto parametersContext(writer.MakeArrayContext(false)); for (const auto &genOpParamvalue : l_parameterValues) { formatter->setAllowIDInImmediateChild(); formatter->setOmitTypeInImmediateChild(); genOpParamvalue->_exportToJSON(formatter); } } } if (formatter->outputId()) { formatID(formatter); } } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static bool createPROJ4WebMercator(const Conversion *conv, io::PROJStringFormatter *formatter) { const double centralMeridian = conv->parameterValueNumeric( EPSG_CODE_PARAMETER_LONGITUDE_OF_NATURAL_ORIGIN, common::UnitOfMeasure::DEGREE); const double falseEasting = conv->parameterValueNumericAsSI(EPSG_CODE_PARAMETER_FALSE_EASTING); const double falseNorthing = conv->parameterValueNumericAsSI(EPSG_CODE_PARAMETER_FALSE_NORTHING); auto sourceCRS = conv->sourceCRS(); auto geogCRS = dynamic_cast<const crs::GeographicCRS *>(sourceCRS.get()); if (!geogCRS) { return false; } formatter->addStep("merc"); const double a = geogCRS->ellipsoid()->semiMajorAxis().getSIValue(); formatter->addParam("a", a); formatter->addParam("b", a); formatter->addParam("lat_ts", 0.0); formatter->addParam("lon_0", centralMeridian); formatter->addParam("x_0", falseEasting); formatter->addParam("y_0", falseNorthing); formatter->addParam("k", 1.0); formatter->addParam("units", "m"); formatter->addParam("nadgrids", "@null"); formatter->addParam("wktext"); formatter->addParam("no_defs"); return true; } // --------------------------------------------------------------------------- static bool createPROJExtensionFromCustomProj(const Conversion *conv, io::PROJStringFormatter *formatter, bool forExtensionNode) { const auto &methodName = conv->method()->nameStr(); assert(starts_with(methodName, "PROJ ")); auto tokens = split(methodName, ' '); formatter->addStep(tokens[1]); if (forExtensionNode) { auto sourceCRS = conv->sourceCRS(); auto geogCRS = dynamic_cast<const crs::GeographicCRS *>(sourceCRS.get()); if (!geogCRS) { return false; } geogCRS->addDatumInfoToPROJString(formatter); } for (size_t i = 2; i < tokens.size(); i++) { auto kv = split(tokens[i], '='); if (kv.size() == 2) { formatter->addParam(kv[0], kv[1]); } else { formatter->addParam(tokens[i]); } } for (const auto &genOpParamvalue : conv->parameterValues()) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto &paramName = opParamvalue->parameter()->nameStr(); const auto &paramValue = opParamvalue->parameterValue(); if (paramValue->type() == ParameterValue::Type::MEASURE) { const auto &measure = paramValue->value(); const auto unitType = measure.unit().type(); if (unitType == common::UnitOfMeasure::Type::LINEAR) { formatter->addParam(paramName, measure.getSIValue()); } else if (unitType == common::UnitOfMeasure::Type::ANGULAR) { formatter->addParam( paramName, measure.convertToUnit(common::UnitOfMeasure::DEGREE)); } else { formatter->addParam(paramName, measure.value()); } } } } if (forExtensionNode) { formatter->addParam("wktext"); formatter->addParam("no_defs"); } return true; } //! @endcond // --------------------------------------------------------------------------- bool Conversion::addWKTExtensionNode(io::WKTFormatter *formatter) const { const bool isWKT2 = formatter->version() == io::WKTFormatter::Version::WKT2; if (!isWKT2) { const auto &l_method = method(); const auto &methodName = l_method->nameStr(); const int methodEPSGCode = l_method->getEPSGCode(); if (l_method->getPrivate()->projMethodOverride_ == "tmerc approx" || l_method->getPrivate()->projMethodOverride_ == "utm approx") { auto projFormatter = io::PROJStringFormatter::create(); projFormatter->setCRSExport(true); projFormatter->setUseApproxTMerc(true); formatter->startNode(io::WKTConstants::EXTENSION, false); formatter->addQuotedString("PROJ4"); _exportToPROJString(projFormatter.get()); projFormatter->addParam("no_defs"); formatter->addQuotedString(projFormatter->toString()); formatter->endNode(); return true; } else if (methodEPSGCode == EPSG_CODE_METHOD_POPULAR_VISUALISATION_PSEUDO_MERCATOR || nameStr() == "Popular Visualisation Mercator") { auto projFormatter = io::PROJStringFormatter::create(); projFormatter->setCRSExport(true); if (createPROJ4WebMercator(this, projFormatter.get())) { formatter->startNode(io::WKTConstants::EXTENSION, false); formatter->addQuotedString("PROJ4"); formatter->addQuotedString(projFormatter->toString()); formatter->endNode(); return true; } } else if (starts_with(methodName, "PROJ ")) { auto projFormatter = io::PROJStringFormatter::create(); projFormatter->setCRSExport(true); if (createPROJExtensionFromCustomProj(this, projFormatter.get(), true)) { formatter->startNode(io::WKTConstants::EXTENSION, false); formatter->addQuotedString("PROJ4"); formatter->addQuotedString(projFormatter->toString()); formatter->endNode(); return true; } } else if (methodName == PROJ_WKT2_NAME_METHOD_GEOSTATIONARY_SATELLITE_SWEEP_X) { auto projFormatter = io::PROJStringFormatter::create(); projFormatter->setCRSExport(true); formatter->startNode(io::WKTConstants::EXTENSION, false); formatter->addQuotedString("PROJ4"); _exportToPROJString(projFormatter.get()); projFormatter->addParam("no_defs"); formatter->addQuotedString(projFormatter->toString()); formatter->endNode(); return true; } } return false; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void Conversion::_exportToPROJString( io::PROJStringFormatter *formatter) const // throw(FormattingException) { const auto &l_method = method(); const auto &methodName = l_method->nameStr(); const int methodEPSGCode = l_method->getEPSGCode(); const bool isZUnitConversion = methodEPSGCode == EPSG_CODE_METHOD_CHANGE_VERTICAL_UNIT; const bool isAffineParametric = methodEPSGCode == EPSG_CODE_METHOD_AFFINE_PARAMETRIC_TRANSFORMATION; const bool isGeographicGeocentric = methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC_GEOCENTRIC; const bool applySourceCRSModifiers = !isZUnitConversion && !isAffineParametric && !isAxisOrderReversal(methodEPSGCode) && !isGeographicGeocentric; bool applyTargetCRSModifiers = applySourceCRSModifiers; auto l_sourceCRS = sourceCRS(); if (!formatter->getCRSExport() && l_sourceCRS && applySourceCRSModifiers) { auto geogCRS = dynamic_cast<const crs::GeographicCRS *>(l_sourceCRS.get()); if (geogCRS) { formatter->setOmitProjLongLatIfPossible(true); formatter->startInversion(); geogCRS->_exportToPROJString(formatter); formatter->stopInversion(); formatter->setOmitProjLongLatIfPossible(false); } auto projCRS = dynamic_cast<const crs::ProjectedCRS *>(l_sourceCRS.get()); if (projCRS) { formatter->startInversion(); projCRS->addUnitConvertAndAxisSwap(formatter, false); formatter->stopInversion(); } } const auto &convName = nameStr(); bool bConversionDone = false; bool bEllipsoidParametersDone = false; bool useApprox = false; if (methodEPSGCode == EPSG_CODE_METHOD_TRANSVERSE_MERCATOR) { // Check for UTM int zone = 0; bool north = true; useApprox = formatter->getUseApproxTMerc() || l_method->getPrivate()->projMethodOverride_ == "tmerc approx" || l_method->getPrivate()->projMethodOverride_ == "utm approx"; if (isUTM(zone, north)) { bConversionDone = true; formatter->addStep("utm"); if (useApprox) { formatter->addParam("approx"); } formatter->addParam("zone", zone); if (!north) { formatter->addParam("south"); } } } else if (methodEPSGCode == EPSG_CODE_METHOD_HOTINE_OBLIQUE_MERCATOR_VARIANT_A) { const double azimuth = parameterValueNumeric(EPSG_CODE_PARAMETER_AZIMUTH_INITIAL_LINE, common::UnitOfMeasure::DEGREE); const double angleRectifiedToSkewGrid = parameterValueNumeric( EPSG_CODE_PARAMETER_ANGLE_RECTIFIED_TO_SKEW_GRID, common::UnitOfMeasure::DEGREE); // Map to Swiss Oblique Mercator / somerc if (std::fabs(azimuth - 90) < 1e-4 && std::fabs(angleRectifiedToSkewGrid - 90) < 1e-4) { bConversionDone = true; formatter->addStep("somerc"); formatter->addParam( "lat_0", parameterValueNumeric( EPSG_CODE_PARAMETER_LATITUDE_PROJECTION_CENTRE, common::UnitOfMeasure::DEGREE)); formatter->addParam( "lon_0", parameterValueNumeric( EPSG_CODE_PARAMETER_LONGITUDE_PROJECTION_CENTRE, common::UnitOfMeasure::DEGREE)); formatter->addParam( "k_0", parameterValueNumericAsSI( EPSG_CODE_PARAMETER_SCALE_FACTOR_INITIAL_LINE)); formatter->addParam("x_0", parameterValueNumericAsSI( EPSG_CODE_PARAMETER_FALSE_EASTING)); formatter->addParam("y_0", parameterValueNumericAsSI( EPSG_CODE_PARAMETER_FALSE_NORTHING)); } } else if (methodEPSGCode == EPSG_CODE_METHOD_HOTINE_OBLIQUE_MERCATOR_VARIANT_B) { const double azimuth = parameterValueNumeric(EPSG_CODE_PARAMETER_AZIMUTH_INITIAL_LINE, common::UnitOfMeasure::DEGREE); const double angleRectifiedToSkewGrid = parameterValueNumeric( EPSG_CODE_PARAMETER_ANGLE_RECTIFIED_TO_SKEW_GRID, common::UnitOfMeasure::DEGREE); // Map to Swiss Oblique Mercator / somerc if (std::fabs(azimuth - 90) < 1e-4 && std::fabs(angleRectifiedToSkewGrid - 90) < 1e-4) { bConversionDone = true; formatter->addStep("somerc"); formatter->addParam( "lat_0", parameterValueNumeric( EPSG_CODE_PARAMETER_LATITUDE_PROJECTION_CENTRE, common::UnitOfMeasure::DEGREE)); formatter->addParam( "lon_0", parameterValueNumeric( EPSG_CODE_PARAMETER_LONGITUDE_PROJECTION_CENTRE, common::UnitOfMeasure::DEGREE)); formatter->addParam( "k_0", parameterValueNumericAsSI( EPSG_CODE_PARAMETER_SCALE_FACTOR_INITIAL_LINE)); formatter->addParam( "x_0", parameterValueNumericAsSI( EPSG_CODE_PARAMETER_EASTING_PROJECTION_CENTRE)); formatter->addParam( "y_0", parameterValueNumericAsSI( EPSG_CODE_PARAMETER_NORTHING_PROJECTION_CENTRE)); } } else if (methodEPSGCode == EPSG_CODE_METHOD_KROVAK_NORTH_ORIENTED) { double colatitude = parameterValueNumeric(EPSG_CODE_PARAMETER_COLATITUDE_CONE_AXIS, common::UnitOfMeasure::DEGREE); double latitudePseudoStandardParallel = parameterValueNumeric( EPSG_CODE_PARAMETER_LATITUDE_PSEUDO_STANDARD_PARALLEL, common::UnitOfMeasure::DEGREE); // 30deg 17' 17.30311'' = 30.28813975277777776 // 30deg 17' 17.303'' = 30.288139722222223 as used in GDAL WKT1 if (std::fabs(colatitude - 30.2881397) > 1e-7) { throw io::FormattingException( std::string("Unsupported value for ") + EPSG_NAME_PARAMETER_COLATITUDE_CONE_AXIS); } if (std::fabs(latitudePseudoStandardParallel - 78.5) > 1e-8) { throw io::FormattingException( std::string("Unsupported value for ") + EPSG_NAME_PARAMETER_LATITUDE_PSEUDO_STANDARD_PARALLEL); } } else if (methodEPSGCode == EPSG_CODE_METHOD_MERCATOR_VARIANT_A) { double latitudeOrigin = parameterValueNumeric( EPSG_CODE_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN, common::UnitOfMeasure::DEGREE); if (latitudeOrigin != 0) { throw io::FormattingException( std::string("Unsupported value for ") + EPSG_NAME_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN); } } else if (methodEPSGCode == EPSG_CODE_METHOD_MERCATOR_VARIANT_B) { const auto &scaleFactor = parameterValueMeasure(WKT1_SCALE_FACTOR, 0); if (scaleFactor.unit().type() != common::UnitOfMeasure::Type::UNKNOWN && std::fabs(scaleFactor.getSIValue() - 1.0) > 1e-10) { throw io::FormattingException( "Unexpected presence of scale factor in Mercator (variant B)"); } double latitudeOrigin = parameterValueNumeric( EPSG_CODE_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN, common::UnitOfMeasure::DEGREE); if (latitudeOrigin != 0) { throw io::FormattingException( std::string("Unsupported value for ") + EPSG_NAME_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN); } // PROJ.4 specific hack for webmercator } else if (formatter->getCRSExport() && methodEPSGCode == EPSG_CODE_METHOD_POPULAR_VISUALISATION_PSEUDO_MERCATOR) { if (!createPROJ4WebMercator(this, formatter)) { throw io::FormattingException( std::string("Cannot export ") + EPSG_NAME_METHOD_POPULAR_VISUALISATION_PSEUDO_MERCATOR + " as PROJ.4 string outside of a ProjectedCRS context"); } bConversionDone = true; bEllipsoidParametersDone = true; applyTargetCRSModifiers = false; } else if (ci_equal(convName, "Popular Visualisation Mercator")) { if (formatter->getCRSExport()) { if (!createPROJ4WebMercator(this, formatter)) { throw io::FormattingException(concat( "Cannot export ", convName, " as PROJ.4 string outside of a ProjectedCRS context")); } applyTargetCRSModifiers = false; } else { formatter->addStep("webmerc"); if (l_sourceCRS) { datum::Ellipsoid::WGS84->_exportToPROJString(formatter); } } bConversionDone = true; bEllipsoidParametersDone = true; } else if (starts_with(methodName, "PROJ ")) { bConversionDone = true; createPROJExtensionFromCustomProj(this, formatter, false); } else if (formatter->convention() == io::PROJStringFormatter::Convention::PROJ_5 && isZUnitConversion) { double convFactor = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_UNIT_CONVERSION_SCALAR); auto uom = common::UnitOfMeasure(std::string(), convFactor, common::UnitOfMeasure::Type::LINEAR) .exportToPROJString(); auto reverse_uom = common::UnitOfMeasure(std::string(), 1.0 / convFactor, common::UnitOfMeasure::Type::LINEAR) .exportToPROJString(); if (uom == "m") { // do nothing } else if (!uom.empty()) { formatter->addStep("unitconvert"); formatter->addParam("z_in", uom); formatter->addParam("z_out", "m"); } else if (!reverse_uom.empty()) { formatter->addStep("unitconvert"); formatter->addParam("z_in", "m"); formatter->addParam("z_out", reverse_uom); } else { formatter->addStep("affine"); formatter->addParam("s33", convFactor); } bConversionDone = true; bEllipsoidParametersDone = true; } bool bAxisSpecFound = false; if (!bConversionDone) { const MethodMapping *mapping = getMapping(l_method.get()); if (mapping && mapping->proj_name_main) { formatter->addStep(mapping->proj_name_main); if (useApprox) { formatter->addParam("approx"); } if (mapping->proj_name_aux) { if (internal::starts_with(mapping->proj_name_aux, "axis=")) { bAxisSpecFound = true; } auto kv = split(mapping->proj_name_aux, '='); if (kv.size() == 2) { formatter->addParam(kv[0], kv[1]); } else { formatter->addParam(mapping->proj_name_aux); } } if (mapping->epsg_code == EPSG_CODE_METHOD_POLAR_STEREOGRAPHIC_VARIANT_B) { double latitudeStdParallel = parameterValueNumeric( EPSG_CODE_PARAMETER_LATITUDE_STD_PARALLEL, common::UnitOfMeasure::DEGREE); formatter->addParam("lat_0", (latitudeStdParallel >= 0) ? 90.0 : -90.0); } for (int i = 0; mapping->params[i] != nullptr; i++) { const auto *param = mapping->params[i]; if (!param->proj_name) { continue; } auto value = parameterValueMeasure(param->wkt2_name, param->epsg_code); if (mapping->epsg_code == EPSG_CODE_METHOD_LAMBERT_CONIC_CONFORMAL_1SP && strcmp(param->proj_name, "lat_1") == 0) { formatter->addParam( param->proj_name, value.convertToUnit(common::UnitOfMeasure::DEGREE)); formatter->addParam( "lat_0", value.convertToUnit(common::UnitOfMeasure::DEGREE)); } else if (param->unit_type == common::UnitOfMeasure::Type::ANGULAR) { formatter->addParam( param->proj_name, value.convertToUnit(common::UnitOfMeasure::DEGREE)); } else { formatter->addParam(param->proj_name, value.getSIValue()); } } } else { if (!exportToPROJStringGeneric(formatter)) { throw io::FormattingException( concat("Unsupported conversion method: ", methodName)); } } } auto l_targetCRS = targetCRS(); if (l_targetCRS && applyTargetCRSModifiers) { if (!bEllipsoidParametersDone) { auto targetGeogCRS = l_targetCRS->extractGeographicCRS(); if (targetGeogCRS) { if (formatter->getCRSExport()) { targetGeogCRS->addDatumInfoToPROJString(formatter); } else { targetGeogCRS->ellipsoid()->_exportToPROJString(formatter); targetGeogCRS->primeMeridian()->_exportToPROJString( formatter); } } } auto projCRS = dynamic_cast<const crs::ProjectedCRS *>(l_targetCRS.get()); if (projCRS) { projCRS->addUnitConvertAndAxisSwap(formatter, bAxisSpecFound); } auto derivedGeographicCRS = dynamic_cast<const crs::DerivedGeographicCRS *>(l_targetCRS.get()); if (derivedGeographicCRS) { auto baseGeodCRS = derivedGeographicCRS->baseCRS(); formatter->setOmitProjLongLatIfPossible(true); baseGeodCRS->_exportToPROJString(formatter); formatter->setOmitProjLongLatIfPossible(false); } } } //! @endcond // --------------------------------------------------------------------------- /** \brief Return whether a conversion is a [Universal Transverse Mercator] * (https://proj.org/operations/projections/utm.html) conversion. * * @param[out] zone UTM zone number between 1 and 60. * @param[out] north true for UTM northern hemisphere, false for UTM southern * hemisphere. * @return true if it is a UTM conversion. */ bool Conversion::isUTM(int &zone, bool &north) const { zone = 0; north = true; if (method()->getEPSGCode() == EPSG_CODE_METHOD_TRANSVERSE_MERCATOR) { // Check for UTM bool bLatitudeNatOriginUTM = false; bool bScaleFactorUTM = false; bool bFalseEastingUTM = false; bool bFalseNorthingUTM = false; for (const auto &genOpParamvalue : parameterValues()) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto epsg_code = opParamvalue->parameter()->getEPSGCode(); const auto &l_parameterValue = opParamvalue->parameterValue(); if (l_parameterValue->type() == ParameterValue::Type::MEASURE) { const auto &measure = l_parameterValue->value(); if (epsg_code == EPSG_CODE_PARAMETER_LATITUDE_OF_NATURAL_ORIGIN && std::fabs(measure.value() - UTM_LATITUDE_OF_NATURAL_ORIGIN) < 1e-10) { bLatitudeNatOriginUTM = true; } else if ( (epsg_code == EPSG_CODE_PARAMETER_LONGITUDE_OF_NATURAL_ORIGIN || epsg_code == EPSG_CODE_PARAMETER_LONGITUDE_OF_ORIGIN) && measure.unit()._isEquivalentTo( common::UnitOfMeasure::DEGREE, util::IComparable::Criterion::EQUIVALENT)) { double dfZone = (measure.value() + 183.0) / 6.0; if (dfZone > 0.9 && dfZone < 60.1 && std::abs(dfZone - std::round(dfZone)) < 1e-10) { zone = static_cast<int>(std::lround(dfZone)); } } else if ( epsg_code == EPSG_CODE_PARAMETER_SCALE_FACTOR_AT_NATURAL_ORIGIN && measure.unit()._isEquivalentTo( common::UnitOfMeasure::SCALE_UNITY, util::IComparable::Criterion::EQUIVALENT) && std::fabs(measure.value() - UTM_SCALE_FACTOR) < 1e-10) { bScaleFactorUTM = true; } else if (epsg_code == EPSG_CODE_PARAMETER_FALSE_EASTING && measure.value() == UTM_FALSE_EASTING && measure.unit()._isEquivalentTo( common::UnitOfMeasure::METRE, util::IComparable::Criterion::EQUIVALENT)) { bFalseEastingUTM = true; } else if (epsg_code == EPSG_CODE_PARAMETER_FALSE_NORTHING && measure.unit()._isEquivalentTo( common::UnitOfMeasure::METRE, util::IComparable::Criterion::EQUIVALENT)) { if (std::fabs(measure.value() - UTM_NORTH_FALSE_NORTHING) < 1e-10) { bFalseNorthingUTM = true; north = true; } else if (std::fabs(measure.value() - UTM_SOUTH_FALSE_NORTHING) < 1e-10) { bFalseNorthingUTM = true; north = false; } } } } } if (bLatitudeNatOriginUTM && zone > 0 && bScaleFactorUTM && bFalseEastingUTM && bFalseNorthingUTM) { return true; } } return false; } // --------------------------------------------------------------------------- /** \brief Return a Conversion object where some parameters are better * identified. * * @return a new Conversion. */ ConversionNNPtr Conversion::identify() const { auto newConversion = Conversion::nn_make_shared<Conversion>(*this); newConversion->assignSelf(newConversion); if (method()->getEPSGCode() == EPSG_CODE_METHOD_TRANSVERSE_MERCATOR) { // Check for UTM int zone = 0; bool north = true; if (isUTM(zone, north)) { newConversion->setProperties( getUTMConversionProperty(util::PropertyMap(), zone, north)); } } return newConversion; } //! @cond Doxygen_Suppress // --------------------------------------------------------------------------- InvalidOperation::InvalidOperation(const char *message) : Exception(message) {} // --------------------------------------------------------------------------- InvalidOperation::InvalidOperation(const std::string &message) : Exception(message) {} // --------------------------------------------------------------------------- InvalidOperation::InvalidOperation(const InvalidOperation &) = default; // --------------------------------------------------------------------------- InvalidOperation::~InvalidOperation() = default; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct Transformation::Private { TransformationPtr forwardOperation_{}; TransformationNNPtr registerInv(util::BaseObjectNNPtr thisIn, TransformationNNPtr invTransform); }; //! @endcond // --------------------------------------------------------------------------- Transformation::Transformation( const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const crs::CRSPtr &interpolationCRSIn, const OperationMethodNNPtr &methodIn, const std::vector<GeneralParameterValueNNPtr> &values, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) : SingleOperation(methodIn), d(internal::make_unique<Private>()) { setParameterValues(values); setCRSs(sourceCRSIn, targetCRSIn, interpolationCRSIn); setAccuracies(accuracies); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress Transformation::~Transformation() = default; //! @endcond // --------------------------------------------------------------------------- Transformation::Transformation(const Transformation &other) : CoordinateOperation(other), SingleOperation(other), d(internal::make_unique<Private>(*other.d)) {} // --------------------------------------------------------------------------- /** \brief Return the source crs::CRS of the transformation. * * @return the source CRS. */ const crs::CRSNNPtr &Transformation::sourceCRS() PROJ_PURE_DEFN { return CoordinateOperation::getPrivate()->strongRef_->sourceCRS_; } // --------------------------------------------------------------------------- /** \brief Return the target crs::CRS of the transformation. * * @return the target CRS. */ const crs::CRSNNPtr &Transformation::targetCRS() PROJ_PURE_DEFN { return CoordinateOperation::getPrivate()->strongRef_->targetCRS_; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress TransformationNNPtr Transformation::shallowClone() const { auto transf = Transformation::nn_make_shared<Transformation>(*this); transf->assignSelf(transf); transf->setCRSs(this, false); return transf; } CoordinateOperationNNPtr Transformation::_shallowClone() const { return util::nn_static_pointer_cast<CoordinateOperation>(shallowClone()); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress /** \brief Return the TOWGS84 parameters of the transformation. * * If this transformation uses Coordinate Frame Rotation, Position Vector * transformation or Geocentric translations, a vector of 7 double values * using the Position Vector convention (EPSG:9606) is returned. Those values * can be used as the value of the WKT1 TOWGS84 parameter or * PROJ +towgs84 parameter. * * @return a vector of 7 values if valid, otherwise a io::FormattingException * is thrown. * @throws io::FormattingException */ std::vector<double> Transformation::getTOWGS84Parameters() const // throw(io::FormattingException) { // GDAL WKT1 assumes EPSG:9606 / Position Vector convention bool sevenParamsTransform = false; bool threeParamsTransform = false; bool invertRotSigns = false; const auto &l_method = method(); const auto &methodName = l_method->nameStr(); const int methodEPSGCode = l_method->getEPSGCode(); const auto paramCount = parameterValues().size(); if ((paramCount == 7 && ci_find(methodName, "Coordinate Frame") != std::string::npos) || methodEPSGCode == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_3D) { sevenParamsTransform = true; invertRotSigns = true; } else if ((paramCount == 7 && ci_find(methodName, "Position Vector") != std::string::npos) || methodEPSGCode == EPSG_CODE_METHOD_POSITION_VECTOR_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_3D) { sevenParamsTransform = true; invertRotSigns = false; } else if ((paramCount == 3 && ci_find(methodName, "Geocentric translations") != std::string::npos) || methodEPSGCode == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_3D) { threeParamsTransform = true; } if (threeParamsTransform || sevenParamsTransform) { std::vector<double> params(7, 0.0); bool foundX = false; bool foundY = false; bool foundZ = false; bool foundRotX = false; bool foundRotY = false; bool foundRotZ = false; bool foundScale = false; const double rotSign = invertRotSigns ? -1.0 : 1.0; const auto fixNegativeZero = [](double x) { if (x == 0.0) return 0.0; return x; }; for (const auto &genOpParamvalue : parameterValues()) { auto opParamvalue = dynamic_cast<const OperationParameterValue *>( genOpParamvalue.get()); if (opParamvalue) { const auto &parameter = opParamvalue->parameter(); const auto epsg_code = parameter->getEPSGCode(); const auto &l_parameterValue = opParamvalue->parameterValue(); if (l_parameterValue->type() == ParameterValue::Type::MEASURE) { const auto &measure = l_parameterValue->value(); if (epsg_code == EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION) { params[0] = measure.getSIValue(); foundX = true; } else if (epsg_code == EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION) { params[1] = measure.getSIValue(); foundY = true; } else if (epsg_code == EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION) { params[2] = measure.getSIValue(); foundZ = true; } else if (epsg_code == EPSG_CODE_PARAMETER_X_AXIS_ROTATION) { params[3] = fixNegativeZero( rotSign * measure.convertToUnit( common::UnitOfMeasure::ARC_SECOND)); foundRotX = true; } else if (epsg_code == EPSG_CODE_PARAMETER_Y_AXIS_ROTATION) { params[4] = fixNegativeZero( rotSign * measure.convertToUnit( common::UnitOfMeasure::ARC_SECOND)); foundRotY = true; } else if (epsg_code == EPSG_CODE_PARAMETER_Z_AXIS_ROTATION) { params[5] = fixNegativeZero( rotSign * measure.convertToUnit( common::UnitOfMeasure::ARC_SECOND)); foundRotZ = true; } else if (epsg_code == EPSG_CODE_PARAMETER_SCALE_DIFFERENCE) { params[6] = measure.convertToUnit( common::UnitOfMeasure::PARTS_PER_MILLION); foundScale = true; } } } } if (foundX && foundY && foundZ && (threeParamsTransform || (foundRotX && foundRotY && foundRotZ && foundScale))) { return params; } else { throw io::FormattingException( "Missing required parameter values in transformation"); } } #if 0 if (methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC2D_OFFSETS || methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC3D_OFFSETS) { auto offsetLat = parameterValueMeasure(EPSG_CODE_PARAMETER_LATITUDE_OFFSET); auto offsetLong = parameterValueMeasure(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET); auto offsetHeight = parameterValueMeasure(EPSG_CODE_PARAMETER_VERTICAL_OFFSET); if (offsetLat.getSIValue() == 0.0 && offsetLong.getSIValue() == 0.0 && offsetHeight.getSIValue() == 0.0) { std::vector<double> params(7, 0.0); return params; } } #endif throw io::FormattingException( "Transformation cannot be formatted as WKT1 TOWGS84 parameters"); } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a transformation from a vector of GeneralParameterValue. * * @param properties See \ref general_properties. At minimum the name should be * defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param interpolationCRSIn Interpolation CRS (might be null) * @param methodIn Operation method. * @param values Vector of GeneralOperationParameterNNPtr. