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 // This file is part of the ACTS project.
 //
 // Copyright (C) 2016 CERN for the benefit of the ACTS project
 //
 // This Source Code Form is subject to the terms of the Mozilla Public
 // License, v. 2.0. If a copy of the MPL was not distributed with this
 // file, You can obtain one at https://mozilla.org/MPL/2.0/.
 
 #include <boost/test/unit_test.hpp>
 
 #include "Acts/Definitions/Algebra.hpp"
 #include "Acts/Geometry/CuboidVolumeBounds.hpp"
 #include "Acts/Geometry/CylinderVolumeBounds.hpp"
 #include "Acts/Geometry/GeometryIdentifier.hpp"
 #include "Acts/Geometry/Portal.hpp"
 #include "Acts/Geometry/PortalLinkBase.hpp"
 #include "Acts/Geometry/TrackingGeometry.hpp"
 #include "Acts/Geometry/TrackingVolume.hpp"
 #include "Acts/Geometry/TrapezoidVolumeBounds.hpp"
 #include "Acts/Geometry/TrivialPortalLink.hpp"
 #include "Acts/Geometry/VolumeBounds.hpp"
 #include "Acts/Surfaces/AnnulusBounds.hpp"
 #include "Acts/Surfaces/BoundaryTolerance.hpp"
 #include "Acts/Surfaces/CylinderBounds.hpp"
 #include "Acts/Surfaces/PlaneSurface.hpp"
 #include "Acts/Surfaces/RadialBounds.hpp"
 #include "Acts/Surfaces/RectangleBounds.hpp"
 #include "Acts/Surfaces/SurfacePlacementBase.hpp"
 #include "Acts/Surfaces/TrapezoidBounds.hpp"
 #include "Acts/Utilities/Logger.hpp"
 #include "Acts/Visualization/ObjVisualization3D.hpp"
 #include "ActsPlugins/Detray/DetrayConversionUtils.hpp"
 #include "ActsPlugins/Detray/DetrayPayloadConverter.hpp"
 #include "ActsTests/CommonHelpers/CylindricalTrackingGeometry.hpp"
 #include "ActsTests/CommonHelpers/DetectorElementStub.hpp"
 #include "ActsTests/CommonHelpers/FloatComparisons.hpp"
 
 #include <memory>
 #include <numbers>
 
 #include <detray/io/backend/geometry_reader.hpp>
 #include <detray/io/backend/geometry_writer.hpp>
 #include <detray/io/backend/homogeneous_material_reader.hpp>
 #include <detray/io/backend/homogeneous_material_writer.hpp>
 #include <detray/io/backend/material_map_reader.hpp>
 #include <detray/io/backend/surface_grid_reader.hpp>
 #include <detray/io/frontend/definitions.hpp>
 #include <detray/io/frontend/detector_writer.hpp>
 #include <detray/io/frontend/detector_writer_config.hpp>
 #include <detray/io/frontend/payloads.hpp>
 #include <detray/io/json/json_io.hpp>
 #include <detray/plugins/svgtools/illustrator.hpp>
 #include <detray/plugins/svgtools/writer.hpp>
 #include <detray/utils/consistency_checker.hpp>
 #include <detray/utils/grid/detail/concepts.hpp>
 #include <nlohmann/json_fwd.hpp>
 #include <vecmem/memory/host_memory_resource.hpp>
 #include <vecmem/memory/memory_resource.hpp>
 
 #include "detray/geometry/tracking_volume.hpp"
 
 auto logger = Acts::getDefaultLogger("Test", Acts::Logging::INFO);
 
 using namespace Acts;
 using namespace ActsPlugins;
 
 namespace ActsTests {
 
 BOOST_AUTO_TEST_SUITE(DetrayConversion)
 
 BOOST_AUTO_TEST_CASE(DetrayTransformConversion) {
   auto transform = Transform3::Identity();
   transform.pretranslate(Vector3(1., 2., 3.));
   transform.rotate(Eigen::AngleAxisd(std::numbers::pi / 2., Vector3::UnitZ()));
 