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. * @throws InvalidOperation */ TransformationNNPtr Transformation::create( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const crs::CRSPtr &interpolationCRSIn, const OperationMethodNNPtr &methodIn, const std::vector<GeneralParameterValueNNPtr> &values, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { if (methodIn->parameters().size() != values.size()) { throw InvalidOperation( "Inconsistent number of parameters and parameter values"); } auto transf = Transformation::nn_make_shared<Transformation>( sourceCRSIn, targetCRSIn, interpolationCRSIn, methodIn, values, accuracies); transf->assignSelf(transf); transf->setProperties(properties); std::string name; if (properties.getStringValue(common::IdentifiedObject::NAME_KEY, name) && ci_find(name, "ballpark") != std::string::npos) { transf->setHasBallparkTransformation(true); } return transf; } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation ands its OperationMethod. * * @param propertiesTransformation The \ref general_properties of the * Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param interpolationCRSIn Interpolation CRS (might be null) * @param propertiesOperationMethod The \ref general_properties of the * OperationMethod. * At minimum the name should be defined. * @param parameters Vector of parameters of the operation method. * @param values Vector of ParameterValueNNPtr. Constraint: * values.size() == parameters.size() * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. * @throws InvalidOperation */ TransformationNNPtr Transformation::create(const util::PropertyMap &propertiesTransformation, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const crs::CRSPtr &interpolationCRSIn, const util::PropertyMap &propertiesOperationMethod, const std::vector<OperationParameterNNPtr> &parameters, const std::vector<ParameterValueNNPtr> &values, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) // throw InvalidOperation { OperationMethodNNPtr op( OperationMethod::create(propertiesOperationMethod, parameters)); if (parameters.size() != values.size()) { throw InvalidOperation( "Inconsistent number of parameters and parameter values"); } std::vector<GeneralParameterValueNNPtr> generalParameterValues; generalParameterValues.reserve(values.size()); for (size_t i = 0; i < values.size(); i++) { generalParameterValues.push_back( OperationParameterValue::create(parameters[i], values[i])); } return create(propertiesTransformation, sourceCRSIn, targetCRSIn, interpolationCRSIn, op, generalParameterValues, accuracies); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress // --------------------------------------------------------------------------- static TransformationNNPtr createSevenParamsTransform( const util::PropertyMap &properties, const util::PropertyMap &methodProperties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, double translationXMetre, double translationYMetre, double translationZMetre, double rotationXArcSecond, double rotationYArcSecond, double rotationZArcSecond, double scaleDifferencePPM, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return Transformation::create( properties, sourceCRSIn, targetCRSIn, nullptr, methodProperties, VectorOfParameters{ createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_X_AXIS_ROTATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Y_AXIS_ROTATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Z_AXIS_ROTATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_SCALE_DIFFERENCE), }, createParams(common::Length(translationXMetre), common::Length(translationYMetre), common::Length(translationZMetre), common::Angle(rotationXArcSecond, common::UnitOfMeasure::ARC_SECOND), common::Angle(rotationYArcSecond, common::UnitOfMeasure::ARC_SECOND), common::Angle(rotationZArcSecond, common::UnitOfMeasure::ARC_SECOND), common::Scale(scaleDifferencePPM, common::UnitOfMeasure::PARTS_PER_MILLION)), accuracies); } // --------------------------------------------------------------------------- static void getTransformationType(const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, bool &isGeocentric, bool &isGeog2D, bool &isGeog3D) { auto sourceCRSGeod = dynamic_cast<const crs::GeodeticCRS *>(sourceCRSIn.get()); auto targetCRSGeod = dynamic_cast<const crs::GeodeticCRS *>(targetCRSIn.get()); isGeocentric = sourceCRSGeod && sourceCRSGeod->isGeocentric() && targetCRSGeod && targetCRSGeod->isGeocentric(); if (isGeocentric) { isGeog2D = false; isGeog3D = false; return; } isGeocentric = false; auto sourceCRSGeog = dynamic_cast<const crs::GeographicCRS *>(sourceCRSIn.get()); auto targetCRSGeog = dynamic_cast<const crs::GeographicCRS *>(targetCRSIn.get()); if (!sourceCRSGeog || !targetCRSGeog) { throw InvalidOperation("Inconsistent CRS type"); } const auto nSrcAxisCount = sourceCRSGeog->coordinateSystem()->axisList().size(); const auto nTargetAxisCount = targetCRSGeog->coordinateSystem()->axisList().size(); isGeog2D = nSrcAxisCount == 2 && nTargetAxisCount == 2; isGeog3D = !isGeog2D && nSrcAxisCount >= 2 && nTargetAxisCount >= 2; } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with Geocentric Translations method. * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param translationXMetre Value of the Translation_X parameter (in metre). * @param translationYMetre Value of the Translation_Y parameter (in metre). * @param translationZMetre Value of the Translation_Z parameter (in metre). * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createGeocentricTranslations( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, double translationXMetre, double translationYMetre, double translationZMetre, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { bool isGeocentric; bool isGeog2D; bool isGeog3D; getTransformationType(sourceCRSIn, targetCRSIn, isGeocentric, isGeog2D, isGeog3D); return create( properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode( isGeocentric ? EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOCENTRIC : isGeog2D ? EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_2D : EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_3D), VectorOfParameters{ createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION), }, createParams(common::Length(translationXMetre), common::Length(translationYMetre), common::Length(translationZMetre)), accuracies); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with Position vector transformation * method. * * This is similar to createCoordinateFrameRotation(), except that the sign of * the rotation terms is inverted. * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param translationXMetre Value of the Translation_X parameter (in metre). * @param translationYMetre Value of the Translation_Y parameter (in metre). * @param translationZMetre Value of the Translation_Z parameter (in metre). * @param rotationXArcSecond Value of the Rotation_X parameter (in * arc-second). * @param rotationYArcSecond Value of the Rotation_Y parameter (in * arc-second). * @param rotationZArcSecond Value of the Rotation_Z parameter (in * arc-second). * @param scaleDifferencePPM Value of the Scale_Difference parameter (in * parts-per-million). * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createPositionVector( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, double translationXMetre, double translationYMetre, double translationZMetre, double rotationXArcSecond, double rotationYArcSecond, double rotationZArcSecond, double scaleDifferencePPM, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { bool isGeocentric; bool isGeog2D; bool isGeog3D; getTransformationType(sourceCRSIn, targetCRSIn, isGeocentric, isGeog2D, isGeog3D); return createSevenParamsTransform( properties, createMethodMapNameEPSGCode( isGeocentric ? EPSG_CODE_METHOD_POSITION_VECTOR_GEOCENTRIC : isGeog2D ? EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_2D : EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_3D), sourceCRSIn, targetCRSIn, translationXMetre, translationYMetre, translationZMetre, rotationXArcSecond, rotationYArcSecond, rotationZArcSecond, scaleDifferencePPM, accuracies); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with Coordinate Frame Rotation method. * * This is similar to createPositionVector(), except that the sign of * the rotation terms is inverted. * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param translationXMetre Value of the Translation_X parameter (in metre). * @param translationYMetre Value of the Translation_Y parameter (in metre). * @param translationZMetre Value of the Translation_Z parameter (in metre). * @param rotationXArcSecond Value of the Rotation_X parameter (in * arc-second). * @param rotationYArcSecond Value of the Rotation_Y parameter (in * arc-second). * @param rotationZArcSecond Value of the Rotation_Z parameter (in * arc-second). * @param scaleDifferencePPM Value of the Scale_Difference parameter (in * parts-per-million). * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createCoordinateFrameRotation( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, double translationXMetre, double translationYMetre, double translationZMetre, double rotationXArcSecond, double rotationYArcSecond, double rotationZArcSecond, double scaleDifferencePPM, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { bool isGeocentric; bool isGeog2D; bool isGeog3D; getTransformationType(sourceCRSIn, targetCRSIn, isGeocentric, isGeog2D, isGeog3D); return createSevenParamsTransform( properties, createMethodMapNameEPSGCode( isGeocentric ? EPSG_CODE_METHOD_COORDINATE_FRAME_GEOCENTRIC : isGeog2D ? EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_2D : EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_3D), sourceCRSIn, targetCRSIn, translationXMetre, translationYMetre, translationZMetre, rotationXArcSecond, rotationYArcSecond, rotationZArcSecond, scaleDifferencePPM, accuracies); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static TransformationNNPtr createFifteenParamsTransform( const util::PropertyMap &properties, const util::PropertyMap &methodProperties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, double translationXMetre, double translationYMetre, double translationZMetre, double rotationXArcSecond, double rotationYArcSecond, double rotationZArcSecond, double scaleDifferencePPM, double rateTranslationX, double rateTranslationY, double rateTranslationZ, double rateRotationX, double rateRotationY, double rateRotationZ, double rateScaleDifference, double referenceEpochYear, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return Transformation::create( properties, sourceCRSIn, targetCRSIn, nullptr, methodProperties, VectorOfParameters{ createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_X_AXIS_ROTATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Y_AXIS_ROTATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Z_AXIS_ROTATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_SCALE_DIFFERENCE), createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_RATE_X_AXIS_TRANSLATION), createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_RATE_Y_AXIS_TRANSLATION), createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_RATE_Z_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_RATE_X_AXIS_ROTATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_RATE_Y_AXIS_ROTATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_RATE_Z_AXIS_ROTATION), createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_RATE_SCALE_DIFFERENCE), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_REFERENCE_EPOCH), }, VectorOfValues{ common::Length(translationXMetre), common::Length(translationYMetre), common::Length(translationZMetre), common::Angle(rotationXArcSecond, common::UnitOfMeasure::ARC_SECOND), common::Angle(rotationYArcSecond, common::UnitOfMeasure::ARC_SECOND), common::Angle(rotationZArcSecond, common::UnitOfMeasure::ARC_SECOND), common::Scale(scaleDifferencePPM, common::UnitOfMeasure::PARTS_PER_MILLION), common::Measure(rateTranslationX, common::UnitOfMeasure::METRE_PER_YEAR), common::Measure(rateTranslationY, common::UnitOfMeasure::METRE_PER_YEAR), common::Measure(rateTranslationZ, common::UnitOfMeasure::METRE_PER_YEAR), common::Measure(rateRotationX, common::UnitOfMeasure::ARC_SECOND_PER_YEAR), common::Measure(rateRotationY, common::UnitOfMeasure::ARC_SECOND_PER_YEAR), common::Measure(rateRotationZ, common::UnitOfMeasure::ARC_SECOND_PER_YEAR), common::Measure(rateScaleDifference, common::UnitOfMeasure::PPM_PER_YEAR), common::Measure(referenceEpochYear, common::UnitOfMeasure::YEAR), }, accuracies); } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with Time Dependent position vector * transformation method. * * This is similar to createTimeDependentCoordinateFrameRotation(), except that * the sign of * the rotation terms is inverted. * * This method is defined as [EPSG:1053] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::1053) * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param translationXMetre Value of the Translation_X parameter (in metre). * @param translationYMetre Value of the Translation_Y parameter (in metre). * @param translationZMetre Value of the Translation_Z parameter (in metre). * @param rotationXArcSecond Value of the Rotation_X parameter (in * arc-second). * @param rotationYArcSecond Value of the Rotation_Y parameter (in * arc-second). * @param rotationZArcSecond Value of the Rotation_Z parameter (in * arc-second). * @param scaleDifferencePPM Value of the Scale_Difference parameter (in * parts-per-million). * @param rateTranslationX Value of the rate of change of X-axis translation (in * metre/year) * @param rateTranslationY Value of the rate of change of Y-axis translation (in * metre/year) * @param rateTranslationZ Value of the rate of change of Z-axis translation (in * metre/year) * @param rateRotationX Value of the rate of change of X-axis rotation (in * arc-second/year) * @param rateRotationY Value of the rate of change of Y-axis rotation (in * arc-second/year) * @param rateRotationZ Value of the rate of change of Z-axis rotation (in * arc-second/year) * @param rateScaleDifference Value of the rate of change of scale difference * (in PPM/year) * @param referenceEpochYear Parameter reference epoch (in decimal year) * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createTimeDependentPositionVector( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, double translationXMetre, double translationYMetre, double translationZMetre, double rotationXArcSecond, double rotationYArcSecond, double rotationZArcSecond, double scaleDifferencePPM, double rateTranslationX, double rateTranslationY, double rateTranslationZ, double rateRotationX, double rateRotationY, double rateRotationZ, double rateScaleDifference, double referenceEpochYear, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { bool isGeocentric; bool isGeog2D; bool isGeog3D; getTransformationType(sourceCRSIn, targetCRSIn, isGeocentric, isGeog2D, isGeog3D); return createFifteenParamsTransform( properties, createMethodMapNameEPSGCode( isGeocentric ? EPSG_CODE_METHOD_TIME_DEPENDENT_POSITION_VECTOR_GEOCENTRIC : isGeog2D ? EPSG_CODE_METHOD_TIME_DEPENDENT_POSITION_VECTOR_GEOGRAPHIC_2D : EPSG_CODE_METHOD_TIME_DEPENDENT_POSITION_VECTOR_GEOGRAPHIC_3D), sourceCRSIn, targetCRSIn, translationXMetre, translationYMetre, translationZMetre, rotationXArcSecond, rotationYArcSecond, rotationZArcSecond, scaleDifferencePPM, rateTranslationX, rateTranslationY, rateTranslationZ, rateRotationX, rateRotationY, rateRotationZ, rateScaleDifference, referenceEpochYear, accuracies); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with Time Dependent Position coordinate * frame rotation transformation method. * * This is similar to createTimeDependentPositionVector(), except that the sign * of * the rotation terms is inverted. * * This method is defined as [EPSG:1056] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::1056) * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param translationXMetre Value of the Translation_X parameter (in metre). * @param translationYMetre Value of the Translation_Y parameter (in metre). * @param translationZMetre Value of the Translation_Z parameter (in metre). * @param rotationXArcSecond Value of the Rotation_X parameter (in * arc-second). * @param rotationYArcSecond Value of the Rotation_Y parameter (in * arc-second). * @param rotationZArcSecond Value of the Rotation_Z parameter (in * arc-second). * @param scaleDifferencePPM Value of the Scale_Difference parameter (in * parts-per-million). * @param rateTranslationX Value of the rate of change of X-axis translation (in * metre/year) * @param rateTranslationY Value of the rate of change of Y-axis translation (in * metre/year) * @param rateTranslationZ Value of the rate of change of Z-axis translation (in * metre/year) * @param rateRotationX Value of the rate of change of X-axis rotation (in * arc-second/year) * @param rateRotationY Value of the rate of change of Y-axis rotation (in * arc-second/year) * @param rateRotationZ Value of the rate of change of Z-axis rotation (in * arc-second/year) * @param rateScaleDifference Value of the rate of change of scale difference * (in PPM/year) * @param referenceEpochYear Parameter reference epoch (in decimal year) * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. * @throws InvalidOperation */ TransformationNNPtr Transformation::createTimeDependentCoordinateFrameRotation( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, double translationXMetre, double translationYMetre, double translationZMetre, double rotationXArcSecond, double rotationYArcSecond, double rotationZArcSecond, double scaleDifferencePPM, double rateTranslationX, double rateTranslationY, double rateTranslationZ, double rateRotationX, double rateRotationY, double rateRotationZ, double rateScaleDifference, double referenceEpochYear, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { bool isGeocentric; bool isGeog2D; bool isGeog3D; getTransformationType(sourceCRSIn, targetCRSIn, isGeocentric, isGeog2D, isGeog3D); return createFifteenParamsTransform( properties, createMethodMapNameEPSGCode( isGeocentric ? EPSG_CODE_METHOD_TIME_DEPENDENT_COORDINATE_FRAME_GEOCENTRIC : isGeog2D ? EPSG_CODE_METHOD_TIME_DEPENDENT_COORDINATE_FRAME_GEOGRAPHIC_2D : EPSG_CODE_METHOD_TIME_DEPENDENT_COORDINATE_FRAME_GEOGRAPHIC_3D), sourceCRSIn, targetCRSIn, translationXMetre, translationYMetre, translationZMetre, rotationXArcSecond, rotationYArcSecond, rotationZArcSecond, scaleDifferencePPM, rateTranslationX, rateTranslationY, rateTranslationZ, rateRotationX, rateRotationY, rateRotationZ, rateScaleDifference, referenceEpochYear, accuracies); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static TransformationNNPtr _createMolodensky( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, int methodEPSGCode, double translationXMetre, double translationYMetre, double translationZMetre, double semiMajorAxisDifferenceMetre, double flattingDifference, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return Transformation::create( properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode(methodEPSGCode), VectorOfParameters{ createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION), createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_SEMI_MAJOR_AXIS_DIFFERENCE), createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_FLATTENING_DIFFERENCE), }, createParams( common::Length(translationXMetre), common::Length(translationYMetre), common::Length(translationZMetre), common::Length(semiMajorAxisDifferenceMetre), common::Measure(flattingDifference, common::UnitOfMeasure::NONE)), accuracies); } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with Molodensky method. * * @see createAbridgedMolodensky() for a related method. * * This method is defined as [EPSG:9604] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9604) * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param translationXMetre Value of the Translation_X parameter (in metre). * @param translationYMetre Value of the Translation_Y parameter (in metre). * @param translationZMetre Value of the Translation_Z parameter (in metre). * @param semiMajorAxisDifferenceMetre The difference between the semi-major * axis values of the ellipsoids used in the target and source CRS (in metre). * @param flattingDifference The difference between the flattening values of * the ellipsoids used in the target and source CRS. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. * @throws InvalidOperation */ TransformationNNPtr Transformation::createMolodensky( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, double translationXMetre, double translationYMetre, double translationZMetre, double semiMajorAxisDifferenceMetre, double flattingDifference, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return _createMolodensky( properties, sourceCRSIn, targetCRSIn, EPSG_CODE_METHOD_MOLODENSKY, translationXMetre, translationYMetre, translationZMetre, semiMajorAxisDifferenceMetre, flattingDifference, accuracies); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with Abridged Molodensky method. * * @see createdMolodensky() for a related method. * * This method is defined as [EPSG:9605] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9605) * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param translationXMetre Value of the Translation_X parameter (in metre). * @param translationYMetre Value of the Translation_Y parameter (in metre). * @param translationZMetre Value of the Translation_Z parameter (in metre). * @param semiMajorAxisDifferenceMetre The difference between the semi-major * axis values of the ellipsoids used in the target and source CRS (in metre). * @param flattingDifference The difference between the flattening values of * the ellipsoids used in the target and source CRS. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. * @throws InvalidOperation */ TransformationNNPtr Transformation::createAbridgedMolodensky( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, double translationXMetre, double translationYMetre, double translationZMetre, double semiMajorAxisDifferenceMetre, double flattingDifference, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return _createMolodensky(properties, sourceCRSIn, targetCRSIn, EPSG_CODE_METHOD_ABRIDGED_MOLODENSKY, translationXMetre, translationYMetre, translationZMetre, semiMajorAxisDifferenceMetre, flattingDifference, accuracies); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation from TOWGS84 parameters. * * This is a helper of createPositionVector() with the source CRS being the * GeographicCRS of sourceCRSIn, and the target CRS being EPSG:4326 * * @param sourceCRSIn Source CRS. * @param TOWGS84Parameters The vector of 3 double values (Translation_X,_Y,_Z) * or 7 double values (Translation_X,_Y,_Z, Rotation_X,_Y,_Z, Scale_Difference) * passed to createPositionVector() * @return new Transformation. * @throws InvalidOperation */ TransformationNNPtr Transformation::createTOWGS84( const crs::CRSNNPtr &sourceCRSIn, const std::vector<double> &TOWGS84Parameters) // throw InvalidOperation { if (TOWGS84Parameters.size() != 3 && TOWGS84Parameters.size() != 7) { throw InvalidOperation( "Invalid number of elements in TOWGS84Parameters"); } crs::CRSPtr transformSourceCRS = sourceCRSIn->extractGeodeticCRS(); if (!transformSourceCRS) { throw InvalidOperation( "Cannot find GeodeticCRS in sourceCRS of TOWGS84 transformation"); } util::PropertyMap properties; properties.set(common::IdentifiedObject::NAME_KEY, concat("Transformation from ", transformSourceCRS->nameStr(), " to WGS84")); auto targetCRS = dynamic_cast<const crs::GeographicCRS *>(transformSourceCRS.get()) ? util::nn_static_pointer_cast<crs::CRS>( crs::GeographicCRS::EPSG_4326) : util::nn_static_pointer_cast<crs::CRS>( crs::GeodeticCRS::EPSG_4978); if (TOWGS84Parameters.size() == 3) { return createGeocentricTranslations( properties, NN_NO_CHECK(transformSourceCRS), targetCRS, TOWGS84Parameters[0], TOWGS84Parameters[1], TOWGS84Parameters[2], {}); } return createPositionVector(properties, NN_NO_CHECK(transformSourceCRS), targetCRS, TOWGS84Parameters[0], TOWGS84Parameters[1], TOWGS84Parameters[2], TOWGS84Parameters[3], TOWGS84Parameters[4], TOWGS84Parameters[5], TOWGS84Parameters[6], {}); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with NTv2 method. * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param filename NTv2 filename. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createNTv2( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const std::string &filename, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return create(properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode(EPSG_CODE_METHOD_NTV2), VectorOfParameters{createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_LATITUDE_LONGITUDE_DIFFERENCE_FILE)}, VectorOfValues{ParameterValue::createFilename(filename)}, accuracies); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static TransformationNNPtr _createGravityRelatedHeightToGeographic3D( const util::PropertyMap &properties, bool inverse, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const crs::CRSPtr &interpolationCRSIn, const std::string &filename, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return Transformation::create( properties, sourceCRSIn, targetCRSIn, interpolationCRSIn, util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, inverse ? INVERSE_OF + PROJ_WKT2_NAME_METHOD_HEIGHT_TO_GEOG3D : PROJ_WKT2_NAME_METHOD_HEIGHT_TO_GEOG3D), VectorOfParameters{createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_GEOID_CORRECTION_FILENAME)}, VectorOfValues{ParameterValue::createFilename(filename)}, accuracies); } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a transformation from GravityRelatedHeight to * Geographic3D * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param interpolationCRSIn Interpolation CRS. (might be null) * @param filename GRID filename. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createGravityRelatedHeightToGeographic3D( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const crs::CRSPtr &interpolationCRSIn, const std::string &filename, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return _createGravityRelatedHeightToGeographic3D( properties, false, sourceCRSIn, targetCRSIn, interpolationCRSIn, filename, accuracies); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with method VERTCON * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param filename GRID filename. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createVERTCON( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const std::string &filename, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return create(properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode(EPSG_CODE_METHOD_VERTCON), VectorOfParameters{createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_VERTICAL_OFFSET_FILE)}, VectorOfValues{ParameterValue::createFilename(filename)}, accuracies); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static inline std::vector<metadata::PositionalAccuracyNNPtr> buildAccuracyZero() { return std::vector<metadata::PositionalAccuracyNNPtr>{ metadata::PositionalAccuracy::create("0")}; } // --------------------------------------------------------------------------- //! @endcond /** \brief Instantiate a transformation with method Longitude rotation * * This method is defined as [EPSG:9601] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9601) * * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param offset Longitude offset to add. * @return new Transformation. */ TransformationNNPtr Transformation::createLongitudeRotation( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const common::Angle &offset) { return create( properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode(EPSG_CODE_METHOD_LONGITUDE_ROTATION), VectorOfParameters{ createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET)}, VectorOfValues{ParameterValue::create(offset)}, buildAccuracyZero()); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress bool Transformation::isLongitudeRotation() const { return method()->getEPSGCode() == EPSG_CODE_METHOD_LONGITUDE_ROTATION; } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with method Geographic 2D offsets * * This method is defined as [EPSG:9619] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9619) * * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param offsetLat Latitude offset to add. * @param offsetLon Longitude offset to add. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createGeographic2DOffsets( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const common::Angle &offsetLat, const common::Angle &offsetLon, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return create( properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode(EPSG_CODE_METHOD_GEOGRAPHIC2D_OFFSETS), VectorOfParameters{ createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_LATITUDE_OFFSET), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET)}, VectorOfValues{offsetLat, offsetLon}, accuracies); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with method Geographic 3D offsets * * This method is defined as [EPSG:9660] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9660) * * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param offsetLat Latitude offset to add. * @param offsetLon Longitude offset to add. * @param offsetHeight Height offset to add. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createGeographic3DOffsets( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const common::Angle &offsetLat, const common::Angle &offsetLon, const common::Length &offsetHeight, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return create( properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode(EPSG_CODE_METHOD_GEOGRAPHIC3D_OFFSETS), VectorOfParameters{ createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_LATITUDE_OFFSET), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_VERTICAL_OFFSET)}, VectorOfValues{offsetLat, offsetLon, offsetHeight}, accuracies); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with method Geographic 2D with * height * offsets * * This method is defined as [EPSG:9618] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9618) * * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param offsetLat Latitude offset to add. * @param offsetLon Longitude offset to add. * @param offsetHeight Geoid undulation to add. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createGeographic2DWithHeightOffsets( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const common::Angle &offsetLat, const common::Angle &offsetLon, const common::Length &offsetHeight, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return create( properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode( EPSG_CODE_METHOD_GEOGRAPHIC2D_WITH_HEIGHT_OFFSETS), VectorOfParameters{ createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_LATITUDE_OFFSET), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET), createOpParamNameEPSGCode(EPSG_CODE_PARAMETER_GEOID_UNDULATION)}, VectorOfValues{offsetLat, offsetLon, offsetHeight}, accuracies); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation with method Vertical Offset. * * This method is defined as [EPSG:9616] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::9616) * * * @param properties See \ref general_properties of the Transformation. * At minimum the name should be defined. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param offsetHeight Geoid undulation to add. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. */ TransformationNNPtr Transformation::createVerticalOffset( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const common::Length &offsetHeight, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return create(properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode(EPSG_CODE_METHOD_VERTICAL_OFFSET), VectorOfParameters{createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_VERTICAL_OFFSET)}, VectorOfValues{offsetHeight}, accuracies); } // --------------------------------------------------------------------------- /** \brief Instantiate a transformation based on the Change of Vertical Unit * method. * * This method is defined as [EPSG:1069] * (https://www.epsg-registry.org/export.htm?gml=urn:ogc:def:method:EPSG::1069) * * @param properties See \ref general_properties of the conversion. If the name * is not provided, it is automatically set. * @param sourceCRSIn Source CRS. * @param targetCRSIn Target CRS. * @param factor Conversion factor * @param accuracies Vector of positional accuracy (might be empty). * @return a new Transformation. */ TransformationNNPtr Transformation::createChangeVerticalUnit( const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const common::Scale &factor, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return create( properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode(EPSG_CODE_METHOD_CHANGE_VERTICAL_UNIT), VectorOfParameters{ createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_UNIT_CONVERSION_SCALAR), }, VectorOfValues{ factor, }, accuracies); } // --------------------------------------------------------------------------- static const char *getCRSQualifierStr(const crs::CRSPtr &crs) { auto geod = dynamic_cast<crs::GeodeticCRS *>(crs.get()); if (geod) { if (geod->isGeocentric()) { return " (geocentric)"; } auto geog = dynamic_cast<crs::GeographicCRS *>(geod); if (geog) { if (geog->coordinateSystem()->axisList().size() == 2) { return " (geog2D)"; } else { return " (geog3D)"; } } } return ""; } // --------------------------------------------------------------------------- static std::string buildOpName(const char *opType, const crs::CRSPtr &source, const crs::CRSPtr &target) { std::string res(opType); const auto &srcName = source->nameStr(); const auto &targetName = target->nameStr(); const char *srcQualifier = ""; const char *targetQualifier = ""; if (srcName == targetName) { srcQualifier = getCRSQualifierStr(source); targetQualifier = getCRSQualifierStr(target); if (strcmp(srcQualifier, targetQualifier) == 0) { srcQualifier = ""; targetQualifier = ""; } } res += " from "; res += srcName; res += srcQualifier; res += " to "; res += targetName; res += targetQualifier; return res; } // --------------------------------------------------------------------------- static util::PropertyMap createPropertiesForInverse(const CoordinateOperation *op, bool derivedFrom, bool approximateInversion) { assert(op); util::PropertyMap map; // The domain(s) are unchanged by the inverse operation addDomains(map, op); const std::string &forwardName = op->nameStr(); // Forge a name for the inverse, either from the forward name, or // from the source and target CRS names const char *opType; if (starts_with(forwardName, BALLPARK_GEOCENTRIC_TRANSLATION)) { opType = BALLPARK_GEOCENTRIC_TRANSLATION; } else if (starts_with(forwardName, BALLPARK_GEOGRAPHIC_OFFSET)) { opType = BALLPARK_GEOGRAPHIC_OFFSET; } else if (starts_with(forwardName, NULL_GEOGRAPHIC_OFFSET)) { opType = NULL_GEOGRAPHIC_OFFSET; } else if (dynamic_cast<const Transformation *>(op) || starts_with(forwardName, "Transformation from ")) { opType = "Transformation"; } else if (dynamic_cast<const Conversion *>(op)) { opType = "Conversion"; } else { opType = "Operation"; } auto sourceCRS = op->sourceCRS(); auto targetCRS = op->targetCRS(); std::string name; if (!forwardName.empty()) { if (starts_with(forwardName, INVERSE_OF) || forwardName.find(" + ") != std::string::npos) { auto tokens = split(forwardName, " + "); for (size_t i = tokens.size(); i > 0;) { i--; if (!name.empty()) { name += " + "; } if (starts_with(tokens[i], INVERSE_OF)) { name += tokens[i].substr(INVERSE_OF.size()); } else { name += INVERSE_OF + tokens[i]; } } } else if (!sourceCRS || !targetCRS || forwardName != buildOpName(opType, sourceCRS, targetCRS)) { name = INVERSE_OF + forwardName; } } if (name.empty() && sourceCRS && targetCRS) { name = buildOpName(opType, targetCRS, sourceCRS); } if (approximateInversion) { name += " (approx. inversion)"; } if (!name.empty()) { map.set(common::IdentifiedObject::NAME_KEY, name); } const std::string &remarks = op->remarks(); if (!remarks.empty()) { map.set(common::IdentifiedObject::REMARKS_KEY, remarks); } addModifiedIdentifier(map, op, true, derivedFrom); return map; } // --------------------------------------------------------------------------- static bool isTimeDependent(const std::string &methodName) { return ci_find(methodName, "Time dependent") != std::string::npos || ci_find(methodName, "Time-dependent") != std::string::npos; } // --------------------------------------------------------------------------- // to avoid -0... static double negate(double val) { if (val != 0) { return -val; } return 0.0; } // --------------------------------------------------------------------------- static CoordinateOperationPtr createApproximateInverseIfPossible(const Transformation *op) { bool sevenParamsTransform = false; bool fifteenParamsTransform = false; const auto &method = op->method(); const auto &methodName = method->nameStr(); const int methodEPSGCode = method->getEPSGCode(); const auto paramCount = op->parameterValues().size(); const bool isPositionVector = ci_find(methodName, "Position Vector") != std::string::npos; const bool isCoordinateFrame = ci_find(methodName, "Coordinate Frame") != std::string::npos; // See end of "2.4.3.3 Helmert 7-parameter transformations" // in EPSG 7-2 guidance // For practical purposes, the inverse of 7- or 15-parameters Helmert // can be obtained by using the forward method with all parameters // negated // (except reference epoch!) // So for WKT export use that. But for PROJ string, we use the +inv flag // so as to get "perfect" round-tripability. if ((paramCount == 7 && isCoordinateFrame && !isTimeDependent(methodName)) || methodEPSGCode == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_3D) { sevenParamsTransform = true; } else if ( (paramCount == 15 && isCoordinateFrame && isTimeDependent(methodName)) || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_COORDINATE_FRAME_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_COORDINATE_FRAME_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_COORDINATE_FRAME_GEOGRAPHIC_3D) { fifteenParamsTransform = true; } else if ((paramCount == 7 && isPositionVector && !isTimeDependent(methodName)) || methodEPSGCode == EPSG_CODE_METHOD_POSITION_VECTOR_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_3D) { sevenParamsTransform = true; } else if ( (paramCount == 15 && isPositionVector && isTimeDependent(methodName)) || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_POSITION_VECTOR_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_POSITION_VECTOR_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_POSITION_VECTOR_GEOGRAPHIC_3D) { fifteenParamsTransform = true; } if (sevenParamsTransform || fifteenParamsTransform) { double neg_x = negate(op->parameterValueNumericAsSI( EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION)); double neg_y = negate(op->parameterValueNumericAsSI( EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION)); double neg_z = negate(op->parameterValueNumericAsSI( EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION)); double neg_rx = negate( op->parameterValueNumeric(EPSG_CODE_PARAMETER_X_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND)); double neg_ry = negate( op->parameterValueNumeric(EPSG_CODE_PARAMETER_Y_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND)); double neg_rz = negate( op->parameterValueNumeric(EPSG_CODE_PARAMETER_Z_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND)); double neg_scaleDiff = negate(op->parameterValueNumeric( EPSG_CODE_PARAMETER_SCALE_DIFFERENCE, common::UnitOfMeasure::PARTS_PER_MILLION)); auto methodProperties = util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, methodName); int method_epsg_code = method->getEPSGCode(); if (method_epsg_code) { methodProperties .set(metadata::Identifier::CODESPACE_KEY, metadata::Identifier::EPSG) .set(metadata::Identifier::CODE_KEY, method_epsg_code); } if (fifteenParamsTransform) { double neg_rate_x = negate(op->parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_X_AXIS_TRANSLATION, common::UnitOfMeasure::METRE_PER_YEAR)); double neg_rate_y = negate(op->parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_Y_AXIS_TRANSLATION, common::UnitOfMeasure::METRE_PER_YEAR)); double neg_rate_z = negate(op->parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_Z_AXIS_TRANSLATION, common::UnitOfMeasure::METRE_PER_YEAR)); double neg_rate_rx = negate(op->parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_X_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND_PER_YEAR)); double neg_rate_ry = negate(op->parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_Y_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND_PER_YEAR)); double neg_rate_rz = negate(op->parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_Z_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND_PER_YEAR)); double neg_rate_scaleDiff = negate(op->parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_SCALE_DIFFERENCE, common::UnitOfMeasure::PPM_PER_YEAR)); double referenceEpochYear = op->parameterValueNumeric(EPSG_CODE_PARAMETER_REFERENCE_EPOCH, common::UnitOfMeasure::YEAR); return util::nn_static_pointer_cast<CoordinateOperation>( createFifteenParamsTransform( createPropertiesForInverse(op, false, true), methodProperties, op->targetCRS(), op->sourceCRS(), neg_x, neg_y, neg_z, neg_rx, neg_ry, neg_rz, neg_scaleDiff, neg_rate_x, neg_rate_y, neg_rate_z, neg_rate_rx, neg_rate_ry, neg_rate_rz, neg_rate_scaleDiff, referenceEpochYear, op->coordinateOperationAccuracies())) .as_nullable(); } else { return util::nn_static_pointer_cast<CoordinateOperation>( createSevenParamsTransform( createPropertiesForInverse(op, false, true), methodProperties, op->targetCRS(), op->sourceCRS(), neg_x, neg_y, neg_z, neg_rx, neg_ry, neg_rz, neg_scaleDiff, op->coordinateOperationAccuracies())) .as_nullable(); } } return nullptr; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress TransformationNNPtr Transformation::Private::registerInv(util::BaseObjectNNPtr thisIn, TransformationNNPtr invTransform) { invTransform->d->forwardOperation_ = util::nn_dynamic_pointer_cast<Transformation>(thisIn); invTransform->setHasBallparkTransformation( invTransform->d->forwardOperation_->hasBallparkTransformation()); return invTransform; } //! @endcond // --------------------------------------------------------------------------- CoordinateOperationNNPtr Transformation::inverse() const { return inverseAsTransformation(); } // --------------------------------------------------------------------------- TransformationNNPtr Transformation::inverseAsTransformation() const { if (d->forwardOperation_) { return NN_NO_CHECK(d->forwardOperation_); } const auto &l_method = method(); const auto &methodName = l_method->nameStr(); const int methodEPSGCode = l_method->getEPSGCode(); const auto &l_sourceCRS = sourceCRS(); const auto &l_targetCRS = targetCRS(); // For geocentric translation, the inverse is exactly the negation of // the parameters. if (ci_find(methodName, "Geocentric translations") != std::string::npos || methodEPSGCode == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_3D) { double x = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION); double y = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION); double z = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION); return d->registerInv( shared_from_this(), createGeocentricTranslations( createPropertiesForInverse(this, false, false), l_targetCRS, l_sourceCRS, negate(x), negate(y), negate(z), coordinateOperationAccuracies())); } if (methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY || methodEPSGCode == EPSG_CODE_METHOD_ABRIDGED_MOLODENSKY) { double x = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION); double y = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION); double z = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION); double da = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_SEMI_MAJOR_AXIS_DIFFERENCE); double df = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_FLATTENING_DIFFERENCE); if (methodEPSGCode == EPSG_CODE_METHOD_ABRIDGED_MOLODENSKY) { return d->registerInv( shared_from_this(), createAbridgedMolodensky( createPropertiesForInverse(this, false, false), l_targetCRS, l_sourceCRS, negate(x), negate(y), negate(z), negate(da), negate(df), coordinateOperationAccuracies())); } else { return d->registerInv( shared_from_this(), createMolodensky(createPropertiesForInverse(this, false, false), l_targetCRS, l_sourceCRS, negate(x), negate(y), negate(z), negate(da), negate(df), coordinateOperationAccuracies())); } } if (isLongitudeRotation()) { auto offset = parameterValueMeasure(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET); const common::Angle newOffset(negate(offset.value()), offset.unit()); return d->registerInv( shared_from_this(), createLongitudeRotation( createPropertiesForInverse(this, false, false), l_targetCRS, l_sourceCRS, newOffset)); } if (methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC2D_OFFSETS) { auto offsetLat = parameterValueMeasure(EPSG_CODE_PARAMETER_LATITUDE_OFFSET); const common::Angle newOffsetLat(negate(offsetLat.value()), offsetLat.unit()); auto offsetLong = parameterValueMeasure(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET); const common::Angle newOffsetLong(negate(offsetLong.value()), offsetLong.unit()); return d->registerInv( shared_from_this(), createGeographic2DOffsets( createPropertiesForInverse(this, false, false), l_targetCRS, l_sourceCRS, newOffsetLat, newOffsetLong, coordinateOperationAccuracies())); } if (methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC3D_OFFSETS) { auto offsetLat = parameterValueMeasure(EPSG_CODE_PARAMETER_LATITUDE_OFFSET); const common::Angle newOffsetLat(negate(offsetLat.value()), offsetLat.unit()); auto offsetLong = parameterValueMeasure(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET); const common::Angle newOffsetLong(negate(offsetLong.value()), offsetLong.unit()); auto offsetHeight = parameterValueMeasure(EPSG_CODE_PARAMETER_VERTICAL_OFFSET); const common::Length newOffsetHeight(negate(offsetHeight.value()), offsetHeight.unit()); return d->registerInv( shared_from_this(), createGeographic3DOffsets( createPropertiesForInverse(this, false, false), l_targetCRS, l_sourceCRS, newOffsetLat, newOffsetLong, newOffsetHeight, coordinateOperationAccuracies())); } if (methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC2D_WITH_HEIGHT_OFFSETS) { auto offsetLat = parameterValueMeasure(EPSG_CODE_PARAMETER_LATITUDE_OFFSET); const common::Angle newOffsetLat(negate(offsetLat.value()), offsetLat.unit()); auto offsetLong = parameterValueMeasure(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET); const common::Angle newOffsetLong(negate(offsetLong.value()), offsetLong.unit()); auto offsetHeight = parameterValueMeasure(EPSG_CODE_PARAMETER_GEOID_UNDULATION); const common::Length newOffsetHeight(negate(offsetHeight.value()), offsetHeight.unit()); return d->registerInv( shared_from_this(), createGeographic2DWithHeightOffsets( createPropertiesForInverse(this, false, false), l_targetCRS, l_sourceCRS, newOffsetLat, newOffsetLong, newOffsetHeight, coordinateOperationAccuracies())); } if (methodEPSGCode == EPSG_CODE_METHOD_VERTICAL_OFFSET) { auto offsetHeight = parameterValueMeasure(EPSG_CODE_PARAMETER_VERTICAL_OFFSET); const common::Length newOffsetHeight(negate(offsetHeight.value()), offsetHeight.unit()); return d->registerInv( shared_from_this(), createVerticalOffset(createPropertiesForInverse(this, false, false), l_targetCRS, l_sourceCRS, newOffsetHeight, coordinateOperationAccuracies())); } if (methodEPSGCode == EPSG_CODE_METHOD_CHANGE_VERTICAL_UNIT) { const double convFactor = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_UNIT_CONVERSION_SCALAR); return d->registerInv( shared_from_this(), createChangeVerticalUnit( createPropertiesForInverse(this, false, false), l_targetCRS, l_sourceCRS, common::Scale(1.0 / convFactor), coordinateOperationAccuracies())); } return InverseTransformation::create(NN_NO_CHECK( util::nn_dynamic_pointer_cast<Transformation>(shared_from_this()))); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress // --------------------------------------------------------------------------- InverseTransformation::InverseTransformation(const TransformationNNPtr &forward) : Transformation( forward->targetCRS(), forward->sourceCRS(), forward->interpolationCRS(), OperationMethod::create(createPropertiesForInverse(forward->method()), forward->method()->parameters()), forward->parameterValues(), forward->coordinateOperationAccuracies()), InverseCoordinateOperation(forward, true) { setPropertiesFromForward(); } // --------------------------------------------------------------------------- InverseTransformation::~InverseTransformation() = default; // --------------------------------------------------------------------------- TransformationNNPtr InverseTransformation::create(const TransformationNNPtr &forward) { auto conv = util::nn_make_shared<InverseTransformation>(forward); conv->assignSelf(conv); return conv; } // --------------------------------------------------------------------------- TransformationNNPtr InverseTransformation::inverseAsTransformation() const { return NN_NO_CHECK( util::nn_dynamic_pointer_cast<Transformation>(forwardOperation_)); } // --------------------------------------------------------------------------- void InverseTransformation::_exportToWKT(io::WKTFormatter *formatter) const { auto approxInverse = createApproximateInverseIfPossible( util::nn_dynamic_pointer_cast<Transformation>(forwardOperation_).get()); if (approxInverse) { approxInverse->_exportToWKT(formatter); } else { Transformation::_exportToWKT(formatter); } } // --------------------------------------------------------------------------- CoordinateOperationNNPtr InverseTransformation::_shallowClone() const { auto op = InverseTransformation::nn_make_shared<InverseTransformation>( inverseAsTransformation()->shallowClone()); op->assignSelf(op); op->setCRSs(this, false); return util::nn_static_pointer_cast<CoordinateOperation>(op); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void Transformation::_exportToWKT(io::WKTFormatter *formatter) const { exportTransformationToWKT(formatter); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void Transformation::_exportToJSON( io::JSONFormatter *formatter) const // throw(FormattingException) { auto &writer = formatter->writer(); auto objectContext(formatter->MakeObjectContext( formatter->abridgedTransformation() ? "AbridgedTransformation" : "Transformation", !identifiers().empty())); writer.AddObjKey("name"); auto l_name = nameStr(); if (l_name.empty()) { writer.Add("unnamed"); } else { writer.Add(l_name); } if (!formatter->abridgedTransformation()) { writer.AddObjKey("source_crs"); formatter->setAllowIDInImmediateChild(); sourceCRS()->_exportToJSON(formatter); writer.AddObjKey("target_crs"); formatter->setAllowIDInImmediateChild(); targetCRS()->_exportToJSON(formatter); const auto &l_interpolationCRS = interpolationCRS(); if (l_interpolationCRS) { writer.AddObjKey("interpolation_crs"); formatter->setAllowIDInImmediateChild(); l_interpolationCRS->_exportToJSON(formatter); } } writer.AddObjKey("method"); formatter->setOmitTypeInImmediateChild(); formatter->setAllowIDInImmediateChild(); method()->_exportToJSON(formatter); writer.AddObjKey("parameters"); { auto parametersContext(writer.MakeArrayContext(false)); for (const auto &genOpParamvalue : parameterValues()) { formatter->setAllowIDInImmediateChild(); formatter->setOmitTypeInImmediateChild(); genOpParamvalue->_exportToJSON(formatter); } } if (!formatter->abridgedTransformation()) { if (!coordinateOperationAccuracies().empty()) { writer.AddObjKey("accuracy"); writer.Add(coordinateOperationAccuracies()[0]->value()); } } if (formatter->abridgedTransformation()) { if (formatter->outputId()) { formatID(formatter); } } else { ObjectUsage::baseExportToJSON(formatter); } } //! @endcond // --------------------------------------------------------------------------- static void exportSourceCRSAndTargetCRSToWKT(const CoordinateOperation *co, io::WKTFormatter *formatter) { auto l_sourceCRS = co->sourceCRS(); assert(l_sourceCRS); auto l_targetCRS = co->targetCRS(); assert(l_targetCRS); const bool isWKT2 = formatter->version() == io::WKTFormatter::Version::WKT2; const bool canExportCRSId = (isWKT2 && formatter->use2018Keywords() && !(formatter->idOnTopLevelOnly() && formatter->topLevelHasId())); const bool hasDomains = !co->domains().empty(); if (hasDomains) { formatter->pushDisableUsage(); } formatter->startNode(io::WKTConstants::SOURCECRS, false); if (canExportCRSId && !l_sourceCRS->identifiers().empty()) { // fake that top node has no id, so that the sourceCRS id is // considered formatter->pushHasId(false); l_sourceCRS->_exportToWKT(formatter); formatter->popHasId(); } else { l_sourceCRS->_exportToWKT(formatter); } formatter->endNode(); formatter->startNode(io::WKTConstants::TARGETCRS, false); if (canExportCRSId && !l_targetCRS->identifiers().empty()) { // fake that top node has no id, so that the targetCRS id is // considered formatter->pushHasId(false); l_targetCRS->_exportToWKT(formatter); formatter->popHasId(); } else { l_targetCRS->_exportToWKT(formatter); } formatter->endNode(); if (hasDomains) { formatter->popDisableUsage(); } } // --------------------------------------------------------------------------- void SingleOperation::exportTransformationToWKT( io::WKTFormatter *formatter) const { const bool isWKT2 = formatter->version() == io::WKTFormatter::Version::WKT2; if (!isWKT2) { throw io::FormattingException( "Transformation can only be exported to WKT2"); } if (formatter->abridgedTransformation()) { formatter->startNode(io::WKTConstants::ABRIDGEDTRANSFORMATION, !identifiers().empty()); } else { formatter->startNode(io::WKTConstants::COORDINATEOPERATION, !identifiers().empty()); } formatter->addQuotedString(nameStr()); if (formatter->use2018Keywords()) { const auto &version = operationVersion(); if (version.has_value()) { formatter->startNode(io::WKTConstants::VERSION, false); formatter->addQuotedString(*version); formatter->endNode(); } } if (!formatter->abridgedTransformation()) { exportSourceCRSAndTargetCRSToWKT(this, formatter); } method()->_exportToWKT(formatter); for (const auto &paramValue : parameterValues()) { paramValue->_exportToWKT(formatter, nullptr); } if (!formatter->abridgedTransformation()) { if (interpolationCRS()) { formatter->startNode(io::WKTConstants::INTERPOLATIONCRS, false); interpolationCRS()->_exportToWKT(formatter); formatter->endNode(); } if (!coordinateOperationAccuracies().empty()) { formatter->startNode(io::WKTConstants::OPERATIONACCURACY, false); formatter->add(coordinateOperationAccuracies()[0]->value()); formatter->endNode(); } } ObjectUsage::baseExportToWKT(formatter); formatter->endNode(); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static const std::string nullString; static const std::string &_getNTv2Filename(const Transformation *op, bool allowInverse) { const auto &l_method = op->method(); if (l_method->getEPSGCode() == EPSG_CODE_METHOD_NTV2 || (allowInverse && ci_equal(l_method->nameStr(), INVERSE_OF + EPSG_NAME_METHOD_NTV2))) { const auto &fileParameter = op->parameterValue( EPSG_NAME_PARAMETER_LATITUDE_LONGITUDE_DIFFERENCE_FILE, EPSG_CODE_PARAMETER_LATITUDE_LONGITUDE_DIFFERENCE_FILE); if (fileParameter && fileParameter->type() == ParameterValue::Type::FILENAME) { return fileParameter->valueFile(); } } return nullString; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress const std::string &Transformation::getNTv2Filename() const { return _getNTv2Filename(this, false); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static const std::string &_getNTv1Filename(const Transformation *op, bool allowInverse) { const auto &l_method = op->method(); const auto &methodName = l_method->nameStr(); if (l_method->getEPSGCode() == EPSG_CODE_METHOD_NTV1 || (allowInverse && ci_equal(methodName, INVERSE_OF + EPSG_NAME_METHOD_NTV1))) { const auto &fileParameter = op->parameterValue( EPSG_NAME_PARAMETER_LATITUDE_LONGITUDE_DIFFERENCE_FILE, EPSG_CODE_PARAMETER_LATITUDE_LONGITUDE_DIFFERENCE_FILE); if (fileParameter && fileParameter->type() == ParameterValue::Type::FILENAME) { return fileParameter->valueFile(); } } return nullString; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static const std::string &_getCTABLE2Filename(const Transformation *op, bool allowInverse) { const auto &l_method = op->method(); const auto &methodName = l_method->nameStr(); if (ci_equal(methodName, PROJ_WKT2_NAME_METHOD_CTABLE2) || (allowInverse && ci_equal(methodName, INVERSE_OF + PROJ_WKT2_NAME_METHOD_CTABLE2))) { const auto &fileParameter = op->parameterValue( EPSG_NAME_PARAMETER_LATITUDE_LONGITUDE_DIFFERENCE_FILE, EPSG_CODE_PARAMETER_LATITUDE_LONGITUDE_DIFFERENCE_FILE); if (fileParameter && fileParameter->type() == ParameterValue::Type::FILENAME) { return fileParameter->valueFile(); } } return nullString; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static const std::string & _getHeightToGeographic3DFilename(const Transformation *op, bool allowInverse) { const auto &methodName = op->method()->nameStr(); if (ci_equal(methodName, PROJ_WKT2_NAME_METHOD_HEIGHT_TO_GEOG3D) || (allowInverse && ci_equal(methodName, INVERSE_OF + PROJ_WKT2_NAME_METHOD_HEIGHT_TO_GEOG3D))) { const auto &fileParameter = op->parameterValue(EPSG_NAME_PARAMETER_GEOID_CORRECTION_FILENAME, EPSG_CODE_PARAMETER_GEOID_CORRECTION_FILENAME); if (fileParameter && fileParameter->type() == ParameterValue::Type::FILENAME) { return fileParameter->valueFile(); } } return nullString; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress const std::string &Transformation::getHeightToGeographic3DFilename() const { return _getHeightToGeographic3DFilename(this, false); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static bool isGeographic3DToGravityRelatedHeight(const OperationMethodNNPtr &method, bool allowInverse) { const auto &methodName = method->nameStr(); static const char *const methodCodes[] = { "1025", // Geographic3D to GravityRelatedHeight (EGM2008) "1030", // Geographic3D to GravityRelatedHeight (NZgeoid) "1045", // Geographic3D to GravityRelatedHeight (OSGM02-Ire) "1047", // Geographic3D to GravityRelatedHeight (Gravsoft) "1048", // Geographic3D to GravityRelatedHeight (Ausgeoid v2) "1050", // Geographic3D to GravityRelatedHeight (CI) "1059", // Geographic3D to GravityRelatedHeight (PNG) "1060", // Geographic3D to GravityRelatedHeight (CGG2013) "1072", // Geographic3D to GravityRelatedHeight (OSGM15-Ire) "1073", // Geographic3D to GravityRelatedHeight (IGN2009) "9661", // Geographic3D to GravityRelatedHeight (EGM) "9662", // Geographic3D to GravityRelatedHeight (Ausgeoid98) "9663", // Geographic3D to GravityRelatedHeight (OSGM-GB) "9664", // Geographic3D to GravityRelatedHeight (IGN1997) "9665", // Geographic3D to GravityRelatedHeight (US .gtx) }; if (ci_find(methodName, "Geographic3D to GravityRelatedHeight") == 0) { return true; } if (allowInverse && ci_find(methodName, INVERSE_OF + "Geographic3D to GravityRelatedHeight") == 0) { return true; } for (const auto &code : methodCodes) { for (const auto &idSrc : method->identifiers()) { const auto &srcAuthName = *(idSrc->codeSpace()); const auto &srcCode = idSrc->code(); if (ci_equal(srcAuthName, "EPSG") && srcCode == code) { return true; } if (allowInverse && ci_equal(srcAuthName, "INVERSE(EPSG)") && srcCode == code) { return true; } } } return false; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static util::PropertyMap createSimilarPropertiesMethod(common::IdentifiedObjectNNPtr obj) { util::PropertyMap map; const std::string &forwardName = obj->nameStr(); if (!forwardName.empty()) { map.set(common::IdentifiedObject::NAME_KEY, forwardName); } { auto ar = util::ArrayOfBaseObject::create(); for (const auto &idSrc : obj->identifiers()) { const auto &srcAuthName = *(idSrc->codeSpace()); const auto &srcCode = idSrc->code(); auto idsProp = util::PropertyMap().set( metadata::Identifier::CODESPACE_KEY, srcAuthName); ar->add(metadata::Identifier::create(srcCode, idsProp)); } if (!ar->empty()) { map.set(common::IdentifiedObject::IDENTIFIERS_KEY, ar); } } return map; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static util::PropertyMap createSimilarPropertiesTransformation(TransformationNNPtr obj) { util::PropertyMap map; // The domain(s) are unchanged addDomains(map, obj.get()); std::string forwardName = obj->nameStr(); if (!forwardName.empty()) { map.set(common::IdentifiedObject::NAME_KEY, forwardName); } addModifiedIdentifier(map, obj.get(), false, true); return map; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static TransformationNNPtr createNTv1(const util::PropertyMap &properties, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const std::string &filename, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { return Transformation::create( properties, sourceCRSIn, targetCRSIn, nullptr, createMethodMapNameEPSGCode(EPSG_CODE_METHOD_NTV1), {OperationParameter::create( util::PropertyMap() .set(common::IdentifiedObject::NAME_KEY, EPSG_NAME_PARAMETER_LATITUDE_LONGITUDE_DIFFERENCE_FILE) .set(metadata::Identifier::CODESPACE_KEY, metadata::Identifier::EPSG) .set(metadata::Identifier::CODE_KEY, EPSG_CODE_PARAMETER_LATITUDE_LONGITUDE_DIFFERENCE_FILE))}, {ParameterValue::createFilename(filename)}, accuracies); } //! @endcond // --------------------------------------------------------------------------- /** \brief Return an equivalent transformation to the current one, but using * PROJ alternative grid names. */ TransformationNNPtr Transformation::substitutePROJAlternativeGridNames( io::DatabaseContextNNPtr databaseContext) const { auto self = NN_NO_CHECK(std::dynamic_pointer_cast<Transformation>( shared_from_this().as_nullable())); const auto &l_method = method(); const int methodEPSGCode = l_method->getEPSGCode(); std::string projFilename; std::string projGridFormat; bool inverseDirection = false; const auto &NTv1Filename = _getNTv1Filename(this, false); const auto &NTv2Filename = _getNTv2Filename(this, false); std::string lasFilename; if (methodEPSGCode == EPSG_CODE_METHOD_NADCON) { const auto &latitudeFileParameter = parameterValue(EPSG_NAME_PARAMETER_LATITUDE_DIFFERENCE_FILE, EPSG_CODE_PARAMETER_LATITUDE_DIFFERENCE_FILE); const auto &longitudeFileParameter = parameterValue(EPSG_NAME_PARAMETER_LONGITUDE_DIFFERENCE_FILE, EPSG_CODE_PARAMETER_LONGITUDE_DIFFERENCE_FILE); if (latitudeFileParameter && latitudeFileParameter->type() == ParameterValue::Type::FILENAME && longitudeFileParameter && longitudeFileParameter->type() == ParameterValue::Type::FILENAME) { lasFilename = latitudeFileParameter->valueFile(); } } const auto &horizontalGridName = !NTv1Filename.empty() ? NTv1Filename : !NTv2Filename.empty() ? NTv2Filename : lasFilename; if (!horizontalGridName.empty() && databaseContext->lookForGridAlternative(horizontalGridName, projFilename, projGridFormat, inverseDirection)) { if (horizontalGridName == projFilename) { assert(!inverseDirection); return self; } const auto &l_sourceCRS = sourceCRS(); const auto &l_targetCRS = targetCRS(); const auto &l_accuracies = coordinateOperationAccuracies(); if (projGridFormat == "NTv1") { if (inverseDirection) { return createNTv1(createPropertiesForInverse( self.as_nullable().get(), true, false), l_targetCRS, l_sourceCRS, projFilename, l_accuracies) ->inverseAsTransformation(); } else { return createNTv1(createSimilarPropertiesTransformation(self), l_sourceCRS, l_targetCRS, projFilename, l_accuracies); } } else if (projGridFormat == "NTv2") { if (inverseDirection) { return createNTv2(createPropertiesForInverse( self.as_nullable().get(), true, false), l_targetCRS, l_sourceCRS, projFilename, l_accuracies) ->inverseAsTransformation(); } else { return createNTv2(createSimilarPropertiesTransformation(self), l_sourceCRS, l_targetCRS, projFilename, l_accuracies); } } else if (projGridFormat == "CTable2") { auto parameters = std::vector<OperationParameterNNPtr>{createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_LATITUDE_LONGITUDE_DIFFERENCE_FILE)}; auto methodProperties = util::PropertyMap().set(common::IdentifiedObject::NAME_KEY, PROJ_WKT2_NAME_METHOD_CTABLE2); auto values = std::vector<ParameterValueNNPtr>{ ParameterValue::createFilename(projFilename)}; if (inverseDirection) { return create(createPropertiesForInverse( self.as_nullable().get(), true, false), l_targetCRS, l_sourceCRS, nullptr, methodProperties, parameters, values, l_accuracies) ->inverseAsTransformation(); } else { return create(createSimilarPropertiesTransformation(self), l_sourceCRS, l_targetCRS, nullptr, methodProperties, parameters, values, l_accuracies); } } } const auto &heightFilename = getHeightToGeographic3DFilename(); if (!heightFilename.empty() && !projFilename.empty()) { if (databaseContext->lookForGridAlternative( heightFilename, projFilename, projGridFormat, inverseDirection)) { if (heightFilename == projFilename) { assert(!inverseDirection); return self; } if (inverseDirection) { return createGravityRelatedHeightToGeographic3D( createPropertiesForInverse(self.as_nullable().get(), true, false), targetCRS(), sourceCRS(), interpolationCRS(), projFilename, coordinateOperationAccuracies()) ->inverseAsTransformation(); } else { return createGravityRelatedHeightToGeographic3D( createSimilarPropertiesTransformation(self), sourceCRS(), targetCRS(), interpolationCRS(), projFilename, coordinateOperationAccuracies()); } } } if (isGeographic3DToGravityRelatedHeight(method(), false)) { const auto &fileParameter = parameterValue(EPSG_NAME_PARAMETER_GEOID_CORRECTION_FILENAME, EPSG_CODE_PARAMETER_GEOID_CORRECTION_FILENAME); if (fileParameter && fileParameter->type() == ParameterValue::Type::FILENAME) { auto filename = fileParameter->valueFile(); if (databaseContext->lookForGridAlternative( filename, projFilename, projGridFormat, inverseDirection)) { if (filename == projFilename) { assert(!inverseDirection); return self; } auto parameters = std::vector<OperationParameterNNPtr>{ createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_GEOID_CORRECTION_FILENAME)}; if (inverseDirection) { return create(createPropertiesForInverse( self.as_nullable().get(), true, false), targetCRS(), sourceCRS(), nullptr, createSimilarPropertiesMethod(method()), parameters, {ParameterValue::createFilename( projFilename)}, coordinateOperationAccuracies()) ->inverseAsTransformation(); } else { return create( createSimilarPropertiesTransformation(self), sourceCRS(), targetCRS(), nullptr, createSimilarPropertiesMethod(method()), parameters, {ParameterValue::createFilename(projFilename)}, coordinateOperationAccuracies()); } } } } if (methodEPSGCode == EPSG_CODE_METHOD_VERTCON) { auto fileParameter = parameterValue(EPSG_NAME_PARAMETER_VERTICAL_OFFSET_FILE, EPSG_CODE_PARAMETER_VERTICAL_OFFSET_FILE); if (fileParameter && fileParameter->type() == ParameterValue::Type::FILENAME) { auto filename = fileParameter->valueFile(); if (databaseContext->lookForGridAlternative( filename, projFilename, projGridFormat, inverseDirection)) { if (filename == projFilename) { assert(!inverseDirection); return self; } auto parameters = std::vector<OperationParameterNNPtr>{ createOpParamNameEPSGCode( EPSG_CODE_PARAMETER_VERTICAL_OFFSET_FILE)}; if (inverseDirection) { return create(createPropertiesForInverse( self.as_nullable().get(), true, false), targetCRS(), sourceCRS(), nullptr, createSimilarPropertiesMethod(method()), parameters, {ParameterValue::createFilename( projFilename)}, coordinateOperationAccuracies()) ->inverseAsTransformation(); } else { return create( createSimilarPropertiesTransformation(self), sourceCRS(), targetCRS(), nullptr, createSimilarPropertiesMethod(method()), parameters, {ParameterValue::createFilename(projFilename)}, coordinateOperationAccuracies()); } } } } return self; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static void ThrowExceptionNotGeodeticGeographic(const char *trfrm_name) { throw io::FormattingException(concat("Can apply ", std::string(trfrm_name), " only to GeodeticCRS / " "GeographicCRS")); } // --------------------------------------------------------------------------- static void setupPROJGeodeticSourceCRS(io::PROJStringFormatter *formatter, const crs::CRSNNPtr &crs, bool addPushV3, const char *trfrm_name) { auto sourceCRSGeog = dynamic_cast<const crs::GeographicCRS *>(crs.get()); if (sourceCRSGeog) { formatter->startInversion(); sourceCRSGeog->_exportToPROJString(formatter); formatter->stopInversion(); if (addPushV3) { formatter->addStep("push"); formatter->addParam("v_3"); } formatter->addStep("cart"); sourceCRSGeog->ellipsoid()->_exportToPROJString(formatter); } else { auto sourceCRSGeod = dynamic_cast<const crs::GeodeticCRS *>(crs.get()); if (!sourceCRSGeod) { ThrowExceptionNotGeodeticGeographic(trfrm_name); } formatter->startInversion(); sourceCRSGeod->addGeocentricUnitConversionIntoPROJString(formatter); formatter->stopInversion(); } } // --------------------------------------------------------------------------- static void setupPROJGeodeticTargetCRS(io::PROJStringFormatter *formatter, const crs::CRSNNPtr &crs, bool addPopV3, const char *trfrm_name) { auto targetCRSGeog = dynamic_cast<const crs::GeographicCRS *>(crs.get()); if (targetCRSGeog) { formatter->addStep("cart"); formatter->setCurrentStepInverted(true); targetCRSGeog->ellipsoid()->_exportToPROJString(formatter); if (addPopV3) { formatter->addStep("pop"); formatter->addParam("v_3"); } targetCRSGeog->_exportToPROJString(formatter); } else { auto targetCRSGeod = dynamic_cast<const crs::GeodeticCRS *>(crs.get()); if (!targetCRSGeod) { ThrowExceptionNotGeodeticGeographic(trfrm_name); } targetCRSGeod->addGeocentricUnitConversionIntoPROJString(formatter); } } //! @endcond // --------------------------------------------------------------------------- void Transformation::_exportToPROJString( io::PROJStringFormatter *formatter) const // throw(FormattingException) { if (formatter->convention() == io::PROJStringFormatter::Convention::PROJ_4) { throw io::FormattingException( "Transformation cannot be exported as a PROJ.4 string"); } formatter->setCoordinateOperationOptimizations(true); bool positionVectorConvention = true; bool sevenParamsTransform = false; bool threeParamsTransform = false; bool fifteenParamsTransform = false; const auto &l_method = method(); const int methodEPSGCode = l_method->getEPSGCode(); const auto &methodName = l_method->nameStr(); const auto paramCount = parameterValues().size(); const bool l_isTimeDependent = isTimeDependent(methodName); const bool isPositionVector = ci_find(methodName, "Position Vector") != std::string::npos || ci_find(methodName, "PV") != std::string::npos; const bool isCoordinateFrame = ci_find(methodName, "Coordinate Frame") != std::string::npos || ci_find(methodName, "CF") != std::string::npos; if ((paramCount == 7 && isCoordinateFrame && !l_isTimeDependent) || methodEPSGCode == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_3D) { positionVectorConvention = false; sevenParamsTransform = true; } else if ( (paramCount == 15 && isCoordinateFrame && l_isTimeDependent) || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_COORDINATE_FRAME_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_COORDINATE_FRAME_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_COORDINATE_FRAME_GEOGRAPHIC_3D) { positionVectorConvention = false; fifteenParamsTransform = true; } else if ((paramCount == 7 && isPositionVector && !l_isTimeDependent) || methodEPSGCode == EPSG_CODE_METHOD_POSITION_VECTOR_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_3D) { sevenParamsTransform = true; } else if ( (paramCount == 15 && isPositionVector && l_isTimeDependent) || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_POSITION_VECTOR_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_POSITION_VECTOR_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_POSITION_VECTOR_GEOGRAPHIC_3D) { fifteenParamsTransform = true; } else if ((paramCount == 3 && ci_find(methodName, "Geocentric translations") != std::string::npos) || methodEPSGCode == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_3D) { threeParamsTransform = true; } if (threeParamsTransform || sevenParamsTransform || fifteenParamsTransform) { double x = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION); double y = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION); double z = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION); bool addPushPopV3 = (methodEPSGCode == EPSG_CODE_METHOD_COORDINATE_FRAME_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_COORDINATE_FRAME_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_POSITION_VECTOR_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_TIME_DEPENDENT_POSITION_VECTOR_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_GEOCENTRIC_TRANSLATION_GEOGRAPHIC_2D); setupPROJGeodeticSourceCRS(formatter, sourceCRS(), addPushPopV3, "Helmert"); formatter->addStep("helmert"); formatter->addParam("x", x); formatter->addParam("y", y); formatter->addParam("z", z); if (sevenParamsTransform || fifteenParamsTransform) { double rx = parameterValueNumeric(EPSG_CODE_PARAMETER_X_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND); double ry = parameterValueNumeric(EPSG_CODE_PARAMETER_Y_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND); double rz = parameterValueNumeric(EPSG_CODE_PARAMETER_Z_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND); double scaleDiff = parameterValueNumeric(EPSG_CODE_PARAMETER_SCALE_DIFFERENCE, common::UnitOfMeasure::PARTS_PER_MILLION); formatter->addParam("rx", rx); formatter->addParam("ry", ry); formatter->addParam("rz", rz); formatter->addParam("s", scaleDiff); if (fifteenParamsTransform) { double rate_x = parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_X_AXIS_TRANSLATION, common::UnitOfMeasure::METRE_PER_YEAR); double rate_y = parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_Y_AXIS_TRANSLATION, common::UnitOfMeasure::METRE_PER_YEAR); double rate_z = parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_Z_AXIS_TRANSLATION, common::UnitOfMeasure::METRE_PER_YEAR); double rate_rx = parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_X_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND_PER_YEAR); double rate_ry = parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_Y_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND_PER_YEAR); double rate_rz = parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_Z_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND_PER_YEAR); double rate_scaleDiff = parameterValueNumeric( EPSG_CODE_PARAMETER_RATE_SCALE_DIFFERENCE, common::UnitOfMeasure::PPM_PER_YEAR); double referenceEpochYear = parameterValueNumeric(EPSG_CODE_PARAMETER_REFERENCE_EPOCH, common::UnitOfMeasure::YEAR); formatter->addParam("dx", rate_x); formatter->addParam("dy", rate_y); formatter->addParam("dz", rate_z); formatter->addParam("drx", rate_rx); formatter->addParam("dry", rate_ry); formatter->addParam("drz", rate_rz); formatter->addParam("ds", rate_scaleDiff); formatter->addParam("t_epoch", referenceEpochYear); } if (positionVectorConvention) { formatter->addParam("convention", "position_vector"); } else { formatter->addParam("convention", "coordinate_frame"); } } setupPROJGeodeticTargetCRS(formatter, targetCRS(), addPushPopV3, "Helmert"); return; } if (methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_CF_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_PV_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_CF_GEOGRAPHIC_3D || methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_PV_GEOGRAPHIC_3D || methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_CF_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_PV_GEOGRAPHIC_2D) { positionVectorConvention = isPositionVector || methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_PV_GEOCENTRIC || methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_PV_GEOGRAPHIC_3D || methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_PV_GEOGRAPHIC_2D; double x = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION); double y = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION); double z = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION); double rx = parameterValueNumeric(EPSG_CODE_PARAMETER_X_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND); double ry = parameterValueNumeric(EPSG_CODE_PARAMETER_Y_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND); double rz = parameterValueNumeric(EPSG_CODE_PARAMETER_Z_AXIS_ROTATION, common::UnitOfMeasure::ARC_SECOND); double scaleDiff = parameterValueNumeric(EPSG_CODE_PARAMETER_SCALE_DIFFERENCE, common::UnitOfMeasure::PARTS_PER_MILLION); double px = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_ORDINATE_1_EVAL_POINT); double py = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_ORDINATE_2_EVAL_POINT); double pz = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_ORDINATE_3_EVAL_POINT); bool addPushPopV3 = (methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_PV_GEOGRAPHIC_2D || methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY_BADEKAS_CF_GEOGRAPHIC_2D); setupPROJGeodeticSourceCRS(formatter, sourceCRS(), addPushPopV3, "Molodensky-Badekas"); formatter->addStep("molobadekas"); formatter->addParam("x", x); formatter->addParam("y", y); formatter->addParam("z", z); formatter->addParam("rx", rx); formatter->addParam("ry", ry); formatter->addParam("rz", rz); formatter->addParam("s", scaleDiff); formatter->addParam("px", px); formatter->addParam("py", py); formatter->addParam("pz", pz); if (positionVectorConvention) { formatter->addParam("convention", "position_vector"); } else { formatter->addParam("convention", "coordinate_frame"); } setupPROJGeodeticTargetCRS(formatter, targetCRS(), addPushPopV3, "Molodensky-Badekas"); return; } if (methodEPSGCode == EPSG_CODE_METHOD_MOLODENSKY || methodEPSGCode == EPSG_CODE_METHOD_ABRIDGED_MOLODENSKY) { double x = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_X_AXIS_TRANSLATION); double y = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_Y_AXIS_TRANSLATION); double z = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_Z_AXIS_TRANSLATION); double da = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_SEMI_MAJOR_AXIS_DIFFERENCE); double df = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_FLATTENING_DIFFERENCE); auto sourceCRSGeog = dynamic_cast<const crs::GeographicCRS *>(sourceCRS().get()); if (!sourceCRSGeog) { throw io::FormattingException( "Can apply Molodensky only to GeographicCRS"); } auto targetCRSGeog = dynamic_cast<const crs::GeographicCRS *>(targetCRS().get()); if (!targetCRSGeog) { throw io::FormattingException( "Can apply Molodensky only to GeographicCRS"); } formatter->startInversion(); sourceCRSGeog->_exportToPROJString(formatter); formatter->stopInversion(); formatter->addStep("molodensky"); sourceCRSGeog->ellipsoid()->_exportToPROJString(formatter); formatter->addParam("dx", x); formatter->addParam("dy", y); formatter->addParam("dz", z); formatter->addParam("da", da); formatter->addParam("df", df); if (ci_find(methodName, "Abridged") != std::string::npos || methodEPSGCode == EPSG_CODE_METHOD_ABRIDGED_MOLODENSKY) { formatter->addParam("abridged"); } targetCRSGeog->_exportToPROJString(formatter); return; } if (methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC2D_OFFSETS) { double offsetLat = parameterValueNumeric(EPSG_CODE_PARAMETER_LATITUDE_OFFSET, common::UnitOfMeasure::ARC_SECOND); double offsetLong = parameterValueNumeric(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET, common::UnitOfMeasure::ARC_SECOND); auto sourceCRSGeog = dynamic_cast<const crs::GeographicCRS *>(sourceCRS().get()); if (!sourceCRSGeog) { throw io::FormattingException( "Can apply Geographic 2D offsets only to GeographicCRS"); } auto targetCRSGeog = dynamic_cast<const crs::GeographicCRS *>(targetCRS().get()); if (!targetCRSGeog) { throw io::FormattingException( "Can apply Geographic 2D offsets only to GeographicCRS"); } formatter->startInversion(); sourceCRSGeog->addAngularUnitConvertAndAxisSwap(formatter); formatter->stopInversion(); if (offsetLat != 0.0 || offsetLong != 0.0) { formatter->addStep("geogoffset"); formatter->addParam("dlat", offsetLat); formatter->addParam("dlon", offsetLong); } targetCRSGeog->addAngularUnitConvertAndAxisSwap(formatter); return; } if (methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC3D_OFFSETS) { double offsetLat = parameterValueNumeric(EPSG_CODE_PARAMETER_LATITUDE_OFFSET, common::UnitOfMeasure::ARC_SECOND); double offsetLong = parameterValueNumeric(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET, common::UnitOfMeasure::ARC_SECOND); double offsetHeight = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_VERTICAL_OFFSET); auto sourceCRSGeog = dynamic_cast<const crs::GeographicCRS *>(sourceCRS().get()); if (!sourceCRSGeog) { throw io::FormattingException( "Can apply Geographic 3D offsets only to GeographicCRS"); } auto targetCRSGeog = dynamic_cast<const crs::GeographicCRS *>(targetCRS().get()); if (!targetCRSGeog) { throw io::FormattingException( "Can apply Geographic 3D offsets only to GeographicCRS"); } formatter->startInversion(); sourceCRSGeog->addAngularUnitConvertAndAxisSwap(formatter); formatter->stopInversion(); if (offsetLat != 0.0 || offsetLong != 0.0 || offsetHeight != 0.0) { formatter->addStep("geogoffset"); formatter->addParam("dlat", offsetLat); formatter->addParam("dlon", offsetLong); formatter->addParam("dh", offsetHeight); } targetCRSGeog->addAngularUnitConvertAndAxisSwap(formatter); return; } if (methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC2D_WITH_HEIGHT_OFFSETS) { double offsetLat = parameterValueNumeric(EPSG_CODE_PARAMETER_LATITUDE_OFFSET, common::UnitOfMeasure::ARC_SECOND); double offsetLong = parameterValueNumeric(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET, common::UnitOfMeasure::ARC_SECOND); double offsetHeight = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_GEOID_UNDULATION); auto sourceCRSGeog = dynamic_cast<const crs::GeographicCRS *>(sourceCRS().get()); if (!sourceCRSGeog) { auto sourceCRSCompound = dynamic_cast<const crs::CompoundCRS *>(sourceCRS().get()); if (sourceCRSCompound) { sourceCRSGeog = sourceCRSCompound->extractGeographicCRS().get(); } if (!sourceCRSGeog) { throw io::FormattingException("Can apply Geographic 2D with " "height offsets only to " "GeographicCRS / CompoundCRS"); } } auto targetCRSGeog = dynamic_cast<const crs::GeographicCRS *>(targetCRS().get()); if (!targetCRSGeog) { auto targetCRSCompound = dynamic_cast<const crs::CompoundCRS *>(targetCRS().get()); if (targetCRSCompound) { targetCRSGeog = targetCRSCompound->extractGeographicCRS().get(); } if (!targetCRSGeog) { throw io::FormattingException("Can apply Geographic 2D with " "height offsets only to " "GeographicCRS / CompoundCRS"); } } formatter->startInversion(); sourceCRSGeog->addAngularUnitConvertAndAxisSwap(formatter); formatter->stopInversion(); if (offsetLat != 0.0 || offsetLong != 0.0 || offsetHeight != 0.0) { formatter->addStep("geogoffset"); formatter->addParam("dlat", offsetLat); formatter->addParam("dlon", offsetLong); formatter->addParam("dh", offsetHeight); } targetCRSGeog->addAngularUnitConvertAndAxisSwap(formatter); return; } if (methodEPSGCode == EPSG_CODE_METHOD_VERTICAL_OFFSET) { auto sourceCRSVert = dynamic_cast<const crs::VerticalCRS *>(sourceCRS().get()); if (!sourceCRSVert) { throw io::FormattingException( "Can apply Vertical offset only to VerticalCRS"); } auto targetCRSVert = dynamic_cast<const crs::VerticalCRS *>(targetCRS().get()); if (!targetCRSVert) { throw io::FormattingException( "Can apply Vertical offset only to VerticalCRS"); } auto offsetHeight = parameterValueNumericAsSI(EPSG_CODE_PARAMETER_VERTICAL_OFFSET); formatter->startInversion(); sourceCRSVert->addLinearUnitConvert(formatter); formatter->stopInversion(); formatter->addStep("geogoffset"); formatter->addParam("dh", offsetHeight); targetCRSVert->addLinearUnitConvert(formatter); return; } // Substitute grid names with PROJ friendly names. if (formatter->databaseContext()) { auto alternate = substitutePROJAlternativeGridNames( NN_NO_CHECK(formatter->databaseContext())); auto self = NN_NO_CHECK(std::dynamic_pointer_cast<Transformation>( shared_from_this().as_nullable())); if (alternate != self) { alternate->_exportToPROJString(formatter); return; } } const bool isMethodInverseOf = starts_with(methodName, INVERSE_OF); const auto &NTv1Filename = _getNTv1Filename(this, true); const auto &NTv2Filename = _getNTv2Filename(this, true); const auto &CTABLE2Filename = _getCTABLE2Filename(this, true); const auto &hGridShiftFilename = !NTv1Filename.empty() ? NTv1Filename : !NTv2Filename.empty() ? NTv2Filename : CTABLE2Filename; if (!hGridShiftFilename.empty()) { auto sourceCRSGeog = dynamic_cast<const crs::GeographicCRS *>(sourceCRS().get()); if (!sourceCRSGeog) { throw io::FormattingException( concat("Can apply ", methodName, " only to GeographicCRS")); } auto targetCRSGeog = dynamic_cast<const crs::GeographicCRS *>(targetCRS().get()); if (!targetCRSGeog) { throw io::FormattingException( concat("Can apply ", methodName, " only to GeographicCRS")); } formatter->startInversion(); sourceCRSGeog->addAngularUnitConvertAndAxisSwap(formatter); formatter->stopInversion(); if (isMethodInverseOf) { formatter->startInversion(); } formatter->addStep("hgridshift"); formatter->addParam("grids", hGridShiftFilename); if (isMethodInverseOf) { formatter->stopInversion(); } targetCRSGeog->addAngularUnitConvertAndAxisSwap(formatter); return; } const auto &heightFilename = _getHeightToGeographic3DFilename(this, true); if (!heightFilename.empty()) { if (isMethodInverseOf) { formatter->startInversion(); } formatter->addStep("vgridshift"); formatter->addParam("grids", heightFilename); formatter->addParam("multiplier", 1.0); if (isMethodInverseOf) { formatter->stopInversion(); } return; } if (isGeographic3DToGravityRelatedHeight(method(), true)) { auto fileParameter = parameterValue(EPSG_NAME_PARAMETER_GEOID_CORRECTION_FILENAME, EPSG_CODE_PARAMETER_GEOID_CORRECTION_FILENAME); if (fileParameter && fileParameter->type() == ParameterValue::Type::FILENAME) { auto filename = fileParameter->valueFile(); bool doInversion = isMethodInverseOf; if (!identifiers().empty() && *identifiers().front()->codeSpace() == metadata::Identifier::EPSG && method()->nameStr() == "Geographic3D to GravityRelatedHeight (US .gtx)" && ends_with(filename, ".gtx")) { // gtx files, from straight EPSG definition, must be applied in // reverse order for "Geographic3D to GravityRelatedHeight" // method doInversion = !doInversion; } if (doInversion) { formatter->startInversion(); } formatter->addStep("vgridshift"); formatter->addParam("grids", filename); formatter->addParam("multiplier", 1.0); if (doInversion) { formatter->stopInversion(); } return; } } if (methodEPSGCode == EPSG_CODE_METHOD_VERTCON) { auto fileParameter = parameterValue(EPSG_NAME_PARAMETER_VERTICAL_OFFSET_FILE, EPSG_CODE_PARAMETER_VERTICAL_OFFSET_FILE); if (fileParameter && fileParameter->type() == ParameterValue::Type::FILENAME) { formatter->addStep("vgridshift"); // The vertcon grids go from NGVD 29 to NAVD 88, with units // in millimeter (see // https://github.com/OSGeo/proj.4/issues/1071) formatter->addParam("grids", fileParameter->valueFile()); formatter->addParam("multiplier", 0.001); return; } } if (isLongitudeRotation()) { double offsetDeg = parameterValueNumeric(EPSG_CODE_PARAMETER_LONGITUDE_OFFSET, common::UnitOfMeasure::DEGREE); auto sourceCRSGeog = dynamic_cast<const crs::GeographicCRS *>(sourceCRS().get()); if (!sourceCRSGeog) { throw io::FormattingException( concat("Can apply ", methodName, " only to GeographicCRS")); } auto targetCRSGeog = dynamic_cast<const crs::GeographicCRS *>(targetCRS().get()); if (!targetCRSGeog) { throw io::FormattingException( concat("Can apply ", methodName + " only to GeographicCRS")); } if (!sourceCRSGeog->ellipsoid()->_isEquivalentTo( targetCRSGeog->ellipsoid().get())) { // This is arguable if we should check this... throw io::FormattingException("Can apply Longitude rotation " "only to SRS with same " "ellipsoid"); } formatter->startInversion(); sourceCRSGeog->addAngularUnitConvertAndAxisSwap(formatter); formatter->stopInversion(); bool done = false; if (offsetDeg != 0.0) { // Optimization: as we are doing nominally a +step=inv, // if the negation of the offset value is a well-known name, // then use forward case with this name. auto projPMName = datum::PrimeMeridian::getPROJStringWellKnownName( common::Angle(-offsetDeg)); if (!projPMName.empty()) { done = true; formatter->addStep("longlat"); sourceCRSGeog->ellipsoid()->_exportToPROJString(formatter); formatter->addParam("pm", projPMName); } } if (!done) { // To actually add the offset, we must use the reverse longlat // operation. formatter->startInversion(); formatter->addStep("longlat"); sourceCRSGeog->ellipsoid()->_exportToPROJString(formatter); datum::PrimeMeridian::create(util::PropertyMap(), common::Angle(offsetDeg)) ->_exportToPROJString(formatter); formatter->stopInversion(); } targetCRSGeog->addAngularUnitConvertAndAxisSwap(formatter); return; } if (exportToPROJStringGeneric(formatter)) { return; } throw io::FormattingException("Unimplemented"); } // --------------------------------------------------------------------------- bool SingleOperation::exportToPROJStringGeneric( io::PROJStringFormatter *formatter) const { const int methodEPSGCode = method()->getEPSGCode(); if (methodEPSGCode == EPSG_CODE_METHOD_AFFINE_PARAMETRIC_TRANSFORMATION) { const double A0 = parameterValueMeasure(EPSG_CODE_PARAMETER_A0).value(); const double A1 = parameterValueMeasure(EPSG_CODE_PARAMETER_A1).value(); const double A2 = parameterValueMeasure(EPSG_CODE_PARAMETER_A2).value(); const double B0 = parameterValueMeasure(EPSG_CODE_PARAMETER_B0).value(); const double B1 = parameterValueMeasure(EPSG_CODE_PARAMETER_B1).value(); const double B2 = parameterValueMeasure(EPSG_CODE_PARAMETER_B2).value(); // Do not mess with axis unit and order for that transformation formatter->addStep("affine"); formatter->addParam("xoff", A0); formatter->addParam("s11", A1); formatter->addParam("s12", A2); formatter->addParam("yoff", B0); formatter->addParam("s21", B1); formatter->addParam("s22", B2); return true; } if (isAxisOrderReversal(methodEPSGCode)) { formatter->addStep("axisswap"); formatter->addParam("order", "2,1"); auto sourceCRSGeog = dynamic_cast<const crs::GeographicCRS *>(sourceCRS().get()); auto targetCRSGeog = dynamic_cast<const crs::GeographicCRS *>(targetCRS().get()); if (sourceCRSGeog && targetCRSGeog) { const auto &unitSrc = sourceCRSGeog->coordinateSystem()->axisList()[0]->unit(); const auto &unitDst = targetCRSGeog->coordinateSystem()->axisList()[0]->unit(); if (!unitSrc._isEquivalentTo( unitDst, util::IComparable::Criterion::EQUIVALENT)) { formatter->addStep("unitconvert"); auto projUnit = unitSrc.exportToPROJString(); if (projUnit.empty()) { formatter->addParam("xy_in", unitSrc.conversionToSI()); } else { formatter->addParam("xy_in", projUnit); } projUnit = unitDst.exportToPROJString(); if (projUnit.empty()) { formatter->addParam("xy_out", unitDst.conversionToSI()); } else { formatter->addParam("xy_out", projUnit); } } } return true; } if (methodEPSGCode == EPSG_CODE_METHOD_GEOGRAPHIC_GEOCENTRIC) { auto sourceCRSGeod = dynamic_cast<const crs::GeodeticCRS *>(sourceCRS().get()); auto targetCRSGeod = dynamic_cast<const crs::GeodeticCRS *>(targetCRS().get()); if (sourceCRSGeod && targetCRSGeod) { auto sourceCRSGeog = dynamic_cast<const crs::GeographicCRS *>(sourceCRSGeod); auto targetCRSGeog = dynamic_cast<const crs::GeographicCRS *>(targetCRSGeod); bool isSrcGeocentric = sourceCRSGeod->isGeocentric(); bool isSrcGeographic = sourceCRSGeog != nullptr; bool isTargetGeocentric = targetCRSGeod->isGeocentric(); bool isTargetGeographic = targetCRSGeog != nullptr; if ((isSrcGeocentric && isTargetGeographic) || (isSrcGeographic && isTargetGeocentric)) { formatter->startInversion(); sourceCRSGeod->_exportToPROJString(formatter); formatter->stopInversion(); targetCRSGeod->_exportToPROJString(formatter); return true; } } throw io::FormattingException("Invalid nature of source and/or " "targetCRS for Geographic/Geocentric " "conversion"); } if (methodEPSGCode == EPSG_CODE_METHOD_CHANGE_VERTICAL_UNIT) { double convFactor = parameterValueNumericAsSI( EPSG_CODE_PARAMETER_UNIT_CONVERSION_SCALAR); auto uom = common::UnitOfMeasure(std::string(), convFactor, common::UnitOfMeasure::Type::LINEAR) .exportToPROJString(); auto reverse_uom = common::UnitOfMeasure(std::string(), 1.0 / convFactor, common::UnitOfMeasure::Type::LINEAR) .exportToPROJString(); if (uom == "m") { // do nothing } else if (!uom.empty()) { formatter->addStep("unitconvert"); formatter->addParam("z_in", uom); formatter->addParam("z_out", "m"); } else if (!reverse_uom.empty()) { formatter->addStep("unitconvert"); formatter->addParam("z_in", "m"); formatter->addParam("z_out", reverse_uom); } else { formatter->addStep("affine"); formatter->addParam("s33", convFactor); } return true; } return false; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress PointMotionOperation::~PointMotionOperation() = default; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct ConcatenatedOperation::Private { std::vector<CoordinateOperationNNPtr> operations_{}; bool computedName_ = false; explicit Private(const std::vector<CoordinateOperationNNPtr> &operationsIn) : operations_(operationsIn) {} Private(const Private &) = default; }; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress ConcatenatedOperation::~ConcatenatedOperation() = default; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress ConcatenatedOperation::ConcatenatedOperation(const ConcatenatedOperation &other) : CoordinateOperation(other), d(internal::make_unique<Private>(*(other.d))) {} //! @endcond // --------------------------------------------------------------------------- ConcatenatedOperation::ConcatenatedOperation( const std::vector<CoordinateOperationNNPtr> &operationsIn) : CoordinateOperation(), d(internal::make_unique<Private>(operationsIn)) {} // --------------------------------------------------------------------------- /** \brief Return the operation steps of the concatenated operation. * * @return the operation steps. */ const std::vector<CoordinateOperationNNPtr> & ConcatenatedOperation::operations() const { return d->operations_; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static bool compareStepCRS(const crs::CRS *a, const crs::CRS *b) { const auto &aIds = a->identifiers(); const auto &bIds = b->identifiers(); if (aIds.size() == 1 && bIds.size() == 1 && aIds[0]->code() == bIds[0]->code() && *aIds[0]->codeSpace() == *bIds[0]->codeSpace()) { return true; } return a->_isEquivalentTo(b, util::IComparable::Criterion::EQUIVALENT); } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a ConcatenatedOperation * * @param properties See \ref general_properties. At minimum the name should * be * defined. * @param operationsIn Vector of the CoordinateOperation steps. * @param accuracies Vector of positional accuracy (might be empty). * @return new Transformation. * @throws InvalidOperation */ ConcatenatedOperationNNPtr ConcatenatedOperation::create( const util::PropertyMap &properties, const std::vector<CoordinateOperationNNPtr> &operationsIn, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) // throw InvalidOperation { if (operationsIn.size() < 2) { throw InvalidOperation( "ConcatenatedOperation must have at least 2 operations"); } crs::CRSPtr lastTargetCRS; for (size_t i = 0; i < operationsIn.size(); i++) { auto l_sourceCRS = operationsIn[i]->sourceCRS(); auto l_targetCRS = operationsIn[i]->targetCRS(); if (l_sourceCRS == nullptr || l_targetCRS == nullptr) { throw InvalidOperation("At least one of the operation lacks a " "source and/or target CRS"); } if (i >= 1) { if (!compareStepCRS(l_sourceCRS.get(), lastTargetCRS.get())) { #ifdef DEBUG_CONCATENATED_OPERATION { auto f(io::WKTFormatter::create( io::WKTFormatter::Convention::WKT2_2018)); std::cerr << "Source CRS of step " << i << ":" << std::endl; std::cerr << l_sourceCRS->exportToWKT(f.get()) << std::endl; } { auto f(io::WKTFormatter::create( io::WKTFormatter::Convention::WKT2_2018)); std::cerr << "Target CRS of step " << i - 1 << ":" << std::endl; std::cerr << lastTargetCRS->exportToWKT(f.get()) << std::endl; } #endif throw InvalidOperation( "Inconsistent chaining of CRS in operations"); } } lastTargetCRS = l_targetCRS; } auto op = ConcatenatedOperation::nn_make_shared<ConcatenatedOperation>( operationsIn); op->assignSelf(op); op->setProperties(properties); op->setCRSs(NN_NO_CHECK(operationsIn[0]->sourceCRS()), NN_NO_CHECK(operationsIn.back()->targetCRS()), nullptr); op->setAccuracies(accuracies); #ifdef DEBUG_CONCATENATED_OPERATION { auto f( io::WKTFormatter::create(io::WKTFormatter::Convention::WKT2_2018)); std::cerr << "ConcatenatedOperation::create()" << std::endl; std::cerr << op->exportToWKT(f.get()) << std::endl; } #endif return op; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void ConcatenatedOperation::fixStepsDirection( const crs::CRSNNPtr &concatOpSourceCRS, const crs::CRSNNPtr &concatOpTargetCRS, std::vector<CoordinateOperationNNPtr> &operationsInOut) { // Set of heuristics to assign CRS to steps, and possibly reverse them. for (size_t i = 0; i < operationsInOut.size(); ++i) { auto &op = operationsInOut[i]; auto l_sourceCRS = op->sourceCRS(); auto l_targetCRS = op->targetCRS(); auto conv = dynamic_cast<const Conversion *>(op.get()); if (conv && i == 0 && !l_sourceCRS && !l_targetCRS) { auto derivedCRS = dynamic_cast<const crs::DerivedCRS *>(concatOpSourceCRS.get()); if (derivedCRS) { if (i + 1 < operationsInOut.size()) { // use the sourceCRS of the next operation as our target CRS l_targetCRS = operationsInOut[i + 1]->sourceCRS(); // except if it looks like the next operation should // actually be reversed !!! if (l_targetCRS && !compareStepCRS(l_targetCRS.get(), derivedCRS->baseCRS().get()) && operationsInOut[i + 1]->targetCRS() && compareStepCRS( operationsInOut[i + 