   detray::io::transform_payload payload =
       DetrayConversionUtils::convertTransform(transform);
   // Transform is correctly translated
   CHECK_CLOSE_ABS(payload.tr[0u], 1., std::numeric_limits<double>::epsilon());
   CHECK_CLOSE_ABS(payload.tr[1u], 2., std::numeric_limits<double>::epsilon());
   CHECK_CLOSE_ABS(payload.tr[2u], 3., std::numeric_limits<double>::epsilon());
   // Rotation is correctly translated
   RotationMatrix3 rotation = transform.rotation().transpose();
   CHECK_CLOSE_ABS(payload.rot[0u], rotation(0, 0),
                   std::numeric_limits<double>::epsilon());
   CHECK_CLOSE_ABS(payload.rot[1u], rotation(0, 1),
                   std::numeric_limits<double>::epsilon());
   CHECK_CLOSE_ABS(payload.rot[2u], rotation(0, 2),
                   std::numeric_limits<double>::epsilon());
   CHECK_CLOSE_ABS(payload.rot[3u], rotation(1, 0),
                   std::numeric_limits<double>::epsilon());
   CHECK_CLOSE_ABS(payload.rot[4u], rotation(1, 1),
                   std::numeric_limits<double>::epsilon());
   CHECK_CLOSE_ABS(payload.rot[5u], rotation(1, 2),
                   std::numeric_limits<double>::epsilon());
   CHECK_CLOSE_ABS(payload.rot[6u], rotation(2, 0),
                   std::numeric_limits<double>::epsilon());
   CHECK_CLOSE_ABS(payload.rot[7u], rotation(2, 1),
                   std::numeric_limits<double>::epsilon());
   CHECK_CLOSE_ABS(payload.rot[8u], rotation(2, 2),
                   std::numeric_limits<double>::epsilon());
 }
 
 BOOST_AUTO_TEST_CASE(DetrayMaskConversion) {
   // Test AnnulusBounds conversion
   {
     Acts::AnnulusBounds annulus(10., 20., 0.5, 1.5, {1., 2.}, 1.);
     auto payload = DetrayPayloadConverter::convertMask(annulus, false);
     BOOST_CHECK(payload.shape == detray::io::shape_id::annulus2);
     using enum detray::annulus2D::boundaries;
     CHECK_CLOSE_ABS(payload.boundaries[e_min_r], 10., 1e-10);  // min_r
     CHECK_CLOSE_ABS(payload.boundaries[e_max_r], 20., 1e-10);  // max_r
     CHECK_CLOSE_ABS(payload.boundaries[e_min_phi_rel], 0.5,
                     1e-10);  // min_phi_rel
     CHECK_CLOSE_ABS(payload.boundaries[e_max_phi_rel], 1.5,
                     1e-10);  // max_phi_rel
     CHECK_CLOSE_ABS(payload.boundaries[e_average_phi], 1.,
                     1e-10);                                     // average_phi
     CHECK_CLOSE_ABS(payload.boundaries[e_shift_x], 1., 1e-10);  // shift_x
     CHECK_CLOSE_ABS(payload.boundaries[e_shift_y], 2., 1e-10);  // shift_y
   }
 
   // Test RectangleBounds conversion
   {
     Acts::RectangleBounds rectangle(5., 10.);  // symmetric around origin
     auto payload = DetrayPayloadConverter::convertMask(rectangle, false);
     BOOST_CHECK(payload.shape == detray::io::shape_id::rectangle2);
     using enum detray::rectangle2D::boundaries;
     CHECK_CLOSE_ABS(payload.boundaries[e_half_x], 5., 1e-10);   // half_x
     CHECK_CLOSE_ABS(payload.boundaries[e_half_y], 10., 1e-10);  // half_y
   }
 
   // Test CylinderBounds conversion (normal and portal)
   {
     Acts::CylinderBounds cylinder(50., 100.);
     auto payload = DetrayPayloadConverter::convertMask(cylinder, false);
     BOOST_CHECK(payload.shape == detray::io::shape_id::cylinder2);
     using enum detray::concentric_cylinder2D::boundaries;
     CHECK_CLOSE_ABS(payload.boundaries[e_r], 50., 1e-10);          // r
     CHECK_CLOSE_ABS(payload.boundaries[e_lower_z], -100., 1e-10);  // lower_z
     CHECK_CLOSE_ABS(payload.boundaries[e_upper_z], 100., 1e-10);   // upper_z
 
     // Test portal case
     auto portalPayload = DetrayPayloadConverter::convertMask(cylinder, true);
     BOOST_CHECK(portalPayload.shape == detray::io::shape_id::portal_cylinder2);
     CHECK_CLOSE_ABS(portalPayload.boundaries[e_r], 50., 1e-10);  // r
     CHECK_CLOSE_ABS(portalPayload.boundaries[e_lower_z], -100.,
                     1e-10);  // lower_z
     CHECK_CLOSE_ABS(portalPayload.boundaries[e_upper_z], 100.,
                     1e-10);  // upper_z
   }
 