1]->targetCRS().get(), derivedCRS->baseCRS().get())) { l_targetCRS = operationsInOut[i + 1]->targetCRS(); } } if (!l_targetCRS) { l_targetCRS = derivedCRS->baseCRS().as_nullable(); } auto invConv = util::nn_dynamic_pointer_cast<InverseConversion>(op); auto nn_targetCRS = NN_NO_CHECK(l_targetCRS); if (invConv) { invConv->inverse()->setCRSs(nn_targetCRS, concatOpSourceCRS, nullptr); op->setCRSs(concatOpSourceCRS, nn_targetCRS, nullptr); } else { op->setCRSs(nn_targetCRS, concatOpSourceCRS, nullptr); op = op->inverse(); } } else if (i + 1 < operationsInOut.size()) { /* coverity[copy_paste_error] */ l_targetCRS = operationsInOut[i + 1]->sourceCRS(); if (l_targetCRS) { op->setCRSs(concatOpSourceCRS, NN_NO_CHECK(l_targetCRS), nullptr); } } } else if (conv && i + 1 == operationsInOut.size() && !l_sourceCRS && !l_targetCRS) { auto derivedCRS = dynamic_cast<const crs::DerivedCRS *>(concatOpTargetCRS.get()); if (derivedCRS) { if (i >= 1) { // use the sourceCRS of the previous operation as our source // CRS l_sourceCRS = operationsInOut[i - 1]->targetCRS(); // except if it looks like the previous operation should // actually be reversed !!! if (l_sourceCRS && !compareStepCRS(l_sourceCRS.get(), derivedCRS->baseCRS().get()) && operationsInOut[i - 1]->sourceCRS() && compareStepCRS( operationsInOut[i - 1]->sourceCRS().get(), derivedCRS->baseCRS().get())) { l_targetCRS = operationsInOut[i - 1]->sourceCRS(); } } if (!l_sourceCRS) { l_sourceCRS = derivedCRS->baseCRS().as_nullable(); } op->setCRSs(NN_NO_CHECK(l_sourceCRS), concatOpTargetCRS, nullptr); } else if (i >= 1) { l_sourceCRS = operationsInOut[i - 1]->targetCRS(); if (l_sourceCRS) { op->setCRSs(NN_NO_CHECK(l_sourceCRS), concatOpTargetCRS, nullptr); } } } else if (conv && i > 0 && i < operationsInOut.size() - 1) { // For an intermediate conversion, use the target CRS of the // previous step and the source CRS of the next step l_sourceCRS = operationsInOut[i - 1]->targetCRS(); l_targetCRS = operationsInOut[i + 1]->sourceCRS(); if (l_sourceCRS && l_targetCRS) { op->setCRSs(NN_NO_CHECK(l_sourceCRS), NN_NO_CHECK(l_targetCRS), nullptr); } } else if (!conv && l_sourceCRS && l_targetCRS) { // Transformations might be mentioned in their forward directions, // whereas we should instead use the reverse path. auto prevOpTarget = (i == 0) ? concatOpSourceCRS.as_nullable() : operationsInOut[i - 1]->targetCRS(); if (!compareStepCRS(l_sourceCRS.get(), prevOpTarget.get()) && compareStepCRS(l_targetCRS.get(), prevOpTarget.get())) { op = op->inverse(); } } } if (!operationsInOut.empty()) { auto l_sourceCRS = operationsInOut.front()->sourceCRS(); if (l_sourceCRS && !compareStepCRS(l_sourceCRS.get(), concatOpSourceCRS.get())) { throw InvalidOperation("The source CRS of the first step of " "concatenated operation is not the same " "as the source CRS of the concantenated " "operation itself"); } auto l_targetCRS = operationsInOut.back()->targetCRS(); if (l_targetCRS && !compareStepCRS(l_targetCRS.get(), concatOpTargetCRS.get())) { throw InvalidOperation("The target CRS of the last step of " "concatenated operation is not the same " "as the target CRS of the concantenated " "operation itself"); } } } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static std::string computeConcatenatedName( const std::vector<CoordinateOperationNNPtr> &flattenOps) { std::string name; for (const auto &subOp : flattenOps) { if (!name.empty()) { name += " + "; } const auto &l_name = subOp->nameStr(); if (l_name.empty()) { name += "unnamed"; } else { name += l_name; } } return name; } //! @endcond // --------------------------------------------------------------------------- /** \brief Instantiate a ConcatenatedOperation, or return a single * coordinate * operation. * * This computes its accuracy from the sum of its member operations, its * extent * * @param operationsIn Vector of the CoordinateOperation steps. * @param checkExtent Whether we should check the non-emptyness of the * intersection * of the extents of the operations * @throws InvalidOperation */ CoordinateOperationNNPtr ConcatenatedOperation::createComputeMetadata( const std::vector<CoordinateOperationNNPtr> &operationsIn, bool checkExtent) // throw InvalidOperation { util::PropertyMap properties; if (operationsIn.size() == 1) { return operationsIn[0]; } std::vector<CoordinateOperationNNPtr> flattenOps; bool hasBallparkTransformation = false; for (const auto &subOp : operationsIn) { hasBallparkTransformation |= subOp->hasBallparkTransformation(); auto subOpConcat = dynamic_cast<const ConcatenatedOperation *>(subOp.get()); if (subOpConcat) { auto subOps = subOpConcat->operations(); for (const auto &subSubOp : subOps) { flattenOps.emplace_back(subSubOp); } } else { flattenOps.emplace_back(subOp); } } if (flattenOps.size() == 1) { return flattenOps[0]; } properties.set(common::IdentifiedObject::NAME_KEY, computeConcatenatedName(flattenOps)); bool emptyIntersection = false; auto extent = getExtent(flattenOps, false, emptyIntersection); if (checkExtent && emptyIntersection) { std::string msg( "empty intersection of area of validity of concantenated " "operations"); throw InvalidOperationEmptyIntersection(msg); } if (extent) { properties.set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, NN_NO_CHECK(extent)); } std::vector<metadata::PositionalAccuracyNNPtr> accuracies; const double accuracy = getAccuracy(flattenOps); if (accuracy >= 0.0) { accuracies.emplace_back( metadata::PositionalAccuracy::create(toString(accuracy))); } auto op = create(properties, flattenOps, accuracies); op->setHasBallparkTransformation(hasBallparkTransformation); op->d->computedName_ = true; return op; } // --------------------------------------------------------------------------- CoordinateOperationNNPtr ConcatenatedOperation::inverse() const { std::vector<CoordinateOperationNNPtr> inversedOperations; auto l_operations = operations(); inversedOperations.reserve(l_operations.size()); for (const auto &operation : l_operations) { inversedOperations.emplace_back(operation->inverse()); } std::reverse(inversedOperations.begin(), inversedOperations.end()); auto properties = createPropertiesForInverse(this, false, false); if (d->computedName_) { properties.set(common::IdentifiedObject::NAME_KEY, computeConcatenatedName(inversedOperations)); } auto op = create(properties, inversedOperations, coordinateOperationAccuracies()); op->d->computedName_ = d->computedName_; op->setHasBallparkTransformation(hasBallparkTransformation()); return op; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void ConcatenatedOperation::_exportToWKT(io::WKTFormatter *formatter) const { const bool isWKT2 = formatter->version() == io::WKTFormatter::Version::WKT2; if (!isWKT2 || !formatter->use2018Keywords()) { throw io::FormattingException( "Transformation can only be exported to WKT2:2018"); } formatter->startNode(io::WKTConstants::CONCATENATEDOPERATION, !identifiers().empty()); formatter->addQuotedString(nameStr()); if (isWKT2 && formatter->use2018Keywords()) { const auto &version = operationVersion(); if (version.has_value()) { formatter->startNode(io::WKTConstants::VERSION, false); formatter->addQuotedString(*version); formatter->endNode(); } } exportSourceCRSAndTargetCRSToWKT(this, formatter); const bool canExportOperationId = !(formatter->idOnTopLevelOnly() && formatter->topLevelHasId()); const bool hasDomains = !domains().empty(); if (hasDomains) { formatter->pushDisableUsage(); } for (const auto &operation : operations()) { formatter->startNode(io::WKTConstants::STEP, false); if (canExportOperationId && !operation->identifiers().empty()) { // fake that top node has no id, so that the operation id is // considered formatter->pushHasId(false); operation->_exportToWKT(formatter); formatter->popHasId(); } else { operation->_exportToWKT(formatter); } formatter->endNode(); } if (hasDomains) { formatter->popDisableUsage(); } ObjectUsage::baseExportToWKT(formatter); formatter->endNode(); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress void ConcatenatedOperation::_exportToJSON( io::JSONFormatter *formatter) const // throw(FormattingException) { auto &writer = formatter->writer(); auto objectContext(formatter->MakeObjectContext("ConcatenatedOperation", !identifiers().empty())); writer.AddObjKey("name"); auto l_name = nameStr(); if (l_name.empty()) { writer.Add("unnamed"); } else { writer.Add(l_name); } writer.AddObjKey("source_crs"); formatter->setAllowIDInImmediateChild(); sourceCRS()->_exportToJSON(formatter); writer.AddObjKey("target_crs"); formatter->setAllowIDInImmediateChild(); targetCRS()->_exportToJSON(formatter); writer.AddObjKey("steps"); { auto parametersContext(writer.MakeArrayContext(false)); for (const auto &operation : operations()) { formatter->setAllowIDInImmediateChild(); operation->_exportToJSON(formatter); } } ObjectUsage::baseExportToJSON(formatter); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress CoordinateOperationNNPtr ConcatenatedOperation::_shallowClone() const { auto op = ConcatenatedOperation::nn_make_shared<ConcatenatedOperation>(*this); std::vector<CoordinateOperationNNPtr> ops; for (const auto &subOp : d->operations_) { ops.emplace_back(subOp->shallowClone()); } op->d->operations_ = ops; op->assignSelf(op); op->setCRSs(this, false); return util::nn_static_pointer_cast<CoordinateOperation>(op); } //! @endcond // --------------------------------------------------------------------------- void ConcatenatedOperation::_exportToPROJString( io::PROJStringFormatter *formatter) const // throw(FormattingException) { for (const auto &operation : operations()) { operation->_exportToPROJString(formatter); } } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress bool ConcatenatedOperation::_isEquivalentTo( const util::IComparable *other, util::IComparable::Criterion criterion) const { auto otherCO = dynamic_cast<const ConcatenatedOperation *>(other); if (otherCO == nullptr || !ObjectUsage::_isEquivalentTo(other, criterion)) { return false; } const auto &steps = operations(); const auto &otherSteps = otherCO->operations(); if (steps.size() != otherSteps.size()) { return false; } for (size_t i = 0; i < steps.size(); i++) { if (!steps[i]->_isEquivalentTo(otherSteps[i].get(), criterion)) { return false; } } return true; } //! @endcond // --------------------------------------------------------------------------- std::set<GridDescription> ConcatenatedOperation::gridsNeeded( const io::DatabaseContextPtr &databaseContext) const { std::set<GridDescription> res; for (const auto &operation : operations()) { const auto l_gridsNeeded = operation->gridsNeeded(databaseContext); for (const auto &gridDesc : l_gridsNeeded) { res.insert(gridDesc); } } return res; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct CoordinateOperationContext::Private { io::AuthorityFactoryPtr authorityFactory_{}; metadata::ExtentPtr extent_{}; double accuracy_ = 0.0; SourceTargetCRSExtentUse sourceAndTargetCRSExtentUse_ = CoordinateOperationContext::SourceTargetCRSExtentUse::SMALLEST; SpatialCriterion spatialCriterion_ = CoordinateOperationContext::SpatialCriterion::STRICT_CONTAINMENT; bool usePROJNames_ = true; GridAvailabilityUse gridAvailabilityUse_ = GridAvailabilityUse::USE_FOR_SORTING; IntermediateCRSUse allowUseIntermediateCRS_ = CoordinateOperationContext:: IntermediateCRSUse::IF_NO_DIRECT_TRANSFORMATION; std::vector<std::pair<std::string, std::string>> intermediateCRSAuthCodes_{}; bool discardSuperseded_ = true; }; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress CoordinateOperationContext::~CoordinateOperationContext() = default; //! @endcond // --------------------------------------------------------------------------- CoordinateOperationContext::CoordinateOperationContext() : d(internal::make_unique<Private>()) {} // --------------------------------------------------------------------------- /** \brief Return the authority factory, or null */ const io::AuthorityFactoryPtr & CoordinateOperationContext::getAuthorityFactory() const { return d->authorityFactory_; } // --------------------------------------------------------------------------- /** \brief Return the desired area of interest, or null */ const metadata::ExtentPtr & CoordinateOperationContext::getAreaOfInterest() const { return d->extent_; } // --------------------------------------------------------------------------- /** \brief Set the desired area of interest, or null */ void CoordinateOperationContext::setAreaOfInterest( const metadata::ExtentPtr &extent) { d->extent_ = extent; } // --------------------------------------------------------------------------- /** \brief Return the desired accuracy (in metre), or 0 */ double CoordinateOperationContext::getDesiredAccuracy() const { return d->accuracy_; } // --------------------------------------------------------------------------- /** \brief Set the desired accuracy (in metre), or 0 */ void CoordinateOperationContext::setDesiredAccuracy(double accuracy) { d->accuracy_ = accuracy; } // --------------------------------------------------------------------------- /** \brief Set how source and target CRS extent should be used * when considering if a transformation can be used (only takes effect if * no area of interest is explicitly defined). * * The default is * CoordinateOperationContext::SourceTargetCRSExtentUse::SMALLEST. */ void CoordinateOperationContext::setSourceAndTargetCRSExtentUse( SourceTargetCRSExtentUse use) { d->sourceAndTargetCRSExtentUse_ = use; } // --------------------------------------------------------------------------- /** \brief Return how source and target CRS extent should be used * when considering if a transformation can be used (only takes effect if * no area of interest is explicitly defined). * * The default is * CoordinateOperationContext::SourceTargetCRSExtentUse::SMALLEST. */ CoordinateOperationContext::SourceTargetCRSExtentUse CoordinateOperationContext::getSourceAndTargetCRSExtentUse() const { return d->sourceAndTargetCRSExtentUse_; } // --------------------------------------------------------------------------- /** \brief Set the spatial criterion to use when comparing the area of * validity * of coordinate operations with the area of interest / area of validity of * source and target CRS. * * The default is STRICT_CONTAINMENT. */ void CoordinateOperationContext::setSpatialCriterion( SpatialCriterion criterion) { d->spatialCriterion_ = criterion; } // --------------------------------------------------------------------------- /** \brief Return the spatial criterion to use when comparing the area of * validity * of coordinate operations with the area of interest / area of validity of * source and target CRS. * * The default is STRICT_CONTAINMENT. */ CoordinateOperationContext::SpatialCriterion CoordinateOperationContext::getSpatialCriterion() const { return d->spatialCriterion_; } // --------------------------------------------------------------------------- /** \brief Set whether PROJ alternative grid names should be substituted to * the official authority names. * * This only has effect is an authority factory with a non-null database context * has been attached to this context. * * If set to false, it is still possible to * obtain later the substitution by using io::PROJStringFormatter::create() * with a non-null database context. * * The default is true. */ void CoordinateOperationContext::setUsePROJAlternativeGridNames( bool usePROJNames) { d->usePROJNames_ = usePROJNames; } // --------------------------------------------------------------------------- /** \brief Return whether PROJ alternative grid names should be substituted to * the official authority names. * * The default is true. */ bool CoordinateOperationContext::getUsePROJAlternativeGridNames() const { return d->usePROJNames_; } // --------------------------------------------------------------------------- /** \brief Return whether transformations that are superseded (but not * deprecated) * should be discarded. * * The default is true. */ bool CoordinateOperationContext::getDiscardSuperseded() const { return d->discardSuperseded_; } // --------------------------------------------------------------------------- /** \brief Set whether transformations that are superseded (but not deprecated) * should be discarded. * * The default is true. */ void CoordinateOperationContext::setDiscardSuperseded(bool discard) { d->discardSuperseded_ = discard; } // --------------------------------------------------------------------------- /** \brief Set how grid availability is used. * * The default is USE_FOR_SORTING. */ void CoordinateOperationContext::setGridAvailabilityUse( GridAvailabilityUse use) { d->gridAvailabilityUse_ = use; } // --------------------------------------------------------------------------- /** \brief Return how grid availability is used. * * The default is USE_FOR_SORTING. */ CoordinateOperationContext::GridAvailabilityUse CoordinateOperationContext::getGridAvailabilityUse() const { return d->gridAvailabilityUse_; } // --------------------------------------------------------------------------- /** \brief Set whether an intermediate pivot CRS can be used for researching * coordinate operations between a source and target CRS. * * Concretely if in the database there is an operation from A to C * (or C to A), and another one from C to B (or B to C), but no direct * operation between A and B, setting this parameter to * ALWAYS/IF_NO_DIRECT_TRANSFORMATION, allow chaining both operations. * * The current implementation is limited to researching one intermediate * step. * * By default, with the IF_NO_DIRECT_TRANSFORMATION stratgey, all potential * C candidates will be used if there is no direct tranformation. */ void CoordinateOperationContext::setAllowUseIntermediateCRS( IntermediateCRSUse use) { d->allowUseIntermediateCRS_ = use; } // --------------------------------------------------------------------------- /** \brief Return whether an intermediate pivot CRS can be used for researching * coordinate operations between a source and target CRS. * * Concretely if in the database there is an operation from A to C * (or C to A), and another one from C to B (or B to C), but no direct * operation between A and B, setting this parameter to * ALWAYS/IF_NO_DIRECT_TRANSFORMATION, allow chaining both operations. * * The default is IF_NO_DIRECT_TRANSFORMATION. */ CoordinateOperationContext::IntermediateCRSUse CoordinateOperationContext::getAllowUseIntermediateCRS() const { return d->allowUseIntermediateCRS_; } // --------------------------------------------------------------------------- /** \brief Restrict the potential pivot CRSs that can be used when trying to * build a coordinate operation between two CRS that have no direct operation. * * @param intermediateCRSAuthCodes a vector of (auth_name, code) that can be * used as potential pivot RS */ void CoordinateOperationContext::setIntermediateCRS( const std::vector<std::pair<std::string, std::string>> &intermediateCRSAuthCodes) { d->intermediateCRSAuthCodes_ = intermediateCRSAuthCodes; } // --------------------------------------------------------------------------- /** \brief Return the potential pivot CRSs that can be used when trying to * build a coordinate operation between two CRS that have no direct operation. * */ const std::vector<std::pair<std::string, std::string>> & CoordinateOperationContext::getIntermediateCRS() const { return d->intermediateCRSAuthCodes_; } // --------------------------------------------------------------------------- /** \brief Creates a context for a coordinate operation. * * If a non null authorityFactory is provided, the resulting context should * not be used simultaneously by more than one thread. * * If authorityFactory->getAuthority() is the empty string, then coordinate * operations from any authority will be searched, with the restrictions set * in the authority_to_authority_preference database table. * If authorityFactory->getAuthority() is set to "any", then coordinate * operations from any authority will be searched * If authorityFactory->getAuthority() is a non-empty string different of "any", * then coordinate operatiosn will be searched only in that authority namespace. * * @param authorityFactory Authority factory, or null if no database lookup * is allowed. * Use io::authorityFactory::create(context, std::string()) to allow all * authorities to be used. * @param extent Area of interest, or null if none is known. * @param accuracy Maximum allowed accuracy in metre, as specified in or * 0 to get best accuracy. * @return a new context. */ CoordinateOperationContextNNPtr CoordinateOperationContext::create( const io::AuthorityFactoryPtr &authorityFactory, const metadata::ExtentPtr &extent, double accuracy) { auto ctxt = NN_NO_CHECK( CoordinateOperationContext::make_unique<CoordinateOperationContext>()); ctxt->d->authorityFactory_ = authorityFactory; ctxt->d->extent_ = extent; ctxt->d->accuracy_ = accuracy; return ctxt; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct CoordinateOperationFactory::Private { struct Context { // This is the source CRS and target CRS of the initial // CoordinateOperationFactory::createOperations() public call, not // necessarily the ones of intermediate // CoordinateOperationFactory::Private::createOperations() calls. // This is used to compare transformations area of use against the // area of use of the source & target CRS. const crs::CRSNNPtr &sourceCRS; const crs::CRSNNPtr &targetCRS; const CoordinateOperationContextNNPtr &context; bool inCreateOperationsWithDatumPivotAntiRecursion = false; bool inCreateOperationsGeogToVertWithIntermediate = false; bool skipHorizontalTransformation = false; Context(const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, const CoordinateOperationContextNNPtr &contextIn) : sourceCRS(sourceCRSIn), targetCRS(targetCRSIn), context(contextIn) {} }; static std::vector<CoordinateOperationNNPtr> createOperations(const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, Context &context); private: static std::vector<CoordinateOperationNNPtr> createOperationsGeogToGeog( std::vector<CoordinateOperationNNPtr> &res, const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const crs::GeographicCRS *geogSrc, const crs::GeographicCRS *geogDst); static void createOperationsWithDatumPivot( std::vector<CoordinateOperationNNPtr> &res, const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const crs::GeodeticCRS *geodSrc, const crs::GeodeticCRS *geodDst, Context &context); static std::vector<CoordinateOperationNNPtr> createOperationsGeogToVertWithIntermediate(const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, Context &context); static bool hasPerfectAccuracyResult(const std::vector<CoordinateOperationNNPtr> &res, const Context &context); static ConversionNNPtr createGeographicGeocentric(const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS); static void setCRSs(CoordinateOperation *co, const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS); }; //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress CoordinateOperationFactory::~CoordinateOperationFactory() = default; //! @endcond // --------------------------------------------------------------------------- CoordinateOperationFactory::CoordinateOperationFactory() : d(nullptr) {} // --------------------------------------------------------------------------- /** \brief Find a CoordinateOperation from sourceCRS to targetCRS. * * This is a helper of createOperations(), using a coordinate operation * context * with no authority factory (so no catalog searching is done), no desired * accuracy and no area of interest. * This returns the first operation of the result set of createOperations(), * or null if none found. * * @param sourceCRS source CRS. * @param targetCRS source CRS. * @return a CoordinateOperation or nullptr. */ CoordinateOperationPtr CoordinateOperationFactory::createOperation( const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS) const { auto res = createOperations( sourceCRS, targetCRS, CoordinateOperationContext::create(nullptr, nullptr, 0.0)); if (!res.empty()) { return res[0]; } return nullptr; } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress // --------------------------------------------------------------------------- struct PrecomputedOpCharacteristics { double area_{}; double accuracy_{}; bool isPROJExportable_ = false; bool hasGrids_ = false; bool gridsAvailable_ = false; bool gridsKnown_ = false; size_t stepCount_ = 0; bool isApprox_ = false; bool isNullTransformation_ = false; PrecomputedOpCharacteristics() = default; PrecomputedOpCharacteristics(double area, double accuracy, bool isPROJExportable, bool hasGrids, bool gridsAvailable, bool gridsKnown, size_t stepCount, bool isApprox, bool isNullTransformation) : area_(area), accuracy_(accuracy), isPROJExportable_(isPROJExportable), hasGrids_(hasGrids), gridsAvailable_(gridsAvailable), gridsKnown_(gridsKnown), stepCount_(stepCount), isApprox_(isApprox), isNullTransformation_(isNullTransformation) {} }; // --------------------------------------------------------------------------- // We could have used a lambda instead of this old-school way, but // filterAndSort() is already huge. struct SortFunction { const std::map<CoordinateOperation *, PrecomputedOpCharacteristics> &map; explicit SortFunction(const std::map<CoordinateOperation *, PrecomputedOpCharacteristics> &mapIn) : map(mapIn) {} // Sorting function // Return true if a < b bool operator()(const CoordinateOperationNNPtr &a, const CoordinateOperationNNPtr &b) const { auto iterA = map.find(a.get()); assert(iterA != map.end()); auto iterB = map.find(b.get()); assert(iterB != map.end()); // CAUTION: the order of the comparisons is extremely important // to get the intended result. if (iterA->second.isPROJExportable_ && !iterB->second.isPROJExportable_) { return true; } if (!iterA->second.isPROJExportable_ && iterB->second.isPROJExportable_) { return false; } if (!iterA->second.isApprox_ && iterB->second.isApprox_) { return true; } if (iterA->second.isApprox_ && !iterB->second.isApprox_) { return false; } if (!iterA->second.isNullTransformation_ && iterB->second.isNullTransformation_) { return true; } if (iterA->second.isNullTransformation_ && !iterB->second.isNullTransformation_) { return false; } // Operations where grids are all available go before other if (iterA->second.gridsAvailable_ && !iterB->second.gridsAvailable_) { return true; } if (iterB->second.gridsAvailable_ && !iterA->second.gridsAvailable_) { return false; } // Operations where grids are all known in our DB go before other if (iterA->second.gridsKnown_ && !iterB->second.gridsKnown_) { return true; } if (iterB->second.gridsKnown_ && !iterA->second.gridsKnown_) { return false; } // Operations with known accuracy go before those with unknown accuracy const double accuracyA = iterA->second.accuracy_; const double accuracyB = iterB->second.accuracy_; if (accuracyA >= 0 && accuracyB < 0) { return true; } if (accuracyB >= 0 && accuracyA < 0) { return false; } if (accuracyA < 0 && accuracyB < 0) { // unknown accuracy ? then prefer operations with grids, which // are likely to have best practical accuracy if (iterA->second.hasGrids_ && !iterB->second.hasGrids_) { return true; } if (!iterA->second.hasGrids_ && iterB->second.hasGrids_) { return false; } } // Operations with larger non-zero area of use go before those with // lower one const double areaA = iterA->second.area_; const double areaB = iterB->second.area_; if (areaA > 0) { if (areaA > areaB) { return true; } if (areaA < areaB) { return false; } } else if (areaB > 0) { return false; } // Operations with better accuracy go before those with worse one if (accuracyA >= 0 && accuracyA < accuracyB) { return true; } if (accuracyB >= 0 && accuracyB < accuracyA) { return false; } if (accuracyA >= 0 && accuracyA == accuracyB) { // same accuracy ? then prefer operations without grids if (!iterA->second.hasGrids_ && iterB->second.hasGrids_) { return true; } if (iterA->second.hasGrids_ && !iterB->second.hasGrids_) { return false; } } // The less intermediate steps, the better if (iterA->second.stepCount_ < iterB->second.stepCount_) { return true; } if (iterB->second.stepCount_ < iterA->second.stepCount_) { return false; } const auto &a_name = a->nameStr(); const auto &b_name = b->nameStr(); // The shorter name, the better ? if (a_name.size() < b_name.size()) { return true; } if (b_name.size() < a_name.size()) { return false; } // Arbitrary final criterion return a_name < b_name; } }; // --------------------------------------------------------------------------- static size_t getStepCount(const CoordinateOperationNNPtr &op) { auto concat = dynamic_cast<const ConcatenatedOperation *>(op.get()); size_t stepCount = 1; if (concat) { stepCount = concat->operations().size(); } return stepCount; } // --------------------------------------------------------------------------- struct FilterResults { FilterResults(const std::vector<CoordinateOperationNNPtr> &sourceListIn, const CoordinateOperationContextNNPtr &contextIn, const crs::CRSNNPtr &sourceCRSIn, const crs::CRSNNPtr &targetCRSIn, bool forceStrictContainmentTest) : sourceList(sourceListIn), context(contextIn), sourceCRS(sourceCRSIn), targetCRS(targetCRSIn), sourceCRSExtent(getExtent(sourceCRS)), targetCRSExtent(getExtent(targetCRS)), areaOfInterest(context->getAreaOfInterest()), desiredAccuracy(context->getDesiredAccuracy()), sourceAndTargetCRSExtentUse( context->getSourceAndTargetCRSExtentUse()) { computeAreaOfInterest(); filterOut(forceStrictContainmentTest); } FilterResults &andSort() { sort(); // And now that we have a sorted list, we can remove uninteresting // results // ... removeSyntheticNullTransforms(); if (context->getDiscardSuperseded()) removeUninterestingOps(); removeDuplicateOps(); removeSyntheticNullTransforms(); return *this; } // ---------------------------------------------------------------------- // cppcheck-suppress functionStatic const std::vector<CoordinateOperationNNPtr> &getRes() { return res; } // ---------------------------------------------------------------------- private: const std::vector<CoordinateOperationNNPtr> &sourceList; const CoordinateOperationContextNNPtr &context; const crs::CRSNNPtr &sourceCRS; const crs::CRSNNPtr &targetCRS; const metadata::ExtentPtr &sourceCRSExtent; const metadata::ExtentPtr &targetCRSExtent; metadata::ExtentPtr areaOfInterest; const double desiredAccuracy = context->getDesiredAccuracy(); const CoordinateOperationContext::SourceTargetCRSExtentUse sourceAndTargetCRSExtentUse; bool hasOpThatContainsAreaOfInterest = false; std::vector<CoordinateOperationNNPtr> res{}; // ---------------------------------------------------------------------- void computeAreaOfInterest() { // Compute an area of interest from the CRS extent if the user did // not specify one if (!areaOfInterest) { if (sourceAndTargetCRSExtentUse == CoordinateOperationContext::SourceTargetCRSExtentUse:: INTERSECTION) { if (sourceCRSExtent && targetCRSExtent) { areaOfInterest = sourceCRSExtent->intersection( NN_NO_CHECK(targetCRSExtent)); } } else if (sourceAndTargetCRSExtentUse == CoordinateOperationContext::SourceTargetCRSExtentUse:: SMALLEST) { if (sourceCRSExtent && targetCRSExtent) { if (getPseudoArea(sourceCRSExtent) < getPseudoArea(targetCRSExtent)) { areaOfInterest = sourceCRSExtent; } else { areaOfInterest = targetCRSExtent; } } else if (sourceCRSExtent) { areaOfInterest = sourceCRSExtent; } else { areaOfInterest = targetCRSExtent; } } } } // --------------------------------------------------------------------------- void filterOut(bool forceStrictContainmentTest) { // Filter out operations that do not match the expected accuracy // and area of use. const auto spatialCriterion = forceStrictContainmentTest ? CoordinateOperationContext::SpatialCriterion:: STRICT_CONTAINMENT : context->getSpatialCriterion(); bool hasFoundOpWithExtent = false; for (const auto &op : sourceList) { if (desiredAccuracy != 0) { const double accuracy = getAccuracy(op); if (accuracy < 0 || accuracy > desiredAccuracy) { continue; } } if (areaOfInterest) { bool emptyIntersection = false; auto extent = getExtent(op, true, emptyIntersection); if (!extent) continue; hasFoundOpWithExtent = true; bool extentContains = extent->contains(NN_NO_CHECK(areaOfInterest)); if (extentContains) { if (!op->hasBallparkTransformation()) { hasOpThatContainsAreaOfInterest = true; } } if (spatialCriterion == CoordinateOperationContext::SpatialCriterion:: STRICT_CONTAINMENT && !extentContains) { continue; } if (spatialCriterion == CoordinateOperationContext::SpatialCriterion:: PARTIAL_INTERSECTION && !extent->intersects(NN_NO_CHECK(areaOfInterest))) { continue; } } else if (sourceAndTargetCRSExtentUse == CoordinateOperationContext::SourceTargetCRSExtentUse:: BOTH) { bool emptyIntersection = false; auto extent = getExtent(op, true, emptyIntersection); if (!extent) continue; hasFoundOpWithExtent = true; bool extentContainsSource = !sourceCRSExtent || extent->contains(NN_NO_CHECK(sourceCRSExtent)); bool extentContainsTarget = !targetCRSExtent || extent->contains(NN_NO_CHECK(targetCRSExtent)); if (extentContainsSource && extentContainsTarget) { if (!op->hasBallparkTransformation()) { hasOpThatContainsAreaOfInterest = true; } } if (spatialCriterion == CoordinateOperationContext::SpatialCriterion:: STRICT_CONTAINMENT) { if (!extentContainsSource || !extentContainsTarget) { continue; } } else if (spatialCriterion == CoordinateOperationContext::SpatialCriterion:: PARTIAL_INTERSECTION) { bool extentIntersectsSource = !sourceCRSExtent || extent->intersects(NN_NO_CHECK(sourceCRSExtent)); bool extentIntersectsTarget = targetCRSExtent && extent->intersects(NN_NO_CHECK(targetCRSExtent)); if (!extentIntersectsSource || !extentIntersectsTarget) { continue; } } } res.emplace_back(op); } // In case no operation has an extent and no result is found, // retain all initial operations that match accuracy criterion. if (res.empty() && !hasFoundOpWithExtent) { for (const auto &op : sourceList) { if (desiredAccuracy != 0) { const double accuracy = getAccuracy(op); if (accuracy < 0 || accuracy > desiredAccuracy) { continue; } } res.emplace_back(op); } } } // ---------------------------------------------------------------------- void sort() { // Precompute a number of parameters for each operation that will be // useful for the sorting. std::map<CoordinateOperation *, PrecomputedOpCharacteristics> map; const auto gridAvailabilityUse = context->getGridAvailabilityUse(); for (const auto &op : res) { bool dummy = false; auto extentOp = getExtent(op, true, dummy); double area = 0.0; if (extentOp) { if (areaOfInterest) { area = getPseudoArea( extentOp->intersection(NN_NO_CHECK(areaOfInterest))); } else if (sourceCRSExtent && targetCRSExtent) { auto x = extentOp->intersection(NN_NO_CHECK(sourceCRSExtent)); auto y = extentOp->intersection(NN_NO_CHECK(targetCRSExtent)); area = getPseudoArea(x) + getPseudoArea(y) - ((x && y) ? getPseudoArea(x->intersection(NN_NO_CHECK(y))) : 0.0); } else if (sourceCRSExtent) { area = getPseudoArea( extentOp->intersection(NN_NO_CHECK(sourceCRSExtent))); } else if (targetCRSExtent) { area = getPseudoArea( extentOp->intersection(NN_NO_CHECK(targetCRSExtent))); } else { area = getPseudoArea(extentOp); } } bool hasGrids = false; bool gridsAvailable = true; bool gridsKnown = true; if (context->getAuthorityFactory()) { const auto gridsNeeded = op->gridsNeeded( context->getAuthorityFactory()->databaseContext()); for (const auto &gridDesc : gridsNeeded) { hasGrids = true; if (gridAvailabilityUse == CoordinateOperationContext::GridAvailabilityUse:: USE_FOR_SORTING && !gridDesc.available) { gridsAvailable = false; } if (gridDesc.packageName.empty() && !gridDesc.available) { gridsKnown = false; } } } const auto stepCount = getStepCount(op); const bool isApprox = op->nameStr().find(BALLPARK_VERTICAL_TRANSFORMATION_PREFIX) != std::string::npos; const bool isNullTransformation = op->nameStr().find(BALLPARK_GEOGRAPHIC_OFFSET) != std::string::npos || op->nameStr().find(NULL_GEOGRAPHIC_OFFSET) != std::string::npos || op->nameStr().find(BALLPARK_GEOCENTRIC_TRANSLATION) != std::string::npos; bool isPROJExportable = false; auto formatter = io::PROJStringFormatter::create(); try { op->exportToPROJString(formatter.get()); // Grids might be missing, but at least this is something // PROJ could potentially process isPROJExportable = true; } catch (const std::exception &) { } map[op.get()] = PrecomputedOpCharacteristics( area, getAccuracy(op), isPROJExportable, hasGrids, gridsAvailable, gridsKnown, stepCount, isApprox, isNullTransformation); } // Sort ! SortFunction sortFunc(map); std::sort(res.begin(), res.end(), sortFunc); // Debug code to check consistency of the sort function #ifdef DEBUG_SORT constexpr bool debugSort = true; #elif !defined(NDEBUG) const bool debugSort = getenv("PROJ_DEBUG_SORT_FUNCT") != nullptr; #endif #if defined(DEBUG_SORT) || !defined(NDEBUG) if (debugSort) { const bool assertIfIssue = !(getenv("PROJ_DEBUG_SORT_FUNCT_ASSERT") != nullptr); for (size_t i = 0; i < res.size(); ++i) { for (size_t j = i + 1; j < res.size(); ++j) { if (sortFunc(res[j], res[i])) { #ifdef DEBUG_SORT std::cerr << "Sorting issue with entry " << i << "(" << res[i]->nameStr() << ") and " << j << "(" << res[j]->nameStr() << ")" << std::endl; #endif if (assertIfIssue) { assert(false); } } } } } #endif } // ---------------------------------------------------------------------- void removeSyntheticNullTransforms() { // If we have more than one result, and than the last result is the // default "Ballpark geographic offset" or "Ballpark geocentric // translation" // operations we have synthetized, and that at least one operation // has the desired area of interest, remove it as // all previous results are necessarily better if (hasOpThatContainsAreaOfInterest && res.size() > 1) { const std::string &name = res.back()->nameStr(); if (name.find(BALLPARK_GEOGRAPHIC_OFFSET) != std::string::npos || name.find(NULL_GEOGRAPHIC_OFFSET) != std::string::npos || name.find(BALLPARK_GEOCENTRIC_TRANSLATION) != std::string::npos) { std::vector<CoordinateOperationNNPtr> resTemp; for (size_t i = 0; i < res.size() - 1; i++) { resTemp.emplace_back(res[i]); } res = std::move(resTemp); } } } // ---------------------------------------------------------------------- void removeUninterestingOps() { // Eliminate operations that bring nothing, ie for a given area of use, // do not keep operations that have greater accuracy. Actually we must // be a bit more subtle than that, and take into account grid // availability std::vector<CoordinateOperationNNPtr> resTemp; metadata::ExtentPtr lastExtent; double lastAccuracy = -1; bool lastHasGrids = false; bool lastGridsAvailable = true; std::set<std::set<std::string>> setOfSetOfGrids; size_t lastStepCount = 0; CoordinateOperationPtr lastOp; bool first = true; for (const auto &op : res) { const auto curAccuracy = getAccuracy(op); bool dummy = false; const auto curExtent = getExtent(op, true, dummy); bool curHasGrids = false; bool curGridsAvailable = true; std::set<std::string> curSetOfGrids; const auto curStepCount = getStepCount(op); if (context->getAuthorityFactory()) { const auto gridsNeeded = op->gridsNeeded( context->getAuthorityFactory()->databaseContext()); for (const auto &gridDesc : gridsNeeded) { curHasGrids = true; curSetOfGrids.insert(gridDesc.shortName); if (!gridDesc.available) { curGridsAvailable = false; } } } if (first) { resTemp.emplace_back(op); lastHasGrids = curHasGrids; lastGridsAvailable = curGridsAvailable; first = false; } else { if (lastOp->_isEquivalentTo(op.get())) { continue; } const bool sameExtent = ((!curExtent && !lastExtent) || (curExtent && lastExtent && curExtent->contains(NN_NO_CHECK(lastExtent)) && lastExtent->contains(NN_NO_CHECK(curExtent)))); if (((curAccuracy > lastAccuracy && lastAccuracy >= 0) || (curAccuracy < 0 && lastAccuracy >= 0)) && sameExtent) { // If that set of grids has always been used for that // extent, // no need to add them again if (setOfSetOfGrids.find(curSetOfGrids) != setOfSetOfGrids.end()) { continue; } // If we have already found a operation without grids for // that extent, no need to add any lower accuracy operation if (!lastHasGrids) { continue; } // If we had only operations involving grids, but one // past operation had available grids, no need to add // the new one. if (curHasGrids && curGridsAvailable && lastGridsAvailable) { continue; } } else if (curAccuracy == lastAccuracy && sameExtent) { if (curStepCount > lastStepCount) { continue; } } resTemp.emplace_back(op); if (sameExtent) { if (!curHasGrids) { lastHasGrids = false; } if (curGridsAvailable) { lastGridsAvailable = true; } } else { setOfSetOfGrids.clear(); lastHasGrids = curHasGrids; lastGridsAvailable = curGridsAvailable; } } lastOp = op.as_nullable(); lastStepCount = curStepCount; lastExtent = curExtent; lastAccuracy = curAccuracy; if (!curSetOfGrids.empty()) { setOfSetOfGrids.insert(curSetOfGrids); } } res = std::move(resTemp); } // ---------------------------------------------------------------------- // cppcheck-suppress functionStatic void removeDuplicateOps() { if (res.size() <= 1) { return; } // When going from EPSG:4807 (NTF Paris) to EPSG:4171 (RGC93), we get // EPSG:7811, NTF (Paris) to RGF93 (2), 1 m // and unknown id, NTF (Paris) to NTF (1) + Inverse of RGF93 to NTF (2), // 1 m // both have same PROJ string and extent // Do not keep the later (that has more steps) as it adds no value. std::set<std::string> setPROJPlusExtent; std::vector<CoordinateOperationNNPtr> resTemp; for (const auto &op : res) { auto formatter = io::PROJStringFormatter::create(); try { std::string key(op->exportToPROJString(formatter.get())); bool dummy = false; auto extentOp = getExtent(op, true, dummy); if (extentOp) { const auto &geogElts = extentOp->geographicElements(); if (geogElts.size() == 1) { auto bbox = dynamic_cast< const metadata::GeographicBoundingBox *>( geogElts[0].get()); if (bbox) { double w = bbox->westBoundLongitude(); double s = bbox->southBoundLatitude(); double e = bbox->eastBoundLongitude(); double n = bbox->northBoundLatitude(); key += "-"; key += toString(w); key += "-"; key += toString(s); key += "-"; key += toString(e); key += "-"; key += toString(n); } } } if (setPROJPlusExtent.find(key) == setPROJPlusExtent.end()) { resTemp.emplace_back(op); setPROJPlusExtent.insert(key); } } catch (const std::exception &) { resTemp.emplace_back(op); } } res = std::move(resTemp); } }; // --------------------------------------------------------------------------- /** \brief Filter operations and sort them given context. * * If a desired accuracy is specified, only keep operations whose accuracy * is at least the desired one. * If an area of interest is specified, only keep operations whose area of * use include the area of interest. * Then sort remaining operations by descending area of use, and increasing * accuracy. */ static std::vector<CoordinateOperationNNPtr> filterAndSort(const std::vector<CoordinateOperationNNPtr> &sourceList, const CoordinateOperationContextNNPtr &context, const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS) { return FilterResults(sourceList, context, sourceCRS, targetCRS, false) .andSort() .getRes(); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress // Apply the inverse() method on all elements of the input list static std::vector<CoordinateOperationNNPtr> applyInverse(const std::vector<CoordinateOperationNNPtr> &list) { auto res = list; for (auto &op : res) { op = op->inverse(); } return res; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static void buildCRSIds(const crs::CRSNNPtr &crs, const CoordinateOperationContextNNPtr &context, std::list<std::pair<std::string, std::string>> &ids) { const auto &authFactory = context->getAuthorityFactory(); assert(authFactory); const auto &authFactoryName = authFactory->getAuthority(); for (const auto &id : crs->identifiers()) { const auto &authName = *(id->codeSpace()); const auto &code = id->code(); if (!authName.empty()) { ids.emplace_back(authName, code); } } if (ids.empty()) { try { const auto tmpAuthFactory = io::AuthorityFactory::create( authFactory->databaseContext(), (authFactoryName.empty() || authFactoryName == "any") ? std::string() : authFactoryName); std::vector<io::AuthorityFactory::ObjectType> allowedObjects; auto geogCRS = dynamic_cast<const crs::GeographicCRS *>(crs.get()); if (geogCRS) { allowedObjects.push_back( geogCRS->coordinateSystem()->axisList().size() == 2 ? io::AuthorityFactory::ObjectType::GEOGRAPHIC_2D_CRS : io::AuthorityFactory::ObjectType::GEOGRAPHIC_3D_CRS); } else if (dynamic_cast<crs::ProjectedCRS *>(crs.get())) { allowedObjects.push_back( io::AuthorityFactory::ObjectType::PROJECTED_CRS); } if (!allowedObjects.empty()) { auto matches = tmpAuthFactory->createObjectsFromName( crs->nameStr(), allowedObjects, false, 2); if (matches.size() == 1 && crs->_isEquivalentTo( matches.front().get(), util::IComparable::Criterion::EQUIVALENT) && !matches.front()->identifiers().empty()) { const auto &tmpIds = matches.front()->identifiers(); ids.emplace_back(*(tmpIds[0]->codeSpace()), tmpIds[0]->code()); } } } catch (const std::exception &) { } } } // --------------------------------------------------------------------------- static std::vector<std::string> getCandidateAuthorities(const io::AuthorityFactoryPtr &authFactory, const std::string &srcAuthName, const std::string &targetAuthName) { const auto &authFactoryName = authFactory->getAuthority(); std::vector<std::string> authorities; if (authFactoryName == "any") { authorities.emplace_back(); } if (authFactoryName.empty()) { authorities = authFactory->databaseContext()->getAllowedAuthorities( srcAuthName, targetAuthName); if (authorities.empty()) { authorities.emplace_back(); } } else { authorities.emplace_back(authFactoryName); } return authorities; } // --------------------------------------------------------------------------- // Look in the authority registry for operations from sourceCRS to targetCRS static std::vector<CoordinateOperationNNPtr> findOpsInRegistryDirect(const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const CoordinateOperationContextNNPtr &context) { const auto &authFactory = context->getAuthorityFactory(); assert(authFactory); std::list<std::pair<std::string, std::string>> sourceIds; std::list<std::pair<std::string, std::string>> targetIds; buildCRSIds(sourceCRS, context, sourceIds); buildCRSIds(targetCRS, context, targetIds); for (const auto &idSrc : sourceIds) { const auto &srcAuthName = idSrc.first; const auto &srcCode = idSrc.second; for (const auto &idTarget : targetIds) { const auto &targetAuthName = idTarget.first; const auto &targetCode = idTarget.second; const auto authorities(getCandidateAuthorities( authFactory, srcAuthName, targetAuthName)); for (const auto &authority : authorities) { const auto tmpAuthFactory = io::AuthorityFactory::create( authFactory->databaseContext(), authority == "any" ? std::string() : authority); auto res = tmpAuthFactory->createFromCoordinateReferenceSystemCodes( srcAuthName, srcCode, targetAuthName, targetCode, context->getUsePROJAlternativeGridNames(), context->getGridAvailabilityUse() == CoordinateOperationContext::GridAvailabilityUse:: DISCARD_OPERATION_IF_MISSING_GRID, context->getDiscardSuperseded()); if (!res.empty()) { return res; } } } } return std::vector<CoordinateOperationNNPtr>(); } // --------------------------------------------------------------------------- // Look in the authority registry for operations from sourceCRS static std::vector<CoordinateOperationNNPtr> findOpsInRegistryDirectFrom(const crs::CRSNNPtr &sourceCRS, const CoordinateOperationContextNNPtr &context) { const auto &authFactory = context->getAuthorityFactory(); assert(authFactory); std::list<std::pair<std::string, std::string>> ids; buildCRSIds(sourceCRS, context, ids); for (const auto &id : ids) { const auto &srcAuthName = id.first; const auto &srcCode = id.second; const auto authorities( getCandidateAuthorities(authFactory, srcAuthName, srcAuthName)); for (const auto &authority : authorities) { const auto tmpAuthFactory = io::AuthorityFactory::create( authFactory->databaseContext(), authority == "any" ? std::string() : authority); auto res = tmpAuthFactory->createFromCoordinateReferenceSystemCodes( srcAuthName, srcCode, std::string(), std::string(), context->getUsePROJAlternativeGridNames(), context->getGridAvailabilityUse() == CoordinateOperationContext::GridAvailabilityUse:: DISCARD_OPERATION_IF_MISSING_GRID, context->getDiscardSuperseded()); if (!res.empty()) { return res; } } } return std::vector<CoordinateOperationNNPtr>(); } // --------------------------------------------------------------------------- // Look in the authority registry for operations to targetCRS static std::vector<CoordinateOperationNNPtr> findOpsInRegistryDirectTo(const crs::CRSNNPtr &targetCRS, const CoordinateOperationContextNNPtr &context) { const auto &authFactory = context->getAuthorityFactory(); assert(authFactory); std::list<std::pair<std::string, std::string>> ids; buildCRSIds(targetCRS, context, ids); for (const auto &id : ids) { const auto &targetAuthName = id.first; const auto &targetCode = id.second; const auto authorities(getCandidateAuthorities( authFactory, targetAuthName, targetAuthName)); for (const auto &authority : authorities) { const auto tmpAuthFactory = io::AuthorityFactory::create( authFactory->databaseContext(), authority == "any" ? std::string() : authority); auto res = tmpAuthFactory->createFromCoordinateReferenceSystemCodes( std::string(), std::string(), targetAuthName, targetCode, context->getUsePROJAlternativeGridNames(), context->getGridAvailabilityUse() == CoordinateOperationContext::GridAvailabilityUse:: DISCARD_OPERATION_IF_MISSING_GRID, context->getDiscardSuperseded()); if (!res.empty()) { return res; } } } return std::vector<CoordinateOperationNNPtr>(); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress // Look in the authority registry for operations from sourceCRS to targetCRS // using an intermediate pivot static std::vector<CoordinateOperationNNPtr> findsOpsInRegistryWithIntermediate( const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const CoordinateOperationContextNNPtr &context) { const auto &authFactory = context->getAuthorityFactory(); assert(authFactory); std::list<std::pair<std::string, std::string>> sourceIds; std::list<std::pair<std::string, std::string>> targetIds; buildCRSIds(sourceCRS, context, sourceIds); buildCRSIds(targetCRS, context, targetIds); for (const auto &idSrc : sourceIds) { const auto &srcAuthName = idSrc.first; const auto &srcCode = idSrc.second; for (const auto &idTarget : targetIds) { const auto &targetAuthName = idTarget.first; const auto &targetCode = idTarget.second; const auto authorities(getCandidateAuthorities( authFactory, srcAuthName, targetAuthName)); for (const auto &authority : authorities) { const auto tmpAuthFactory = io::AuthorityFactory::create( authFactory->databaseContext(), authority == "any" ? std::string() : authority); auto res = tmpAuthFactory->createFromCRSCodesWithIntermediates( srcAuthName, srcCode, targetAuthName, targetCode, context->getUsePROJAlternativeGridNames(), context->getGridAvailabilityUse() == CoordinateOperationContext::GridAvailabilityUse:: DISCARD_OPERATION_IF_MISSING_GRID, context->getDiscardSuperseded(), context->getIntermediateCRS()); if (!res.empty()) { // If doing GeogCRS --> GeogCRS, only use GeogCRS as // intermediate CRS // Avoid weird behaviour when doing NAD83 -> NAD83(2011) // that would go through NAVD88 otherwise. if (context->getIntermediateCRS().empty() && dynamic_cast<const crs::GeographicCRS *>( sourceCRS.get()) && dynamic_cast<const crs::GeographicCRS *>( targetCRS.get())) { std::vector<CoordinateOperationNNPtr> res2; for (const auto &op : res) { auto concatOp = dynamic_cast<ConcatenatedOperation *>(op.get()); if (concatOp && dynamic_cast<const crs::GeographicCRS *>( concatOp->operations() .front() ->targetCRS() .get())) { res2.emplace_back(op); } } res = std::move(res2); } return res; } } } } return std::vector<CoordinateOperationNNPtr>(); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static TransformationNNPtr createBallparkGeographicOffset(const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS) { const crs::GeographicCRS *geogSrc = dynamic_cast<const crs::GeographicCRS *>(sourceCRS.get()); const crs::GeographicCRS *geogDst = dynamic_cast<const crs::GeographicCRS *>(targetCRS.get()); const bool isSameDatum = geogSrc && geogDst && geogSrc->datum() && geogDst->datum() && geogSrc->datum()->_isEquivalentTo( geogDst->datum().get(), util::IComparable::Criterion::EQUIVALENT); std::string name(isSameDatum ? NULL_GEOGRAPHIC_OFFSET : BALLPARK_GEOGRAPHIC_OFFSET); name += " from "; name += sourceCRS->nameStr(); name += " to "; name += targetCRS->nameStr(); const auto &sourceCRSExtent = getExtent(sourceCRS); const auto &targetCRSExtent = getExtent(targetCRS); const bool sameExtent = sourceCRSExtent && targetCRSExtent && sourceCRSExtent->_isEquivalentTo( targetCRSExtent.get(), util::IComparable::Criterion::EQUIVALENT); util::PropertyMap map; map.set(common::IdentifiedObject::NAME_KEY, name) .set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, sameExtent ? NN_NO_CHECK(sourceCRSExtent) : metadata::Extent::WORLD); const common::Angle angle0(0); std::vector<metadata::PositionalAccuracyNNPtr> accuracies; if (isSameDatum) { accuracies.emplace_back(metadata::PositionalAccuracy::create("0")); } if (dynamic_cast<const crs::SingleCRS *>(sourceCRS.get()) ->coordinateSystem() ->axisList() .size() == 3 || dynamic_cast<const crs::SingleCRS *>(targetCRS.get()) ->coordinateSystem() ->axisList() .size() == 3) { return Transformation::createGeographic3DOffsets( map, sourceCRS, targetCRS, angle0, angle0, common::Length(0), accuracies); } else { return Transformation::createGeographic2DOffsets( map, sourceCRS, targetCRS, angle0, angle0, accuracies); } } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress struct MyPROJStringExportableGeodToGeod final : public io::IPROJStringExportable { crs::GeodeticCRSPtr geodSrc{}; crs::GeodeticCRSPtr geodDst{}; MyPROJStringExportableGeodToGeod(const crs::GeodeticCRSPtr &geodSrcIn, const crs::GeodeticCRSPtr &geodDstIn) : geodSrc(geodSrcIn), geodDst(geodDstIn) {} ~MyPROJStringExportableGeodToGeod() override; void // cppcheck-suppress functionStatic _exportToPROJString(io::PROJStringFormatter *formatter) const override { formatter->startInversion(); geodSrc->_exportToPROJString(formatter); formatter->stopInversion(); geodDst->_exportToPROJString(formatter); } }; MyPROJStringExportableGeodToGeod::~MyPROJStringExportableGeodToGeod() = default; // --------------------------------------------------------------------------- struct MyPROJStringExportableHorizVertical final : public io::IPROJStringExportable { CoordinateOperationPtr horizTransform{}; CoordinateOperationPtr verticalTransform{}; crs::GeographicCRSPtr geogDst{}; MyPROJStringExportableHorizVertical( const CoordinateOperationPtr &horizTransformIn, const CoordinateOperationPtr &verticalTransformIn, const crs::GeographicCRSPtr &geogDstIn) : horizTransform(horizTransformIn), verticalTransform(verticalTransformIn), geogDst(geogDstIn) {} ~MyPROJStringExportableHorizVertical() override; void // cppcheck-suppress functionStatic _exportToPROJString(io::PROJStringFormatter *formatter) const override { formatter->pushOmitZUnitConversion(); horizTransform->_exportToPROJString(formatter); formatter->startInversion(); geogDst->addAngularUnitConvertAndAxisSwap(formatter); formatter->stopInversion(); formatter->popOmitZUnitConversion(); verticalTransform->_exportToPROJString(formatter); formatter->pushOmitZUnitConversion(); geogDst->addAngularUnitConvertAndAxisSwap(formatter); formatter->popOmitZUnitConversion(); } }; MyPROJStringExportableHorizVertical::~MyPROJStringExportableHorizVertical() = default; // --------------------------------------------------------------------------- struct MyPROJStringExportableHorizVerticalHorizPROJBased final : public io::IPROJStringExportable { CoordinateOperationPtr opSrcCRSToGeogCRS{}; CoordinateOperationPtr verticalTransform{}; CoordinateOperationPtr opGeogCRStoDstCRS{}; crs::GeographicCRSPtr interpolationGeogCRS{}; MyPROJStringExportableHorizVerticalHorizPROJBased( const CoordinateOperationPtr &opSrcCRSToGeogCRSIn, const CoordinateOperationPtr &verticalTransformIn, const CoordinateOperationPtr &opGeogCRStoDstCRSIn, const crs::GeographicCRSPtr &interpolationGeogCRSIn) : opSrcCRSToGeogCRS(opSrcCRSToGeogCRSIn), verticalTransform(verticalTransformIn), opGeogCRStoDstCRS(opGeogCRStoDstCRSIn), interpolationGeogCRS(interpolationGeogCRSIn) {} ~MyPROJStringExportableHorizVerticalHorizPROJBased() override; void // cppcheck-suppress functionStatic _exportToPROJString(io::PROJStringFormatter *formatter) const override { formatter->pushOmitZUnitConversion(); opSrcCRSToGeogCRS->_exportToPROJString(formatter); formatter->startInversion(); interpolationGeogCRS->addAngularUnitConvertAndAxisSwap(formatter); formatter->stopInversion(); formatter->popOmitZUnitConversion(); verticalTransform->_exportToPROJString(formatter); formatter->pushOmitZUnitConversion(); interpolationGeogCRS->addAngularUnitConvertAndAxisSwap(formatter); opGeogCRStoDstCRS->_exportToPROJString(formatter); formatter->popOmitZUnitConversion(); } }; MyPROJStringExportableHorizVerticalHorizPROJBased:: ~MyPROJStringExportableHorizVerticalHorizPROJBased() = default; } // namespace operation NS_PROJ_END #if 0 namespace dropbox{ namespace oxygen { template<> nn<std::shared_ptr<NS_PROJ::operation::MyPROJStringExportableGeodToGeod>>::~nn() = default; template<> nn<std::shared_ptr<NS_PROJ::operation::MyPROJStringExportableHorizVertical>>::~nn() = default; template<> nn<std::shared_ptr<NS_PROJ::operation::MyPROJStringExportableHorizVerticalHorizPROJBased>>::~nn() = default; }} #endif NS_PROJ_START namespace operation { // --------------------------------------------------------------------------- static std::string buildTransfName(const std::string &srcName, const std::string &targetName) { std::string name("Transformation from "); name += srcName; name += " to "; name += targetName; return name; } // --------------------------------------------------------------------------- static CoordinateOperationNNPtr createGeodToGeodPROJBased(const crs::CRSNNPtr &geodSrc, const crs::CRSNNPtr &geodDst) { auto exportable = util::nn_make_shared<MyPROJStringExportableGeodToGeod>( util::nn_dynamic_pointer_cast<crs::GeodeticCRS>(geodSrc), util::nn_dynamic_pointer_cast<crs::GeodeticCRS>(geodDst)); auto properties = util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, buildTransfName(geodSrc->nameStr(), geodDst->nameStr())); return createPROJBased(properties, exportable, geodSrc, geodDst, {}, false); } // --------------------------------------------------------------------------- static CoordinateOperationNNPtr createHorizVerticalPROJBased( const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const operation::CoordinateOperationNNPtr &horizTransform, const operation::CoordinateOperationNNPtr &verticalTransform) { auto geogDst = util::nn_dynamic_pointer_cast<crs::GeographicCRS>(targetCRS); assert(geogDst); auto exportable = util::nn_make_shared<MyPROJStringExportableHorizVertical>( horizTransform, verticalTransform, geogDst); bool horizTransformIsNoOp = horizTransform->sourceCRS()->_isEquivalentTo( horizTransform->targetCRS().get()); if (!horizTransformIsNoOp) { const crs::GeographicCRS *geogSrc = dynamic_cast<const crs::GeographicCRS *>( horizTransform->sourceCRS().get()); if (geogSrc) { horizTransformIsNoOp = geogSrc->is2DPartOf3D(NN_NO_CHECK(geogDst.get())); } } if (horizTransformIsNoOp) { auto properties = util::PropertyMap(); properties.set(common::IdentifiedObject::NAME_KEY, verticalTransform->nameStr()); bool dummy = false; auto extent = getExtent(verticalTransform, true, dummy); if (extent) { properties.set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, NN_NO_CHECK(extent)); } return createPROJBased( properties, exportable, sourceCRS, targetCRS, verticalTransform->coordinateOperationAccuracies(), verticalTransform->hasBallparkTransformation()); } else { bool dummy = false; auto ops = std::vector<CoordinateOperationNNPtr>{horizTransform, verticalTransform}; auto extent = getExtent(ops, true, dummy); auto properties = util::PropertyMap(); properties.set(common::IdentifiedObject::NAME_KEY, computeConcatenatedName(ops)); if (extent) { properties.set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, NN_NO_CHECK(extent)); } std::vector<metadata::PositionalAccuracyNNPtr> accuracies; const double accuracy = getAccuracy(ops); if (accuracy >= 0.0) { accuracies.emplace_back( metadata::PositionalAccuracy::create(toString(accuracy))); } return createPROJBased( properties, exportable, sourceCRS, targetCRS, accuracies, horizTransform->hasBallparkTransformation() || verticalTransform->hasBallparkTransformation()); } } // --------------------------------------------------------------------------- static CoordinateOperationNNPtr createHorizVerticalHorizPROJBased( const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const operation::CoordinateOperationNNPtr &opSrcCRSToGeogCRS, const operation::CoordinateOperationNNPtr &verticalTransform, const operation::CoordinateOperationNNPtr &opGeogCRStoDstCRS, const crs::GeographicCRSPtr &interpolationGeogCRS) { auto exportable = util::nn_make_shared<MyPROJStringExportableHorizVerticalHorizPROJBased>( opSrcCRSToGeogCRS, verticalTransform, opGeogCRStoDstCRS, interpolationGeogCRS); bool dummy = false; auto ops = opSrcCRSToGeogCRS->sourceCRS()->_isEquivalentTo( opSrcCRSToGeogCRS->targetCRS().get()) ? std::vector<CoordinateOperationNNPtr>{verticalTransform, opGeogCRStoDstCRS} : std::vector<CoordinateOperationNNPtr>{opSrcCRSToGeogCRS, verticalTransform, opGeogCRStoDstCRS}; bool hasBallparkTransformation = false; for (const auto &op : ops) { hasBallparkTransformation |= op->hasBallparkTransformation(); } auto extent = getExtent(ops, true, dummy); auto properties = util::PropertyMap(); properties.set(common::IdentifiedObject::NAME_KEY, computeConcatenatedName(ops)); if (extent) { properties.set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, NN_NO_CHECK(extent)); } std::vector<metadata::PositionalAccuracyNNPtr> accuracies; const double accuracy = getAccuracy(ops); if (accuracy >= 0.0) { accuracies.emplace_back( metadata::PositionalAccuracy::create(toString(accuracy))); } return createPROJBased(properties, exportable, sourceCRS, targetCRS, accuracies, hasBallparkTransformation); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress ConversionNNPtr CoordinateOperationFactory::Private::createGeographicGeocentric( const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS) { auto properties = util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, buildOpName("Conversion", sourceCRS, targetCRS)); auto conv = Conversion::createGeographicGeocentric(properties); conv->setCRSs(sourceCRS, targetCRS, nullptr); return conv; } // --------------------------------------------------------------------------- std::vector<CoordinateOperationNNPtr> CoordinateOperationFactory::Private::createOperationsGeogToGeog( std::vector<CoordinateOperationNNPtr> &res, const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const crs::GeographicCRS *geogSrc, const crs::GeographicCRS *geogDst) { assert(sourceCRS.get() == geogSrc); assert(targetCRS.get() == geogDst); const bool allowEmptyIntersection = true; const auto &src_pm = geogSrc->primeMeridian()->longitude(); const auto &dst_pm = geogDst->primeMeridian()->longitude(); auto offset_pm = (src_pm.unit() == dst_pm.unit()) ? common::Angle(src_pm.value() - dst_pm.value(), src_pm.unit()) : common::Angle( src_pm.convertToUnit(common::UnitOfMeasure::DEGREE) - dst_pm.convertToUnit(common::UnitOfMeasure::DEGREE), common::UnitOfMeasure::DEGREE); double vconvSrc = 1.0; const auto &srcCS = geogSrc->coordinateSystem(); const auto &srcAxisList = srcCS->axisList(); if (srcAxisList.size() == 3) { vconvSrc = srcAxisList[2]->unit().conversionToSI(); } double vconvDst = 1.0; const auto &dstCS = geogDst->coordinateSystem(); const auto &dstAxisList = dstCS->axisList(); if (dstAxisList.size() == 3) { vconvDst = dstAxisList[2]->unit().conversionToSI(); } std::string name(buildTransfName(geogSrc->nameStr(), geogDst->nameStr())); const bool sameDatum = geogSrc->datum() != nullptr && geogDst->datum() != nullptr && geogSrc->datum()->_isEquivalentTo( geogDst->datum().get(), util::IComparable::Criterion::EQUIVALENT); // Do the CRS differ by their axis order ? bool axisReversal2D = false; bool axisReversal3D = false; if (!srcCS->_isEquivalentTo(dstCS.get(), util::IComparable::Criterion::EQUIVALENT)) { auto srcOrder = srcCS->axisOrder(); auto dstOrder = dstCS->axisOrder(); if (((srcOrder == cs::EllipsoidalCS::AxisOrder::LAT_NORTH_LONG_EAST || srcOrder == cs::EllipsoidalCS::AxisOrder:: LAT_NORTH_LONG_EAST_HEIGHT_UP) && (dstOrder == cs::EllipsoidalCS::AxisOrder::LONG_EAST_LAT_NORTH || dstOrder == cs::EllipsoidalCS::AxisOrder:: LONG_EAST_LAT_NORTH_HEIGHT_UP)) || ((srcOrder == cs::EllipsoidalCS::AxisOrder::LONG_EAST_LAT_NORTH || srcOrder == cs::EllipsoidalCS::AxisOrder:: LONG_EAST_LAT_NORTH_HEIGHT_UP) && (dstOrder == cs::EllipsoidalCS::AxisOrder::LAT_NORTH_LONG_EAST || dstOrder == cs::EllipsoidalCS::AxisOrder:: LAT_NORTH_LONG_EAST_HEIGHT_UP))) { if (srcAxisList.size() == 3 || dstAxisList.size() == 3) axisReversal3D = true; else axisReversal2D = true; } } // Do they differ by vertical units ? if (vconvSrc != vconvDst && geogSrc->ellipsoid()->_isEquivalentTo( geogDst->ellipsoid().get(), util::IComparable::Criterion::EQUIVALENT)) { if (offset_pm.value() == 0 && !axisReversal2D && !axisReversal3D) { // If only by vertical units, use a Change of Vertical // Unit // transformation const double factor = vconvSrc / vconvDst; auto conv = Conversion::createChangeVerticalUnit( util::PropertyMap().set(common::IdentifiedObject::NAME_KEY, name), common::Scale(factor)); conv->setCRSs(sourceCRS, targetCRS, nullptr); conv->setHasBallparkTransformation(!sameDatum); res.push_back(conv); return res; } else { auto op = createGeodToGeodPROJBased(sourceCRS, targetCRS); op->setHasBallparkTransformation(!sameDatum); res.emplace_back(op); return res; } } // Do the CRS differ only by their axis order ? if (sameDatum && (axisReversal2D || axisReversal3D)) { auto conv = Conversion::createAxisOrderReversal(axisReversal3D); conv->setCRSs(sourceCRS, targetCRS, nullptr); res.emplace_back(conv); return res; } std::vector<CoordinateOperationNNPtr> steps; // If both are geographic and only differ by their prime // meridian, // apply a longitude rotation transformation. if (geogSrc->ellipsoid()->_isEquivalentTo( geogDst->ellipsoid().get(), util::IComparable::Criterion::EQUIVALENT) && src_pm.getSIValue() != dst_pm.getSIValue()) { steps.emplace_back(Transformation::createLongitudeRotation( util::PropertyMap() .set(common::IdentifiedObject::NAME_KEY, name) .set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, metadata::Extent::WORLD), sourceCRS, targetCRS, offset_pm)); // If only the target has a non-zero prime meridian, chain a // null geographic offset and then the longitude rotation } else if (src_pm.getSIValue() == 0 && dst_pm.getSIValue() != 0) { auto datum = datum::GeodeticReferenceFrame::create( util::PropertyMap(), geogDst->ellipsoid(), util::optional<std::string>(), geogSrc->primeMeridian()); std::string interm_crs_name(geogDst->nameStr()); interm_crs_name += " altered to use prime meridian of "; interm_crs_name += geogSrc->nameStr(); auto interm_crs = util::nn_static_pointer_cast<crs::CRS>(crs::GeographicCRS::create( util::PropertyMap() .set(common::IdentifiedObject::NAME_KEY, interm_crs_name) .set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, metadata::Extent::WORLD), datum, dstCS)); steps.emplace_back( createBallparkGeographicOffset(sourceCRS, interm_crs)); steps.emplace_back(Transformation::createLongitudeRotation( util::PropertyMap() .set(common::IdentifiedObject::NAME_KEY, buildTransfName(geogSrc->nameStr(), interm_crs->nameStr())) .set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, metadata::Extent::WORLD), interm_crs, targetCRS, offset_pm)); } else { // If the prime meridians are different, chain a longitude // rotation and the null geographic offset. if (src_pm.getSIValue() != dst_pm.getSIValue()) { auto datum = datum::GeodeticReferenceFrame::create( util::PropertyMap(), geogSrc->ellipsoid(), util::optional<std::string>(), geogDst->primeMeridian()); std::string interm_crs_name(geogSrc->nameStr()); interm_crs_name += " altered to use prime meridian of "; interm_crs_name += geogDst->nameStr(); auto interm_crs = util::nn_static_pointer_cast<crs::CRS>( crs::GeographicCRS::create( util::PropertyMap().set(common::IdentifiedObject::NAME_KEY, interm_crs_name), datum, srcCS)); steps.emplace_back(Transformation::createLongitudeRotation( util::PropertyMap() .set(common::IdentifiedObject::NAME_KEY, buildTransfName(geogSrc->nameStr(), interm_crs->nameStr())) .set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, metadata::Extent::WORLD), sourceCRS, interm_crs, offset_pm)); steps.emplace_back( createBallparkGeographicOffset(interm_crs, targetCRS)); } else { steps.emplace_back( createBallparkGeographicOffset(sourceCRS, targetCRS)); } } auto op = ConcatenatedOperation::createComputeMetadata( steps, !allowEmptyIntersection); op->setHasBallparkTransformation(!sameDatum); res.emplace_back(op); return res; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static bool hasIdentifiers(const CoordinateOperationNNPtr &op) { if (!op->identifiers().empty()) { return true; } auto concatenated = dynamic_cast<const ConcatenatedOperation *>(op.get()); if (concatenated) { for (const auto &subOp : concatenated->operations()) { if (hasIdentifiers(subOp)) { return true; } } } return false; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress static std::vector<crs::CRSNNPtr> findCandidateGeodCRSForDatum(const io::AuthorityFactoryPtr &authFactory, const datum::GeodeticReferenceFrame *datum) { std::vector<crs::CRSNNPtr> candidates; assert(datum); const auto &ids = datum->identifiers(); const auto &datumName = datum->nameStr(); if (!ids.empty()) { for (const auto &id : ids) { const auto &authName = *(id->codeSpace()); const auto &code = id->code(); if (!authName.empty()) { auto l_candidates = authFactory->createGeodeticCRSFromDatum( authName, code, std::string()); for (const auto &candidate : l_candidates) { candidates.emplace_back(candidate); } } } } else if (datumName != "unknown" && datumName != "unnamed") { auto matches = authFactory->createObjectsFromName( datumName, {io::AuthorityFactory::ObjectType::GEODETIC_REFERENCE_FRAME}, false, 2); if (matches.size() == 1) { const auto &match = matches.front(); if (datum->_isEquivalentTo( match.get(), util::IComparable::Criterion::EQUIVALENT) && !match->identifiers().empty()) { return findCandidateGeodCRSForDatum( authFactory, dynamic_cast<const datum::GeodeticReferenceFrame *>( match.get())); } } } return candidates; } // --------------------------------------------------------------------------- static bool isNullTransformation(const std::string &name) { return starts_with(name, BALLPARK_GEOCENTRIC_TRANSLATION) || starts_with(name, BALLPARK_GEOGRAPHIC_OFFSET) || starts_with(name, NULL_GEOGRAPHIC_OFFSET); } // --------------------------------------------------------------------------- #ifdef DEBUG static int nCallLevel = 0; struct EnterDebugLevel { EnterDebugLevel() { ++nCallLevel; } ~EnterDebugLevel() { --nCallLevel; } }; static void debugTrace(const std::string &str) { for (int i = 1; i < nCallLevel; i++) std::cerr << " "; std::cerr << str << std::endl; } static std::string objectAsStr(const common::IdentifiedObject *obj) { std::string ret(obj->nameStr()); const auto &ids = obj->identifiers(); if (!ids.empty()) { ret += " ("; ret += (*ids[0]->codeSpace()) + ":" + ids[0]->code(); ret += ")"; } return ret; } #endif // --------------------------------------------------------------------------- void CoordinateOperationFactory::Private::setCRSs( CoordinateOperation *co, const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS) { co->setCRSs(sourceCRS, targetCRS, nullptr); auto concat = dynamic_cast<ConcatenatedOperation *>(co); if (concat) { auto first = concat->operations().front().get(); auto &firstTarget(first->targetCRS()); if (firstTarget) { setCRSs(first, sourceCRS, NN_NO_CHECK(firstTarget)); auto invCO = dynamic_cast<InverseCoordinateOperation *>(first); if (invCO) { setCRSs(invCO->forwardOperation().get(), NN_NO_CHECK(firstTarget), sourceCRS); } } auto last = concat->operations().back().get(); auto &lastSource(last->sourceCRS()); if (lastSource) { setCRSs(last, NN_NO_CHECK(lastSource), targetCRS); auto invCO = dynamic_cast<InverseCoordinateOperation *>(last); if (invCO) { setCRSs(invCO->forwardOperation().get(), targetCRS, NN_NO_CHECK(lastSource)); } } } } // --------------------------------------------------------------------------- void CoordinateOperationFactory::Private::createOperationsWithDatumPivot( std::vector<CoordinateOperationNNPtr> &res, const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const crs::GeodeticCRS *geodSrc, const crs::GeodeticCRS *geodDst, Private::Context &context) { #ifdef DEBUG EnterDebugLevel enterFunction; debugTrace("createOperationsWithDatumPivot(" + objectAsStr(sourceCRS.get()) + "," + objectAsStr(targetCRS.get()) + ")"); #endif const bool allowEmptyIntersection = true; struct CreateOperationsWithDatumPivotAntiRecursion { Context &context; explicit CreateOperationsWithDatumPivotAntiRecursion(Context &contextIn) : context(contextIn) { assert(!context.inCreateOperationsWithDatumPivotAntiRecursion); context.inCreateOperationsWithDatumPivotAntiRecursion = true; } ~CreateOperationsWithDatumPivotAntiRecursion() { context.inCreateOperationsWithDatumPivotAntiRecursion = false; } }; CreateOperationsWithDatumPivotAntiRecursion guard(context); const auto &authFactory = context.context->getAuthorityFactory(); const auto candidatesSrcGeod( findCandidateGeodCRSForDatum(authFactory, geodSrc->datum().get())); const auto candidatesDstGeod( findCandidateGeodCRSForDatum(authFactory, geodDst->datum().get())); auto createTransformations = [&](const crs::CRSNNPtr &candidateSrcGeod, const crs::CRSNNPtr &candidateDstGeod, const CoordinateOperationNNPtr &opFirst, bool isNullFirst) { const auto opsSecond = createOperations(candidateSrcGeod, candidateDstGeod, context); const auto opsThird = createOperations(candidateDstGeod, targetCRS, context); assert(!opsThird.empty()); for (auto &opSecond : opsSecond) { // Check that it is not a transformation synthetized by // ourselves if (!hasIdentifiers(opSecond)) { continue; } // And even if it is a referenced transformation, check that // it is not a trivial one auto so = dynamic_cast<const SingleOperation *>(opSecond.get()); if (so && isAxisOrderReversal(so->method()->getEPSGCode())) { continue; } std::vector<CoordinateOperationNNPtr> subOps; const bool isNullThird = isNullTransformation(opsThird[0]->nameStr()); CoordinateOperationNNPtr opSecondCloned( (isNullFirst || isNullThird) ? opSecond->shallowClone() : opSecond); CoordinateOperation *invCOForward = nullptr; if (isNullFirst || isNullThird) { if (opSecondCloned->identifiers().size() == 1 && (*opSecondCloned->identifiers()[0]->codeSpace()) .find("DERIVED_FROM") == std::string::npos) { { util::PropertyMap map; addModifiedIdentifier(map, opSecondCloned.get(), false, true); opSecondCloned->setProperties(map); } auto invCO = dynamic_cast<InverseCoordinateOperation *>( opSecondCloned.get()); if (invCO) { invCOForward = invCO->forwardOperation().get(); if (invCOForward->identifiers().size() == 1 && (*invCOForward->identifiers()[0]->codeSpace()) .find("DERIVED_FROM") == std::string::npos) { util::PropertyMap map; addModifiedIdentifier(map, invCOForward, false, true); invCOForward->setProperties(map); } } } } if (isNullFirst) { auto oldTarget(NN_CHECK_ASSERT(opSecondCloned->targetCRS())); setCRSs(opSecondCloned.get(), sourceCRS, oldTarget); if (invCOForward) { setCRSs(invCOForward, oldTarget, sourceCRS); } } else { subOps.emplace_back(opFirst); } if (isNullThird) { auto oldSource(NN_CHECK_ASSERT(opSecondCloned->sourceCRS())); setCRSs(opSecondCloned.get(), oldSource, targetCRS); if (invCOForward) { setCRSs(invCOForward, targetCRS, oldSource); } subOps.emplace_back(opSecondCloned); } else { subOps.emplace_back(opSecondCloned); subOps.emplace_back(opsThird[0]); } #ifdef DEBUG std::string debugStr; for (const auto &op : subOps) { if (!debugStr.empty()) { debugStr += " + "; } debugStr += objectAsStr(op.get()); debugStr += " ("; debugStr += objectAsStr(op->sourceCRS().get()); debugStr += "->"; debugStr += objectAsStr(op->targetCRS().get()); debugStr += ")"; } debugTrace("transformation " + debugStr); #endif res.emplace_back(ConcatenatedOperation::createComputeMetadata( subOps, !allowEmptyIntersection)); } }; // Start in priority with candidates that have exactly the same name as // the sourcCRS and targetCRS. Typically for the case of init=IGNF:XXXX for (const auto &candidateSrcGeod : candidatesSrcGeod) { if (candidateSrcGeod->nameStr() == sourceCRS->nameStr()) { for (const auto &candidateDstGeod : candidatesDstGeod) { if (candidateDstGeod->nameStr() == targetCRS->nameStr()) { #ifdef DEBUG EnterDebugLevel loopLevel; debugTrace("try " + objectAsStr(sourceCRS.get()) + "->" + objectAsStr(candidateSrcGeod.get()) + "->" + objectAsStr(candidateDstGeod.get()) + "->" + objectAsStr(targetCRS.get()) + ")"); EnterDebugLevel loopLevel2; #endif const auto opsFirst = createOperations(sourceCRS, candidateSrcGeod, context); assert(!opsFirst.empty()); const bool isNullFirst = isNullTransformation(opsFirst[0]->nameStr()); createTransformations(candidateSrcGeod, candidateDstGeod, opsFirst[0], isNullFirst); if (!res.empty()) { return; } break; } } break; } } for (const auto &candidateSrcGeod : candidatesSrcGeod) { #ifdef DEBUG EnterDebugLevel loopLevel; #endif const auto opsFirst = createOperations(sourceCRS, candidateSrcGeod, context); assert(!opsFirst.empty()); const bool isNullFirst = isNullTransformation(opsFirst[0]->nameStr()); for (const auto &candidateDstGeod : candidatesDstGeod) { #ifdef DEBUG EnterDebugLevel loopLevel2; debugTrace("try " + objectAsStr(sourceCRS.get()) + "->" + objectAsStr(candidateSrcGeod.get()) + "->" + objectAsStr(candidateDstGeod.get()) + "->" + objectAsStr(targetCRS.get()) + ")"); EnterDebugLevel loopLevel3; #endif createTransformations(candidateSrcGeod, candidateDstGeod, opsFirst[0], isNullFirst); if (!res.empty()) { return; } } } } // --------------------------------------------------------------------------- std::vector<CoordinateOperationNNPtr> CoordinateOperationFactory::Private::createOperationsGeogToVertWithIntermediate( const crs::CRSNNPtr & /*sourceCRS*/, // geographic CRS const crs::CRSNNPtr &targetCRS, // vertical CRS Private::Context &context) { std::vector<CoordinateOperationNNPtr> res; struct AntiRecursionGuard { Context &context; explicit AntiRecursionGuard(Context &contextIn) : context(contextIn) { assert(!context.inCreateOperationsGeogToVertWithIntermediate); context.inCreateOperationsGeogToVertWithIntermediate = true; } ~AntiRecursionGuard() { context.inCreateOperationsGeogToVertWithIntermediate = false; } }; AntiRecursionGuard guard(context); for (int i = 0; i < 2; i++) { // Generally EPSG has operations from GeogCrs to VertCRS auto ops = i == 0 ? findOpsInRegistryDirectTo(targetCRS, context.context) : findOpsInRegistryDirectFrom(targetCRS, context.context); for (const auto &op : ops) { const auto tmpCRS = i == 0 ? op->sourceCRS() : op->targetCRS(); if (tmpCRS && dynamic_cast<const crs::GeographicCRS *>(tmpCRS.get())) { res.emplace_back(i == 0 ? op : op->inverse()); } } if (!res.empty()) break; } return res; } // --------------------------------------------------------------------------- static CoordinateOperationNNPtr createBallparkGeocentricTranslation(const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS) { std::string name(BALLPARK_GEOCENTRIC_TRANSLATION); name += " from "; name += sourceCRS->nameStr(); name += " to "; name += targetCRS->nameStr(); return util::nn_static_pointer_cast<CoordinateOperation>( Transformation::createGeocentricTranslations( util::PropertyMap() .set(common::IdentifiedObject::NAME_KEY, name) .set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, metadata::Extent::WORLD), sourceCRS, targetCRS, 0.0, 0.0, 0.0, {})); } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress bool CoordinateOperationFactory::Private::hasPerfectAccuracyResult( const std::vector<CoordinateOperationNNPtr> &res, const Context &context) { auto resTmp = FilterResults(res, context.context, context.sourceCRS, context.targetCRS, true) .getRes(); for (const auto &op : resTmp) { const double acc = getAccuracy(op); if (acc == 0.0) { return true; } } return false; } //! @endcond // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress std::vector<CoordinateOperationNNPtr> CoordinateOperationFactory::Private::createOperations( const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, Private::Context &context) { #ifdef DEBUG EnterDebugLevel enterFunction; auto debugStr("createOperations(" + objectAsStr(sourceCRS.get()) + "," + objectAsStr(targetCRS.get()) + ")"); debugTrace(debugStr); #endif std::vector<CoordinateOperationNNPtr> res; const bool allowEmptyIntersection = true; auto boundSrc = dynamic_cast<const crs::BoundCRS *>(sourceCRS.get()); auto boundDst = dynamic_cast<const crs::BoundCRS *>(targetCRS.get()); const auto &sourceProj4Ext = boundSrc ? boundSrc->baseCRS()->getExtensionProj4() : sourceCRS->getExtensionProj4(); const auto &targetProj4Ext = boundDst ? boundDst->baseCRS()->getExtensionProj4() : targetCRS->getExtensionProj4(); if (!sourceProj4Ext.empty() || !targetProj4Ext.empty()) { auto sourceProjExportable = dynamic_cast<const io::IPROJStringExportable *>( boundSrc ? boundSrc : sourceCRS.get()); auto targetProjExportable = dynamic_cast<const io::IPROJStringExportable *>( boundDst ? boundDst : targetCRS.get()); if (!sourceProjExportable) { throw InvalidOperation("Source CRS is not PROJ exportable"); } if (!targetProjExportable) { throw InvalidOperation("Target CRS is not PROJ exportable"); } auto projFormatter = io::PROJStringFormatter::create(); projFormatter->setCRSExport(true); projFormatter->setLegacyCRSToCRSContext(true); projFormatter->startInversion(); sourceProjExportable->_exportToPROJString(projFormatter.get()); auto geogSrc = dynamic_cast<const crs::GeographicCRS *>(sourceCRS.get()); if (geogSrc) { auto tmpFormatter = io::PROJStringFormatter::create(); geogSrc->addAngularUnitConvertAndAxisSwap(tmpFormatter.get()); projFormatter->ingestPROJString(tmpFormatter->toString()); } projFormatter->stopInversion(); targetProjExportable->_exportToPROJString(projFormatter.get()); auto geogDst = dynamic_cast<const crs::GeographicCRS *>(targetCRS.get()); if (geogDst) { auto tmpFormatter = io::PROJStringFormatter::create(); geogDst->addAngularUnitConvertAndAxisSwap(tmpFormatter.get()); projFormatter->ingestPROJString(tmpFormatter->toString()); } const auto PROJString = projFormatter->toString(); auto properties = util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, buildTransfName(sourceCRS->nameStr(), targetCRS->nameStr())); res.emplace_back(SingleOperation::createPROJBased( properties, PROJString, sourceCRS, targetCRS, {})); return res; } auto geodSrc = dynamic_cast<const crs::GeodeticCRS *>(sourceCRS.get()); auto geodDst = dynamic_cast<const crs::GeodeticCRS *>(targetCRS.get()); auto geogSrc = dynamic_cast<const crs::GeographicCRS *>(sourceCRS.get()); auto geogDst = dynamic_cast<const crs::GeographicCRS *>(targetCRS.get()); auto vertSrc = dynamic_cast<const crs::VerticalCRS *>(sourceCRS.get()); auto vertDst = dynamic_cast<const crs::VerticalCRS *>(targetCRS.get()); // First look-up if the registry provide us with operations. auto derivedSrc = dynamic_cast<const crs::DerivedCRS *>(sourceCRS.get()); auto derivedDst = dynamic_cast<const crs::DerivedCRS *>(targetCRS.get()); auto authFactory = context.context->getAuthorityFactory(); if (authFactory && (derivedSrc == nullptr || !derivedSrc->baseCRS()->_isEquivalentTo( targetCRS.get(), util::IComparable::Criterion::EQUIVALENT)) && (derivedDst == nullptr || !derivedDst->baseCRS()->_isEquivalentTo( sourceCRS.get(), util::IComparable::Criterion::EQUIVALENT))) { bool doFilterAndCheckPerfectOp = true; res = findOpsInRegistryDirect(sourceCRS, targetCRS, context.context); if (!sourceCRS->_isEquivalentTo(targetCRS.get())) { auto resFromInverse = applyInverse( findOpsInRegistryDirect(targetCRS, sourceCRS, context.context)); res.insert(res.end(), resFromInverse.begin(), resFromInverse.end()); // If we get at least a result with perfect accuracy, do not // bother generating synthetic transforms. if (hasPerfectAccuracyResult(res, context)) { return res; } doFilterAndCheckPerfectOp = false; bool sameGeodeticDatum = false; if (geodSrc && geodDst) { const auto &srcDatum = geodSrc->datum(); const auto &dstDatum = geodDst->datum(); sameGeodeticDatum = srcDatum != nullptr && dstDatum != nullptr && srcDatum->_isEquivalentTo( dstDatum.get(), util::IComparable::Criterion::EQUIVALENT); } // There's no direct transformation from NAVD88 height to WGS84, // so try to research all transformations from NAVD88 to another // intermediate GeographicCRS. if (res.empty() && !context.inCreateOperationsGeogToVertWithIntermediate && geogSrc && vertDst) { res = createOperationsGeogToVertWithIntermediate( sourceCRS, targetCRS, context); } else if (res.empty() && !context.inCreateOperationsGeogToVertWithIntermediate && geogDst && vertSrc) { res = applyInverse(createOperationsGeogToVertWithIntermediate( targetCRS, sourceCRS, context)); } if (res.empty() && !sameGeodeticDatum && !context.inCreateOperationsWithDatumPivotAntiRecursion && geodSrc && geodDst) { // If we still didn't find a transformation, and that the source // and target are GeodeticCRS, then go through their underlying // datum to find potential transformations between other // GeodeticRSs // that are made of those datum // The typical example is if transforming between two // GeographicCRS, // but transformations are only available between their // corresponding geocentric CRS. const auto &srcDatum = geodSrc->datum(); const auto &dstDatum = geodDst->datum(); if (srcDatum != nullptr && dstDatum != nullptr) { createOperationsWithDatumPivot(res, sourceCRS, targetCRS, geodSrc, geodDst, context); doFilterAndCheckPerfectOp = !res.empty(); } } // NAD27 to NAD83 has tens of results already. No need to look // for a pivot if (!sameGeodeticDatum && ((res.empty() && context.context->getAllowUseIntermediateCRS() == CoordinateOperationContext::IntermediateCRSUse:: IF_NO_DIRECT_TRANSFORMATION) || context.context->getAllowUseIntermediateCRS() == CoordinateOperationContext::IntermediateCRSUse::ALWAYS || getenv("PROJ_FORCE_SEARCH_PIVOT"))) { auto resWithIntermediate = findsOpsInRegistryWithIntermediate( sourceCRS, targetCRS, context.context); res.insert(res.end(), resWithIntermediate.begin(), resWithIntermediate.end()); doFilterAndCheckPerfectOp = true; } } if (doFilterAndCheckPerfectOp) { // If we get at least a result with perfect accuracy, do not bother // generating synthetic transforms. if (hasPerfectAccuracyResult(res, context)) { return res; } } } // Special case if both CRS are geodetic if (geodSrc && geodDst && !derivedSrc && !derivedDst) { if (geodSrc->ellipsoid()->celestialBody() != geodDst->ellipsoid()->celestialBody()) { throw util::UnsupportedOperationException( "Source and target ellipsoid do not belong to the same " "celestial body"); } if (geogSrc && geogDst) { return createOperationsGeogToGeog(res, sourceCRS, targetCRS, geogSrc, geogDst); } const bool isSrcGeocentric = geodSrc->isGeocentric(); const bool isSrcGeographic = geogSrc != nullptr; const bool isTargetGeocentric = geodDst->isGeocentric(); const bool isTargetGeographic = geogDst != nullptr; if (((isSrcGeocentric && isTargetGeographic) || (isSrcGeographic && isTargetGeocentric)) && geodSrc->datum() != nullptr && geodDst->datum() != nullptr) { // Same datum ? if (geodSrc->datum()->_isEquivalentTo( geodDst->datum().get(), util::IComparable::Criterion::EQUIVALENT)) { res.emplace_back( createGeographicGeocentric(sourceCRS, targetCRS)); } else if (isSrcGeocentric) { std::string interm_crs_name(geogDst->nameStr()); interm_crs_name += " (geocentric)"; auto interm_crs = util::nn_static_pointer_cast<crs::CRS>( crs::GeodeticCRS::create( addDomains(util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, interm_crs_name), geogDst), NN_NO_CHECK(geogDst->datum()), NN_CHECK_ASSERT( util::nn_dynamic_pointer_cast<cs::CartesianCS>( geodSrc->coordinateSystem())))); auto opFirst = createBallparkGeocentricTranslation(sourceCRS, interm_crs); auto opSecond = createGeographicGeocentric(interm_crs, targetCRS); res.emplace_back(ConcatenatedOperation::createComputeMetadata( {opFirst, opSecond}, !allowEmptyIntersection)); } else { return applyInverse( createOperations(targetCRS, sourceCRS, context)); } return res; } if (isSrcGeocentric && isTargetGeocentric) { res.emplace_back( createBallparkGeocentricTranslation(sourceCRS, targetCRS)); return res; } // Transformation between two geodetic systems of unknown type // This should normally not be triggered with "standard" CRS res.emplace_back(createGeodToGeodPROJBased(sourceCRS, targetCRS)); return res; } // If the source is a derived CRS, then chain the inverse of its // deriving conversion, with transforms from its baseCRS to the // targetCRS if (derivedSrc) { auto opFirst = derivedSrc->derivingConversion()->inverse(); // Small optimization if the targetCRS is the baseCRS of the source // derivedCRS. if (derivedSrc->baseCRS()->_isEquivalentTo( targetCRS.get(), util::IComparable::Criterion::EQUIVALENT)) { res.emplace_back(opFirst); return res; } auto opsSecond = createOperations(derivedSrc->baseCRS(), targetCRS, context); for (const auto &opSecond : opsSecond) { try { res.emplace_back(ConcatenatedOperation::createComputeMetadata( {opFirst, opSecond}, !allowEmptyIntersection)); } catch (const InvalidOperationEmptyIntersection &) { } } return res; } // reverse of previous case if (derivedDst) { return applyInverse(createOperations(targetCRS, sourceCRS, context)); } if (boundSrc && geogDst) { const auto &hubSrc = boundSrc->hubCRS(); auto hubSrcGeog = dynamic_cast<const crs::GeographicCRS *>(hubSrc.get()); auto geogCRSOfBaseOfBoundSrc = boundSrc->baseCRS()->extractGeographicCRS(); // Is it: boundCRS to a geogCRS that is the same as the hubCRS ? if (hubSrcGeog && geogCRSOfBaseOfBoundSrc && (hubSrcGeog->_isEquivalentTo( geogDst, util::IComparable::Criterion::EQUIVALENT) || hubSrcGeog->is2DPartOf3D(NN_NO_CHECK(geogDst)))) { if (boundSrc->baseCRS() == geogCRSOfBaseOfBoundSrc) { // Optimization to avoid creating a useless concatenated // operation res.emplace_back(boundSrc->transformation()); return res; } auto opsFirst = createOperations(boundSrc->baseCRS(), NN_NO_CHECK(geogCRSOfBaseOfBoundSrc), context); if (!opsFirst.empty()) { for (const auto &opFirst : opsFirst) { try { res.emplace_back( ConcatenatedOperation::createComputeMetadata( {opFirst, boundSrc->transformation()}, !allowEmptyIntersection)); } catch (const InvalidOperationEmptyIntersection &) { } } if (!res.empty()) { return res; } } // If the datum are equivalent, this is also fine } else if (geogCRSOfBaseOfBoundSrc && hubSrcGeog->datum() && geogDst->datum() && hubSrcGeog->datum()->_isEquivalentTo( geogDst->datum().get(), util::IComparable::Criterion::EQUIVALENT)) { auto opsFirst = createOperations(boundSrc->baseCRS(), NN_NO_CHECK(geogCRSOfBaseOfBoundSrc), context); auto opsLast = createOperations(hubSrc, targetCRS, context); if (!opsFirst.empty() && !opsLast.empty()) { for (const auto &opFirst : opsFirst) { for (const auto &opLast : opsLast) { try { res.emplace_back( ConcatenatedOperation::createComputeMetadata( {opFirst, boundSrc->transformation(), opLast}, !allowEmptyIntersection)); } catch (const InvalidOperationEmptyIntersection &) { } } } if (!res.empty()) { return res; } } // Consider WGS 84 and NAD83 as equivalent in that context if the // geogCRSOfBaseOfBoundSrc ellipsoid is Clarke66 (for NAD27) // Case of "+proj=latlong +ellps=clrk66 // +nadgrids=ntv1_can.dat,conus" // to "+proj=latlong +datum=NAD83" } else if (geogCRSOfBaseOfBoundSrc && hubSrcGeog->datum() && geogDst->datum() && geogCRSOfBaseOfBoundSrc->ellipsoid()->_isEquivalentTo( datum::Ellipsoid::CLARKE_1866.get(), util::IComparable::Criterion::EQUIVALENT) && hubSrcGeog->datum()->_isEquivalentTo( datum::GeodeticReferenceFrame::EPSG_6326.get(), util::IComparable::Criterion::EQUIVALENT) && geogDst->datum()->_isEquivalentTo( datum::GeodeticReferenceFrame::EPSG_6269.get(), util::IComparable::Criterion::EQUIVALENT)) { auto nnGeogCRSOfBaseOfBoundSrc = NN_NO_CHECK(geogCRSOfBaseOfBoundSrc); if (boundSrc->baseCRS()->_isEquivalentTo( nnGeogCRSOfBaseOfBoundSrc.get(), util::IComparable::Criterion::EQUIVALENT)) { auto transf = boundSrc->transformation()->shallowClone(); transf->setProperties(util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, buildTransfName(boundSrc->baseCRS()->nameStr(), targetCRS->nameStr()))); transf->setCRSs(boundSrc->baseCRS(), targetCRS, nullptr); res.emplace_back(transf); return res; } else { auto opsFirst = createOperations( boundSrc->baseCRS(), nnGeogCRSOfBaseOfBoundSrc, context); auto transf = boundSrc->transformation()->shallowClone(); transf->setProperties(util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, buildTransfName(nnGeogCRSOfBaseOfBoundSrc->nameStr(), targetCRS->nameStr()))); transf->setCRSs(nnGeogCRSOfBaseOfBoundSrc, targetCRS, nullptr); if (!opsFirst.empty()) { for (const auto &opFirst : opsFirst) { try { res.emplace_back( ConcatenatedOperation::createComputeMetadata( {opFirst, transf}, !allowEmptyIntersection)); } catch (const InvalidOperationEmptyIntersection &) { } } if (!res.empty()) { return