   // Test TrapezoidBounds conversion
   {
     Acts::TrapezoidBounds trapezoid(4., 8., 10.,
                                     0.);  // minHalfX, maxHalfX, halfY
     auto payload = DetrayPayloadConverter::convertMask(trapezoid, false);
     BOOST_CHECK(payload.shape == detray::io::shape_id::trapezoid2);
     using enum detray::trapezoid2D::boundaries;
     CHECK_CLOSE_ABS(payload.boundaries[e_half_length_0], 4.,
                     1e-10);  // half_length_0
     CHECK_CLOSE_ABS(payload.boundaries[e_half_length_1], 8.,
                     1e-10);  // half_length_1
     CHECK_CLOSE_ABS(payload.boundaries[e_half_length_2], 10.,
                     1e-10);  // half_length_2
     CHECK_CLOSE_ABS(payload.boundaries[e_divisor], 1. / (2. * 10.),
                     1e-10);  // divisor
   }
 
   // Test RadialBounds conversion
   {
     Acts::RadialBounds radial(5.,
                               15);  // minR, maxR, minPhi, maxPhi (full azimuth)
     auto payload = DetrayPayloadConverter::convertMask(radial, false);
     BOOST_CHECK(payload.shape == detray::io::shape_id::ring2);
     using enum detray::ring2D::boundaries;
     CHECK_CLOSE_ABS(payload.boundaries[e_inner_r], 5., 1e-10);   // inner_r
     CHECK_CLOSE_ABS(payload.boundaries[e_outer_r], 15., 1e-10);  // outer_r
   }
 }
 
 BOOST_AUTO_TEST_CASE(DetrayMaskConversionErrors) {
   // Test non-symmetric RectangleBounds throws
   // The regular rectangle bounds constructor does not allow this, but let's
   // test it anyway.
   {
     std::array<double, Acts::RectangleBounds::eSize> values = {
         -2., -3., 5., 4.};  // minX, minY, maxX, maxY
     Acts::RectangleBounds asymmetricRect(values);
     BOOST_CHECK_THROW(
         DetrayPayloadConverter::convertMask(asymmetricRect, false),
         std::runtime_error);
   }
 
   // Test partial azimuth RadialBounds throws
   {
     Acts::RadialBounds partialRadial(5., 15., 0.5 * std::numbers::pi);
     BOOST_CHECK_THROW(DetrayPayloadConverter::convertMask(partialRadial, false),
                       std::runtime_error);
   }
 
   {
     Acts::RadialBounds partialRadial(
         5., 15., std::numbers::pi,
         0.75 * std::numbers::pi);  // full azimuth, but internal rotation
     BOOST_CHECK_THROW(DetrayPayloadConverter::convertMask(partialRadial, false),
                       std::runtime_error);
   }
 
   // Test unsupported disc bounds type throws
   {
     class MockDiscBounds final : public Acts::SurfaceBounds {
      public:
       BoundsType type() const final { return BoundsType::eDisc; }
       bool isCartesian() const final { return true; }
       SquareMatrix2 boundToCartesianJacobian(
           const Vector2& /*lposition*/) const final {
         return SquareMatrix2::Identity();
       }
       SquareMatrix2 boundToCartesianMetric(
           const Vector2& /*lposition*/) const final {
         return SquareMatrix2::Identity();
       }
       std::vector<double> values() const final { return {}; }
       Vector2 center() const final { return Vector2::Zero(); }
       bool inside(const Vector2& /*lposition*/) const final { return false; }
       Vector2 closestPoint(const Vector2& lposition,
                            const SquareMatrix2& /*metric*/) const final {
         return lposition;
       }
       bool inside(const Acts::Vector2& /*loc*/,
                   const Acts::BoundaryTolerance& /*bcheck*/) const final {
         return false;
       }
       std::ostream& toStream(std::ostream& sl) const final { return sl; }
     };
     MockDiscBounds mockDisc;
     BOOST_CHECK_THROW(DetrayPayloadConverter::convertMask(mockDisc, false),
                       std::runtime_error);
   }
 