res; } } } } if (hubSrcGeog && hubSrcGeog->_isEquivalentTo( geogDst, util::IComparable::Criterion::EQUIVALENT) && dynamic_cast<const crs::VerticalCRS *>(boundSrc->baseCRS().get())) { res.emplace_back(boundSrc->transformation()); return res; } if (hubSrcGeog && geogCRSOfBaseOfBoundSrc) { // This one should go to the above 'Is it: boundCRS to a geogCRS // that is the same as the hubCRS ?' case auto opsFirst = createOperations(sourceCRS, hubSrc, context); auto opsLast = createOperations(hubSrc, targetCRS, context); if (!opsFirst.empty() && !opsLast.empty()) { for (const auto &opFirst : opsFirst) { for (const auto &opLast : opsLast) { // Exclude artificial transformations from the hub // to the target CRS if (!opLast->hasBallparkTransformation()) { try { res.emplace_back( ConcatenatedOperation:: createComputeMetadata( {opFirst, opLast}, !allowEmptyIntersection)); } catch ( const InvalidOperationEmptyIntersection &) { } } } } if (!res.empty()) { return res; } } } auto vertCRSOfBaseOfBoundSrc = dynamic_cast<const crs::VerticalCRS *>(boundSrc->baseCRS().get()); if (vertCRSOfBaseOfBoundSrc && hubSrcGeog) { auto opsFirst = createOperations(sourceCRS, hubSrc, context); if (context.skipHorizontalTransformation) { if (!opsFirst.empty()) return opsFirst; } else { auto opsSecond = createOperations(hubSrc, targetCRS, context); if (!opsFirst.empty() && !opsSecond.empty()) { for (const auto &opFirst : opsFirst) { for (const auto &opLast : opsSecond) { // Exclude artificial transformations from the hub // to the target CRS if (!opLast->hasBallparkTransformation()) { try { res.emplace_back( ConcatenatedOperation:: createComputeMetadata( {opFirst, opLast}, !allowEmptyIntersection)); } catch ( const InvalidOperationEmptyIntersection &) { } } } } if (!res.empty()) { return res; } } } } return createOperations(boundSrc->baseCRS(), targetCRS, context); } // reverse of previous case if (geogSrc && boundDst) { return applyInverse(createOperations(targetCRS, sourceCRS, context)); } // vertCRS (as boundCRS with transformation to target vertCRS) to // vertCRS if (boundSrc && vertDst) { auto baseSrcVert = dynamic_cast<const crs::VerticalCRS *>(boundSrc->baseCRS().get()); const auto &hubSrc = boundSrc->hubCRS(); auto hubSrcVert = dynamic_cast<const crs::VerticalCRS *>(hubSrc.get()); if (baseSrcVert && hubSrcVert && vertDst->_isEquivalentTo( hubSrcVert, util::IComparable::Criterion::EQUIVALENT)) { res.emplace_back(boundSrc->transformation()); return res; } return createOperations(boundSrc->baseCRS(), targetCRS, context); } // reverse of previous case if (boundDst && vertSrc) { return applyInverse(createOperations(targetCRS, sourceCRS, context)); } if (vertSrc && vertDst) { const auto &srcDatum = vertSrc->datum(); const auto &dstDatum = vertDst->datum(); const bool equivalentVDatum = (srcDatum && dstDatum && srcDatum->_isEquivalentTo( dstDatum.get(), util::IComparable::Criterion::EQUIVALENT)); const double convSrc = vertSrc->coordinateSystem()->axisList()[0]->unit().conversionToSI(); const double convDst = vertDst->coordinateSystem()->axisList()[0]->unit().conversionToSI(); const double factor = convSrc / convDst; auto name = buildTransfName(sourceCRS->nameStr(), targetCRS->nameStr()); if (!equivalentVDatum) { name += BALLPARK_VERTICAL_TRANSFORMATION; auto conv = Transformation::createChangeVerticalUnit( util::PropertyMap().set(common::IdentifiedObject::NAME_KEY, name), sourceCRS, targetCRS, common::Scale(factor), {}); conv->setHasBallparkTransformation(true); res.push_back(conv); } else if (convSrc != convDst) { auto conv = Conversion::createChangeVerticalUnit( util::PropertyMap().set(common::IdentifiedObject::NAME_KEY, name), common::Scale(factor)); conv->setCRSs(sourceCRS, targetCRS, nullptr); res.push_back(conv); } return res; } // A bit odd case as we are comparing apples to oranges, but in case // the vertical unit differ, do something useful. if (vertSrc && geogDst) { if (vertSrc->identifiers().empty()) { const auto &vertSrcName = vertSrc->nameStr(); if (authFactory != nullptr && vertSrcName != "unnamed" && vertSrcName != "unknown") { auto matches = authFactory->createObjectsFromName( vertSrcName, {io::AuthorityFactory::ObjectType::VERTICAL_CRS}, false, 2); if (matches.size() == 1) { const auto &match = matches.front(); if (vertSrc->_isEquivalentTo( match.get(), util::IComparable::Criterion::EQUIVALENT) && !match->identifiers().empty()) { return createOperations( NN_NO_CHECK( util::nn_dynamic_pointer_cast<crs::VerticalCRS>( match)), targetCRS, context); } } } } const double convSrc = vertSrc->coordinateSystem()->axisList()[0]->unit().conversionToSI(); double convDst = 1.0; const auto &geogAxis = geogDst->coordinateSystem()->axisList(); if (geogAxis.size() == 3) { convDst = geogAxis[2]->unit().conversionToSI(); } const double factor = convSrc / convDst; auto conv = Transformation::createChangeVerticalUnit( util::PropertyMap().set( common::IdentifiedObject::NAME_KEY, buildTransfName(sourceCRS->nameStr(), targetCRS->nameStr()) + BALLPARK_VERTICAL_TRANSFORMATION_NO_ELLIPSOID_VERT_HEIGHT), sourceCRS, targetCRS, common::Scale(factor), {}); conv->setHasBallparkTransformation(true); res.push_back(conv); return res; } // reverse of previous case if (vertDst && geogSrc) { return applyInverse(createOperations(targetCRS, sourceCRS, context)); } // boundCRS to boundCRS using the same geographic hubCRS if (boundSrc && boundDst) { const auto &hubSrc = boundSrc->hubCRS(); auto hubSrcGeog = dynamic_cast<const crs::GeographicCRS *>(hubSrc.get()); const auto &hubDst = boundDst->hubCRS(); auto hubDstGeog = dynamic_cast<const crs::GeographicCRS *>(hubDst.get()); auto geogCRSOfBaseOfBoundSrc = boundSrc->baseCRS()->extractGeographicCRS(); auto geogCRSOfBaseOfBoundDst = boundDst->baseCRS()->extractGeographicCRS(); if (hubSrcGeog && hubDstGeog && hubSrcGeog->_isEquivalentTo( hubDstGeog, util::IComparable::Criterion::EQUIVALENT) && geogCRSOfBaseOfBoundSrc && geogCRSOfBaseOfBoundDst) { const bool firstIsNoOp = geogCRSOfBaseOfBoundSrc->_isEquivalentTo( boundSrc->baseCRS().get(), util::IComparable::Criterion::EQUIVALENT); const bool lastIsNoOp = geogCRSOfBaseOfBoundDst->_isEquivalentTo( boundDst->baseCRS().get(), util::IComparable::Criterion::EQUIVALENT); auto opsFirst = createOperations(boundSrc->baseCRS(), NN_NO_CHECK(geogCRSOfBaseOfBoundSrc), context); auto opsLast = createOperations(NN_NO_CHECK(geogCRSOfBaseOfBoundDst), boundDst->baseCRS(), context); if (!opsFirst.empty() && !opsLast.empty()) { const auto &opSecond = boundSrc->transformation(); auto opThird = boundDst->transformation()->inverse(); for (const auto &opFirst : opsFirst) { for (const auto &opLast : opsLast) { try { std::vector<CoordinateOperationNNPtr> ops; if (!firstIsNoOp) { ops.push_back(opFirst); } ops.push_back(opSecond); ops.push_back(opThird); if (!lastIsNoOp) { ops.push_back(opLast); } res.emplace_back( ConcatenatedOperation::createComputeMetadata( ops, !allowEmptyIntersection)); } catch (const InvalidOperationEmptyIntersection &) { } } } if (!res.empty()) { return res; } } } auto vertCRSOfBaseOfBoundSrc = boundSrc->baseCRS()->extractVerticalCRS(); auto vertCRSOfBaseOfBoundDst = boundDst->baseCRS()->extractVerticalCRS(); if (hubSrcGeog && hubDstGeog && hubSrcGeog->_isEquivalentTo( hubDstGeog, util::IComparable::Criterion::EQUIVALENT) && vertCRSOfBaseOfBoundSrc && vertCRSOfBaseOfBoundDst) { auto opsFirst = createOperations(sourceCRS, hubSrc, context); auto opsLast = createOperations(hubSrc, targetCRS, context); if (!opsFirst.empty() && !opsLast.empty()) { for (const auto &opFirst : opsFirst) { for (const auto &opLast : opsLast) { try { res.emplace_back( ConcatenatedOperation::createComputeMetadata( {opFirst, opLast}, !allowEmptyIntersection)); } catch (const InvalidOperationEmptyIntersection &) { } } } if (!res.empty()) { return res; } } } return createOperations(boundSrc->baseCRS(), boundDst->baseCRS(), context); } auto compoundSrc = dynamic_cast<crs::CompoundCRS *>(sourceCRS.get()); if (compoundSrc && geogDst) { const auto &componentsSrc = compoundSrc->componentReferenceSystems(); if (!componentsSrc.empty()) { std::vector<CoordinateOperationNNPtr> horizTransforms; auto srcGeogCRS = componentsSrc[0]->extractGeographicCRS(); if (srcGeogCRS) { horizTransforms = createOperations(componentsSrc[0], targetCRS, context); } std::vector<CoordinateOperationNNPtr> verticalTransforms; if (componentsSrc.size() >= 2 && componentsSrc[1]->extractVerticalCRS()) { struct SetSkipHorizontalTransform { Context &context; explicit SetSkipHorizontalTransform(Context &contextIn) : context(contextIn) { assert(!context.skipHorizontalTransformation); context.skipHorizontalTransformation = true; } ~SetSkipHorizontalTransform() { context.skipHorizontalTransformation = false; } }; SetSkipHorizontalTransform setSkipHorizontalTransform(context); verticalTransforms = createOperations(componentsSrc[1], targetCRS, context); bool foundRegisteredTransformWithAllGridsAvailable = false; for (const auto &op : verticalTransforms) { if (!op->identifiers().empty() && authFactory) { bool missingGrid = false; const auto gridsNeeded = op->gridsNeeded(authFactory->databaseContext()); for (const auto &gridDesc : gridsNeeded) { if (!gridDesc.available) { missingGrid = true; break; } } if (!missingGrid) { foundRegisteredTransformWithAllGridsAvailable = true; break; } } } if (!foundRegisteredTransformWithAllGridsAvailable && srcGeogCRS && !srcGeogCRS->_isEquivalentTo( geogDst, util::IComparable::Criterion::EQUIVALENT) && !srcGeogCRS->is2DPartOf3D(NN_NO_CHECK(geogDst))) { auto verticalTransformsTmp = createOperations( componentsSrc[1], NN_NO_CHECK(srcGeogCRS), context); bool foundRegisteredTransform = false; foundRegisteredTransformWithAllGridsAvailable = false; for (const auto &op : verticalTransformsTmp) { if (!op->identifiers().empty() && authFactory) { bool missingGrid = false; const auto gridsNeeded = op->gridsNeeded(authFactory->databaseContext()); for (const auto &gridDesc : gridsNeeded) { if (!gridDesc.available) { missingGrid = true; break; } } foundRegisteredTransform = true; if (!missingGrid) { foundRegisteredTransformWithAllGridsAvailable = true; break; } } } if (foundRegisteredTransformWithAllGridsAvailable) { verticalTransforms = verticalTransformsTmp; } else if (foundRegisteredTransform) { verticalTransforms.insert(verticalTransforms.end(), verticalTransformsTmp.begin(), verticalTransformsTmp.end()); } } } if (!horizTransforms.empty() && !verticalTransforms.empty()) { for (const auto &horizTransform : horizTransforms) { for (const auto &verticalTransform : verticalTransforms) { crs::GeographicCRSPtr interpolationGeogCRS; auto transformationVerticalTransform = dynamic_cast<const Transformation *>( verticalTransform.get()); if (transformationVerticalTransform) { auto interpTransformCRS = transformationVerticalTransform ->interpolationCRS(); if (interpTransformCRS) { auto nn_interpTransformCRS = NN_NO_CHECK(interpTransformCRS); if (dynamic_cast<const crs::GeographicCRS *>( nn_interpTransformCRS.get())) { interpolationGeogCRS = util::nn_dynamic_pointer_cast< crs::GeographicCRS>( nn_interpTransformCRS); } } } bool done = false; if (interpolationGeogCRS && (interpolationGeogCRS->_isEquivalentTo( srcGeogCRS.get(), util::IComparable::Criterion::EQUIVALENT) || interpolationGeogCRS->is2DPartOf3D( NN_NO_CHECK(srcGeogCRS.get())))) { auto srcToInterp = createOperations( componentsSrc[0], NN_NO_CHECK(interpolationGeogCRS), context); auto interpToCompoundHoriz = createOperations( NN_NO_CHECK(interpolationGeogCRS), componentsSrc[0], context); if (!srcToInterp.empty() && !interpToCompoundHoriz.empty()) { auto op = createHorizVerticalHorizPROJBased( sourceCRS, componentsSrc[0], srcToInterp.front(), verticalTransform, interpToCompoundHoriz.front(), interpolationGeogCRS); done = true; res.emplace_back( ConcatenatedOperation:: createComputeMetadata( {op, horizTransform}, !allowEmptyIntersection)); } } if (!done) { auto op = createHorizVerticalPROJBased( sourceCRS, targetCRS, horizTransform, verticalTransform); res.emplace_back(op); } } } return res; } else { return horizTransforms; } } } else if (compoundSrc && geodDst) { auto datum = geodDst->datum(); if (datum) { auto cs = cs::EllipsoidalCS::createLatitudeLongitudeEllipsoidalHeight( common::UnitOfMeasure::DEGREE, common::UnitOfMeasure::METRE); auto intermGeog3DCRS = util::nn_static_pointer_cast<crs::CRS>( crs::GeographicCRS::create( util::PropertyMap() .set(common::IdentifiedObject::NAME_KEY, geodDst->nameStr()) .set(common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, metadata::Extent::WORLD), NN_NO_CHECK(datum), cs)); auto sourceToGeog3DOps = createOperations(sourceCRS, intermGeog3DCRS, context); auto geog3DToTargetOps = createOperations(intermGeog3DCRS, targetCRS, context); if (!geog3DToTargetOps.empty()) { for (const auto &op : sourceToGeog3DOps) { res.emplace_back( ConcatenatedOperation::createComputeMetadata( {op, geog3DToTargetOps.front()}, !allowEmptyIntersection)); } return res; } } } // reverse of previous case auto compoundDst = dynamic_cast<const crs::CompoundCRS *>(targetCRS.get()); if (geodSrc && compoundDst) { return applyInverse(createOperations(targetCRS, sourceCRS, context)); } if (compoundSrc && compoundDst) { const auto &componentsSrc = compoundSrc->componentReferenceSystems(); const auto &componentsDst = compoundDst->componentReferenceSystems(); if (!componentsSrc.empty() && componentsSrc.size() == componentsDst.size()) { if (componentsSrc[0]->extractGeographicCRS() && componentsDst[0]->extractGeographicCRS()) { std::vector<CoordinateOperationNNPtr> verticalTransforms; if (componentsSrc.size() >= 2 && componentsSrc[1]->extractVerticalCRS() && componentsDst[1]->extractVerticalCRS()) { verticalTransforms = createOperations( componentsSrc[1], componentsDst[1], context); } for (const auto &verticalTransform : verticalTransforms) { auto interpolationGeogCRS = NN_NO_CHECK(componentsSrc[0]->extractGeographicCRS()); auto transformationVerticalTransform = dynamic_cast<const Transformation *>( verticalTransform.get()); if (transformationVerticalTransform) { auto interpTransformCRS = transformationVerticalTransform->interpolationCRS(); if (interpTransformCRS) { auto nn_interpTransformCRS = NN_NO_CHECK(interpTransformCRS); if (dynamic_cast<const crs::GeographicCRS *>( nn_interpTransformCRS.get())) { interpolationGeogCRS = NN_NO_CHECK(util::nn_dynamic_pointer_cast< crs::GeographicCRS>( nn_interpTransformCRS)); } } } else { auto compSrc0BoundCrs = dynamic_cast<crs::BoundCRS *>( componentsSrc[0].get()); auto compDst0BoundCrs = dynamic_cast<crs::BoundCRS *>( componentsDst[0].get()); if (compSrc0BoundCrs && compDst0BoundCrs && dynamic_cast<crs::GeographicCRS *>( compSrc0BoundCrs->hubCRS().get()) && compSrc0BoundCrs->hubCRS()->_isEquivalentTo( compDst0BoundCrs->hubCRS().get())) { interpolationGeogCRS = NN_NO_CHECK(util::nn_dynamic_pointer_cast< crs::GeographicCRS>( compSrc0BoundCrs->hubCRS())); } } auto opSrcCRSToGeogCRS = createOperations( componentsSrc[0], interpolationGeogCRS, context); auto opGeogCRStoDstCRS = createOperations( interpolationGeogCRS, componentsDst[0], context); for (const auto &opSrc : opSrcCRSToGeogCRS) { for (const auto &opDst : opGeogCRStoDstCRS) { auto op = createHorizVerticalHorizPROJBased( sourceCRS, targetCRS, opSrc, verticalTransform, opDst, interpolationGeogCRS); res.emplace_back(op); } } } if (verticalTransforms.empty()) { return createOperations(componentsSrc[0], componentsDst[0], context); } } } } // '+proj=longlat +ellps=GRS67 +nadgrids=@foo.gsb +type=crs' to // '+proj=longlat +ellps=GRS80 +nadgrids=@bar.gsb +geoidgrids=@bar.gtx // +type=crs' if (boundSrc && compoundDst) { const auto &componentsDst = compoundDst->componentReferenceSystems(); if (!componentsDst.empty()) { auto compDst0BoundCrs = dynamic_cast<crs::BoundCRS *>(componentsDst[0].get()); if (compDst0BoundCrs) { auto boundSrcHubAsGeogCRS = dynamic_cast<crs::GeographicCRS *>( boundSrc->hubCRS().get()); auto compDst0BoundCrsHubAsGeogCRS = dynamic_cast<crs::GeographicCRS *>( compDst0BoundCrs->hubCRS().get()); if (boundSrcHubAsGeogCRS && compDst0BoundCrsHubAsGeogCRS) { const auto &boundSrcHubAsGeogCRSDatum = boundSrcHubAsGeogCRS->datum(); const auto &compDst0BoundCrsHubAsGeogCRSDatum = compDst0BoundCrsHubAsGeogCRS->datum(); if (boundSrcHubAsGeogCRSDatum && compDst0BoundCrsHubAsGeogCRSDatum && boundSrcHubAsGeogCRSDatum->_isEquivalentTo( compDst0BoundCrsHubAsGeogCRSDatum.get())) { auto cs = cs::EllipsoidalCS:: createLatitudeLongitudeEllipsoidalHeight( common::UnitOfMeasure::DEGREE, common::UnitOfMeasure::METRE); auto intermGeog3DCRS = util::nn_static_pointer_cast< crs::CRS>(crs::GeographicCRS::create( util::PropertyMap() .set(common::IdentifiedObject::NAME_KEY, boundSrcHubAsGeogCRS->nameStr()) .set( common::ObjectUsage::DOMAIN_OF_VALIDITY_KEY, metadata::Extent::WORLD), NN_NO_CHECK(boundSrcHubAsGeogCRSDatum), cs)); auto sourceToGeog3DOps = createOperations( sourceCRS, intermGeog3DCRS, context); auto geog3DToTargetOps = createOperations( intermGeog3DCRS, targetCRS, context); for (const auto &opSrc : sourceToGeog3DOps) { for (const auto &opDst : geog3DToTargetOps) { if (opSrc->targetCRS() && opDst->sourceCRS() && !opSrc->targetCRS()->_isEquivalentTo( opDst->sourceCRS().get())) { // Shouldn't happen normally, but typically // one of them can be 2D and the other 3D // due to above createOperations() not // exactly setting the expected source and // target CRS. // So create an adapter operation... auto intermOps = createOperations( NN_NO_CHECK(opSrc->targetCRS()), NN_NO_CHECK(opDst->sourceCRS()), context); if (!intermOps.empty()) { res.emplace_back( ConcatenatedOperation:: createComputeMetadata( {opSrc, intermOps.front(), opDst}, !allowEmptyIntersection)); } } else { res.emplace_back( ConcatenatedOperation:: createComputeMetadata( {opSrc, opDst}, !allowEmptyIntersection)); } } } } } } } } // reverse of previous case if (boundDst && compoundSrc) { return applyInverse(createOperations(targetCRS, sourceCRS, context)); } return res; } //! @endcond // --------------------------------------------------------------------------- static crs::CRSNNPtr getResolvedCRS(const crs::CRSNNPtr &crs, const CoordinateOperationContextNNPtr &context) { const auto &authFactory = context->getAuthorityFactory(); auto projectedCrs = dynamic_cast<crs::ProjectedCRS *>(crs.get()); if (projectedCrs && authFactory) { const auto &ids = projectedCrs->identifiers(); if (!ids.empty() && projectedCrs->baseCRS()->identifiers().empty()) { const auto tmpAuthFactory = io::AuthorityFactory::create( authFactory->databaseContext(), *ids.front()->codeSpace()); try { auto resolvedCrs( tmpAuthFactory->createProjectedCRS(ids.front()->code())); if (resolvedCrs->isEquivalentTo( crs.get(), util::IComparable::Criterion::EQUIVALENT)) { return util::nn_static_pointer_cast<crs::CRS>(resolvedCrs); } } catch (const std::exception &) { } } } auto compoundCrs = dynamic_cast<crs::CompoundCRS *>(crs.get()); // If we get a CompoundCRS that has an EPSG code, but whose component CRS // lack one, typically from WKT2, this might be an issue to get proper // results in createOperations(), so import the CompoundCRS from the // registry, and if equivalent to the original one, then use the version // from the registry. if (compoundCrs && authFactory) { const auto &ids = compoundCrs->identifiers(); if (!ids.empty()) { const auto &components = compoundCrs->componentReferenceSystems(); bool hasMissingId = false; for (const auto &comp : components) { if (comp->identifiers().empty()) { hasMissingId = true; break; } } if (hasMissingId) { const auto tmpAuthFactory = io::AuthorityFactory::create( authFactory->databaseContext(), *ids.front()->codeSpace()); try { auto resolvedCrs( tmpAuthFactory->createCompoundCRS(ids.front()->code())); if (resolvedCrs->isEquivalentTo( crs.get(), util::IComparable::Criterion::EQUIVALENT)) { return util::nn_static_pointer_cast<crs::CRS>( resolvedCrs); } } catch (const std::exception &) { } } } } return crs; } // --------------------------------------------------------------------------- /** \brief Find a list of CoordinateOperation from sourceCRS to targetCRS. * * The operations are sorted with the most relevant ones first: by * descending * area (intersection of the transformation area with the area of interest, * or intersection of the transformation with the area of use of the CRS), * and * by increasing accuracy. Operations with unknown accuracy are sorted last, * whatever their area. * * @param sourceCRS source CRS. * @param targetCRS source CRS. * @param context Search context. * @return a list */ std::vector<CoordinateOperationNNPtr> CoordinateOperationFactory::createOperations( const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const CoordinateOperationContextNNPtr &context) const { // Look if we are called on CRS that have a link to a 'canonical' // BoundCRS // If so, use that one as input const auto &srcBoundCRS = sourceCRS->canonicalBoundCRS(); const auto &targetBoundCRS = targetCRS->canonicalBoundCRS(); auto l_sourceCRS = srcBoundCRS ? NN_NO_CHECK(srcBoundCRS) : sourceCRS; auto l_targetCRS = targetBoundCRS ? NN_NO_CHECK(targetBoundCRS) : targetCRS; auto l_resolvedSourceCRS = getResolvedCRS(l_sourceCRS, context); auto l_resolvedTargetCRS = getResolvedCRS(l_targetCRS, context); Private::Context contextPrivate(l_resolvedSourceCRS, l_resolvedTargetCRS, context); if (context->getSourceAndTargetCRSExtentUse() == CoordinateOperationContext::SourceTargetCRSExtentUse::INTERSECTION) { auto sourceCRSExtent(getExtent(l_resolvedSourceCRS)); auto targetCRSExtent(getExtent(l_resolvedTargetCRS)); if (sourceCRSExtent && targetCRSExtent && !sourceCRSExtent->intersects(NN_NO_CHECK(targetCRSExtent))) { return std::vector<CoordinateOperationNNPtr>(); } } return filterAndSort(Private::createOperations(l_resolvedSourceCRS, l_resolvedTargetCRS, contextPrivate), context, l_resolvedSourceCRS, l_resolvedTargetCRS); } // --------------------------------------------------------------------------- /** \brief Instantiate a CoordinateOperationFactory. */ CoordinateOperationFactoryNNPtr CoordinateOperationFactory::create() { return NN_NO_CHECK( CoordinateOperationFactory::make_unique<CoordinateOperationFactory>()); } // --------------------------------------------------------------------------- //! @cond Doxygen_Suppress InverseCoordinateOperation::~InverseCoordinateOperation() = default; // --------------------------------------------------------------------------- InverseCoordinateOperation::InverseCoordinateOperation( const CoordinateOperationNNPtr &forwardOperationIn, bool wktSupportsInversion) : forwardOperation_(forwardOperationIn), wktSupportsInversion_(wktSupportsInversion) {} // --------------------------------------------------------------------------- void InverseCoordinateOperation::setPropertiesFromForward() { setProperties( createPropertiesForInverse(forwardOperation_.get(), false, false)); setAccuracies(forwardOperation_->coordinateOperationAccuracies()); if (forwardOperation_->sourceCRS() && forwardOperation_->targetCRS()) { setCRSs(forwardOperation_.get(), true); } setHasBallparkTransformation( forwardOperation_->hasBallparkTransformation()); } // --------------------------------------------------------------------------- CoordinateOperationNNPtr InverseCoordinateOperation::inverse() const { return forwardOperation_; } // --------------------------------------------------------------------------- void InverseCoordinateOperation::_exportToPROJString( io::PROJStringFormatter *formatter) const { formatter->startInversion(); forwardOperation_->_exportToPROJString(formatter); formatter->stopInversion(); } // --------------------------------------------------------------------------- bool InverseCoordinateOperation::_isEquivalentTo( const util::IComparable *other, util::IComparable::Criterion criterion) const { auto otherICO = dynamic_cast<const InverseCoordinateOperation *>(other); if (otherICO == nullptr || !ObjectUsage::_isEquivalentTo(other, criterion)) { return false; } return inverse()->_isEquivalentTo(otherICO->inverse().get(), criterion); } // --------------------------------------------------------------------------- PROJBasedOperation::~PROJBasedOperation() = default; // --------------------------------------------------------------------------- PROJBasedOperation::PROJBasedOperation(const OperationMethodNNPtr &methodIn) : SingleOperation(methodIn) {} // --------------------------------------------------------------------------- PROJBasedOperationNNPtr PROJBasedOperation::create( const util::PropertyMap &properties, const std::string &PROJString, const crs::CRSPtr &sourceCRS, const crs::CRSPtr &targetCRS, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies) { auto method = OperationMethod::create( util::PropertyMap().set(common::IdentifiedObject::NAME_KEY, "PROJ-based operation method: " + PROJString), std::vector<GeneralOperationParameterNNPtr>{}); auto op = PROJBasedOperation::nn_make_shared<PROJBasedOperation>(method); op->assignSelf(op); op->projString_ = PROJString; if (sourceCRS && targetCRS) { op->setCRSs(NN_NO_CHECK(sourceCRS), NN_NO_CHECK(targetCRS), nullptr); } op->setProperties( addDefaultNameIfNeeded(properties, "PROJ-based coordinate operation")); op->setAccuracies(accuracies); return op; } // --------------------------------------------------------------------------- PROJBasedOperationNNPtr PROJBasedOperation::create( const util::PropertyMap &properties, const io::IPROJStringExportableNNPtr &projExportable, bool inverse, const crs::CRSNNPtr &sourceCRS, const crs::CRSNNPtr &targetCRS, const std::vector<metadata::PositionalAccuracyNNPtr> &accuracies, bool hasBallparkTransformation) { auto formatter = io::PROJStringFormatter::create(); if (inverse) { formatter->startInversion(); } projExportable->_exportToPROJString(formatter.get()); if (inverse) { formatter->stopInversion(); } auto projString = formatter->toString(); auto method = OperationMethod::create( util::PropertyMap().set(common::IdentifiedObject::NAME_KEY, "PROJ-based operation method (approximate): " + projString), std::vector<GeneralOperationParameterNNPtr>{}); auto op = PROJBasedOperation::nn_make_shared<PROJBasedOperation>(method); op->assignSelf(op); op->projString_ = projString; op->setCRSs(sourceCRS, targetCRS, nullptr); op->setProperties( addDefaultNameIfNeeded(properties, "PROJ-based coordinate operation")); op->setAccuracies(accuracies); op->projStringExportable_ = projExportable.as_nullable(); op->inverse_ = inverse; op->setHasBallparkTransformation(hasBallparkTransformation); return op; } // --------------------------------------------------------------------------- CoordinateOperationNNPtr PROJBasedOperation::inverse() const { if (projStringExportable_) { return util::nn_static_pointer_cast<CoordinateOperation>( PROJBasedOperation::create( createPropertiesForInverse(this, false, false), NN_NO_CHECK(projStringExportable_), !inverse_, NN_NO_CHECK(targetCRS()), NN_NO_CHECK(sourceCRS()), coordinateOperationAccuracies(), hasBallparkTransformation())); } auto formatter = io::PROJStringFormatter::create(); formatter->startInversion(); try { formatter->ingestPROJString(projString_); } catch (const io::ParsingException &e) { throw util::UnsupportedOperationException( std::string("PROJBasedOperation::inverse() failed: ") + e.what()); } formatter->stopInversion(); auto op = PROJBasedOperation::create( createPropertiesForInverse(this, false, false), formatter->toString(), targetCRS(), sourceCRS(), coordinateOperationAccuracies()); op->setHasBallparkTransformation(hasBallparkTransformation()); return util::nn_static_pointer_cast<CoordinateOperation>(op); } // --------------------------------------------------------------------------- void PROJBasedOperation::_exportToWKT(io::WKTFormatter *formatter) const { if (sourceCRS() && targetCRS()) { exportTransformationToWKT(formatter); return; } const bool isWKT2 = formatter->version() == io::WKTFormatter::Version::WKT2; if (!isWKT2) { throw io::FormattingException( "PROJBasedOperation can only be exported to WKT2"); } formatter->startNode(io::WKTConstants::CONVERSION, false); formatter->addQuotedString(nameStr()); method()->_exportToWKT(formatter); for (const auto &paramValue : parameterValues()) { paramValue->_exportToWKT(formatter); } formatter->endNode(); } // --------------------------------------------------------------------------- void PROJBasedOperation::_exportToJSON( io::JSONFormatter *formatter) const // throw(FormattingException) { auto &writer = formatter->writer(); auto objectContext(formatter->MakeObjectContext( (sourceCRS() && targetCRS()) ? "Transformation" : "Conversion", !identifiers().empty())); writer.AddObjKey("name"); auto l_name = nameStr(); if (l_name.empty()) { writer.Add("unnamed"); } else { writer.Add(l_name); } if (sourceCRS() && targetCRS()) { writer.AddObjKey("source_crs"); formatter->setAllowIDInImmediateChild(); sourceCRS()->_exportToJSON(formatter); writer.AddObjKey("target_crs"); formatter->setAllowIDInImmediateChild(); targetCRS()->_exportToJSON(formatter); } writer.AddObjKey("method"); formatter->setOmitTypeInImmediateChild(); formatter->setAllowIDInImmediateChild(); method()->_exportToJSON(formatter); const auto &l_parameterValues = parameterValues(); if (!l_parameterValues.empty()) { writer.AddObjKey("parameters"); { auto parametersContext(writer.MakeArrayContext(false)); for (const auto &genOpParamvalue : l_parameterValues) { formatter->setAllowIDInImmediateChild(); formatter->setOmitTypeInImmediateChild(); genOpParamvalue->_exportToJSON(formatter); } } } } // --------------------------------------------------------------------------- void PROJBasedOperation::_exportToPROJString( io::PROJStringFormatter *formatter) const { if (projStringExportable_) { if (inverse_) { formatter->startInversion(); } projStringExportable_->_exportToPROJString(formatter); if (inverse_) { formatter->stopInversion(); } return; } try { formatter->ingestPROJString(projString_); } catch (const io::ParsingException &e) { throw io::FormattingException( std::string("PROJBasedOperation::exportToPROJString() failed: ") + e.what()); } } // --------------------------------------------------------------------------- CoordinateOperationNNPtr PROJBasedOperation::_shallowClone() const { auto op = PROJBasedOperation::nn_make_shared<PROJBasedOperation>(*this); op->assignSelf(op); op->setCRSs(this, false); return util::nn_static_pointer_cast<CoordinateOperation>(op); } // --------------------------------------------------------------------------- std::set<GridDescription> PROJBasedOperation::gridsNeeded( const io::DatabaseContextPtr &databaseContext) const { std::set<GridDescription> res; try { auto formatterOut = io::PROJStringFormatter::create(); auto formatter = io::PROJStringFormatter::create(); formatter->ingestPROJString(exportToPROJString(formatterOut.get())); const auto usedGridNames = formatter->getUsedGridNames(); for (const auto &shortName : usedGridNames) { GridDescription desc; desc.shortName = shortName; if (databaseContext) { databaseContext->lookForGridInfo( desc.shortName, desc.fullName, desc.packageName, desc.url, desc.directDownload, desc.openLicense, desc.available); } res.insert(desc); } } catch (const io::ParsingException &) { } return res; } //! @endcond // --------------------------------------------------------------------------- } // namespace operation NS_PROJ_END