   // Test unknown bounds type returns unknown shape
   {
     class MockUnknownBounds final : public Acts::SurfaceBounds {
      public:
       BoundsType type() const final {
         return static_cast<BoundsType>(999);
       }  // Invalid type
       bool isCartesian() const final { return true; }
       SquareMatrix2 boundToCartesianJacobian(
           const Vector2& /*lposition*/) const final {
         return SquareMatrix2::Identity();
       }
       SquareMatrix2 boundToCartesianMetric(
           const Vector2& /*lposition*/) const final {
         return SquareMatrix2::Identity();
       }
       std::vector<double> values() const final { return {}; }
       Vector2 center() const final { return Vector2::Zero(); }
       bool inside(const Vector2& /*lposition*/) const final { return false; }
       Vector2 closestPoint(const Vector2& lposition,
                            const SquareMatrix2& /*metric*/) const final {
         return lposition;
       }
       bool inside(const Acts::Vector2& /*loc*/,
                   const Acts::BoundaryTolerance& /*bcheck*/) const final {
         return false;
       }
       std::ostream& toStream(std::ostream& sl) const final { return sl; }
     };
     MockUnknownBounds mockUnknown;
     auto payload = DetrayPayloadConverter::convertMask(mockUnknown, false);
     BOOST_CHECK(payload.shape == detray::io::shape_id::unknown);
   }
 }
 
 BOOST_AUTO_TEST_CASE(DetraySurfaceConversionTests) {
   auto gctx = GeometryContext::dangerouslyDefaultConstruct();
 
   // Create a transform with translation and rotation
   Transform3 transform = Transform3::Identity();
   transform.pretranslate(Vector3(1., 2., 3.));
   transform.rotate(Eigen::AngleAxisd(0.5 * std::numbers::pi, Vector3::UnitZ()));
 
   // Create rectangle bounds
   auto bounds = std::make_shared<RectangleBounds>(5., 10.);
 
   // Create a plane surface
   auto surface = Surface::makeShared<PlaneSurface>(transform, bounds);
 
   // Test surface conversion with Identifier strategy
   {
     DetrayPayloadConverter::Config cfg;
     cfg.sensitiveStrategy =
         DetrayPayloadConverter::Config::SensitiveStrategy::Identifier;
 
     DetrayPayloadConverter converter(cfg);
 
     // Test passive surface (default)
     {
       auto payload = converter.convertSurface(gctx, *surface);
 
       // Check type
       BOOST_CHECK(payload.type == detray::surface_id::e_passive);
 
       // Check transform
       CHECK_CLOSE_ABS(payload.transform.tr[0], 1., 1e-10);
       CHECK_CLOSE_ABS(payload.transform.tr[1], 2., 1e-10);
       CHECK_CLOSE_ABS(payload.transform.tr[2], 3., 1e-10);
 
       // Check mask
       BOOST_CHECK(payload.masks.at(0).shape ==
                   detray::io::shape_id::rectangle2);
       using enum detray::rectangle2D::boundaries;
       CHECK_CLOSE_ABS(payload.masks.at(0).boundaries[e_half_x], 5., 1e-10);
       CHECK_CLOSE_ABS(payload.masks.at(0).boundaries[e_half_y], 10., 1e-10);
     }
 
     // Test sensitive surface
     {
       auto sensitiveSurface =
           Surface::makeShared<PlaneSurface>(transform, bounds);
       sensitiveSurface->assignGeometryId(GeometryIdentifier().withSensitive(1));
 
       auto payload = converter.convertSurface(gctx, *sensitiveSurface);
 
       BOOST_CHECK(payload.type == detray::surface_id::e_sensitive);
     }
   }
 
   // Test surface conversion with DetectorElement strategy
   {
     DetrayPayloadConverter::Config cfg;
     cfg.sensitiveStrategy =
         DetrayPayloadConverter::Config::SensitiveStrategy::DetectorElement;
 
     DetrayPayloadConverter converter(cfg);
 
     // Test passive surface (no detector element)
     {
       auto payload = converter.convertSurface(gctx, *surface);
       BOOST_CHECK(payload.type == detray::surface_id::e_passive);
     }
 
     // Test sensitive surface with detector element
     {
       // Create detector element first
       auto detElement =
           std::make_shared<DetectorElementStub>(transform, bounds, 1.0);
 
       // Create surface using the detector element
       auto sensitiveSurface =
           Surface::makeShared<PlaneSurface>(bounds, *detElement);
 
       auto payload = converter.convertSurface(gctx, *sensitiveSurface);
       BOOST_CHECK(payload.type == detray::surface_id::e_sensitive);
     }
   }
 }
 
 BOOST_AUTO_TEST_CASE(DetrayPortalConversionTests) {
   auto gctx = GeometryContext::dangerouslyDefaultConstruct();
 
   // Create a transform with translation and rotation
   Transform3 transform = Transform3::Identity();
   transform.pretranslate(Vector3(1., 2., 3.));
   transform.rotate(Eigen::AngleAxisd(0.5 * std::numbers::pi, Vector3::UnitZ()));
 
   // Create rectangle bounds
   auto bounds = std::make_shared<RectangleBounds>(5., 10.);
 
   auto cvlBounds = std::make_shared<CylinderVolumeBounds>(5., 10., 10.);
   TrackingVolume tv(transform, cvlBounds);
 
   // Create a plane surface
   auto surface = Surface::makeShared<PlaneSurface>(transform, bounds);
 
   // Create a portal with the surface
   auto portal = std::make_shared<Portal>(Direction::AlongNormal(), surface, tv);
 
   // Test portal conversion
   {
     DetrayPayloadConverter::Config cfg;
     DetrayPayloadConverter converter(cfg);
     auto payload = converter.convertSurface(gctx, portal->surface(), true);
 
     // Portal should always be passive
     BOOST_CHECK(payload.type == detray::surface_id::e_portal);
 
     // Check transform is preserved
     CHECK_CLOSE_ABS(payload.transform.tr[0], 1., 1e-10);
     CHECK_CLOSE_ABS(payload.transform.tr[1], 2., 1e-10);
     CHECK_CLOSE_ABS(payload.transform.tr[2], 3., 1e-10);
 
     // Check mask - should be same as surface since rectangle doesn't have
     // special portal handling
     BOOST_CHECK(payload.masks.at(0).shape == detray::io::shape_id::rectangle2);
     using enum detray::rectangle2D::boundaries;
     CHECK_CLOSE_ABS(payload.masks.at(0).boundaries[e_half_x], 5., 1e-10);
     CHECK_CLOSE_ABS(payload.masks.at(0).boundaries[e_half_y], 10., 1e-10);
   }
 }
 
 BOOST_AUTO_TEST_CASE(DetrayVolumeConversionTests) {
   const auto gctx = GeometryContext::dangerouslyDefaultConstruct();
   // Create a transform with translation and rotation
   Transform3 transform = Transform3::Identity();
   transform.pretranslate(Vector3(1., 2., 3.));
   transform.rotate(Eigen::AngleAxisd(0.5 * std::numbers::pi, Vector3::UnitZ()));
 
   DetrayPayloadConverter::Config cfg;
   DetrayPayloadConverter converter(cfg);
 
   // Test cylinder volume
   {
     auto cvlBounds = std::make_shared<CylinderVolumeBounds>(5., 10., 10.);
     auto volume =
         std::make_shared<TrackingVolume>(transform, cvlBounds, "TestCylinder");
 
     auto payload = converter.convertVolume(gctx, *volume);
 
     // Check type
     BOOST_CHECK(payload.type == detray::volume_id::e_cylinder);
 
     // Check name
     BOOST_CHECK_EQUAL(payload.name, "TestCylinder");
 
     // Check transform
     CHECK_CLOSE_ABS(payload.transform.tr[0], 1., 1e-10);
     CHECK_CLOSE_ABS(payload.transform.tr[1], 2., 1e-10);
     CHECK_CLOSE_ABS(payload.transform.tr[2], 3., 1e-10);
   }
 
   // Test cuboid volume
   {
     auto cuboidBounds = std::make_shared<CuboidVolumeBounds>(5., 10., 15.);
     auto volume =
         std::make_shared<TrackingVolume>(transform, cuboidBounds, "TestCuboid");
 
     auto payload = converter.convertVolume(gctx, *volume);
 
     BOOST_CHECK(payload.type == detray::volume_id::e_cuboid);
     BOOST_CHECK_EQUAL(payload.name, "TestCuboid");
   }
 
   // Test trapezoid volume
   {
     auto trapBounds = std::make_shared<TrapezoidVolumeBounds>(4., 8., 10., 15.);
     auto volume = std::make_shared<TrackingVolume>(transform, trapBounds,
                                                    "TestTrapezoid");
 
     auto payload = converter.convertVolume(gctx, *volume);
 
     BOOST_CHECK(payload.type == detray::volume_id::e_trapezoid);
     BOOST_CHECK_EQUAL(payload.name, "TestTrapezoid");
   }
 
   // Test unknown volume type
   {
     class MockVolumeBounds : public VolumeBounds {
      public:
       BoundsType type() const final { return BoundsType::eOther; }
       std::vector<double> values() const final { return {}; }
       bool inside(const Vector3& /*pos*/, double /*tol*/) const final {
         return false;
       }
       std::ostream& toStream(std::ostream& sl) const final { return sl; }
 
       std::vector<OrientedSurface> orientedSurfaces(
           const Transform3& /*trf*/) const final {
         return {};
       }
 
       Volume::BoundingBox boundingBox(const Transform3* /*trf*/,
                                       const Vector3& /*envelope*/,
                                       const Volume* /*entity*/) const final {
         return {nullptr, Vector3::Zero(), Vector3::Zero()};
       }
     };
 
     auto mockBounds = std::make_shared<MockVolumeBounds>();
     TrackingVolume tv(transform, mockBounds, "TestUnknown");
 
     auto volume =
         std::make_shared<TrackingVolume>(transform, mockBounds, "TestUnknown");
 
     auto payload = converter.convertVolume(gctx, *volume);
 
     BOOST_CHECK(payload.type == detray::volume_id::e_unknown);
     BOOST_CHECK_EQUAL(payload.name, "TestUnknown");
   }
 }
 
 // namespace {
 //
 // namespace detail {
 //
 // /// A functor that retrieves an acceleration struct and prints it
 // struct accelerator_printer {
 //   /// Print an acceleration structure
 //   ///
 //   /// @param accel_coll collection of acceleration structs
 //   /// @param idx the specific grid to be checked
 //   /// @param id type id of the material grid collection
 //   template <typename accel_coll_t, typename index_t>
 //   DETRAY_HOST void operator()(const accel_coll_t& accel_coll, const index_t
 //   idx,
 //                               std::stringstream& os) const {
 //     // os << accel_coll[idx];
 //   }
 // };
 //
 // /// A functor that retrieves material and prints it
 // struct material_printer {
 //   /// Print material
 //   ///
 //   /// @param material_coll collection of material
 //   /// @param idx the specific grid to be checked
 //   /// @param id type id of the material grid collection
 //   template <typename material_coll_t, typename index_t>
 //   DETRAY_HOST void operator()(const material_coll_t& material_coll,
 //                               const index_t idx, std::stringstream& os) const
 //                               {
 //     if constexpr (!detray::concepts::grid<
 //                       typename material_coll_t::value_type>) {
 //       os << material_coll[idx];
 //     }
 //   }
 // };
 //
 // }  // namespace detail
 //
 // template <typename detector_t>
 // inline std::string print_detector(
 //     const detector_t& det, const typename detector_t::name_map& names = {}) {
 //   // Gathers navigation information across navigator update calls
 //   std::stringstream debug_stream{};
 //
 //   debug_stream << std::left << "[>] Detector " << det.name(names) << " has "
 //                << det.volumes().size() << " volumes." << std::endl;
 //
 //   for (const auto [i, v_desc] : detray::views::enumerate(det.volumes())) {
 //     detray::tracking_volume v{det, v_desc};
 //
 //     debug_stream << "[>>] Volume " << v.name(names) << std::endl;
 //     debug_stream << v << std::endl;
 //
 //     debug_stream << "[>>>] Acceleration Structures:" << std::endl;
 //     const auto acc_link = v_desc.accel_link();
 //     for (std::size_t j = 0u; j < acc_link.size(); ++j) {
 //       // An acceleration data structure link was set, but is invalid
 //       if (!acc_link[j].is_invalid_id() && !acc_link[j].is_invalid_index()) {
 //         debug_stream << j << ":" << std::endl;
 //         det.accelerator_store().template visit<detail::accelerator_printer>(
 //             acc_link[j], debug_stream);
 //       }
 //     }
 //
 //     debug_stream << "[>>>] Surfaces:" << std::endl;
 //     for (const auto sf_desc : v.template surfaces<>()) {
 //       detray::geometry::surface sf{det, sf_desc};
 //       debug_stream << sf << std::endl;
 //
 //       // Check the surface material, if present
 //       if (sf.has_material()) {
 //         debug_stream << "[>>>>] Surface material:" << std::endl;
 //         sf.template visit_material<detail::material_printer>(debug_stream);
 //       }
 //     }
 //
 //     debug_stream << std::endl;
 //   }
 //
 //   return debug_stream.str();
 // }
 // }  // namespace
 
 BOOST_AUTO_TEST_CASE(DetrayTrackingGeometryConversionTests) {
   auto gctx = GeometryContext::dangerouslyDefaultConstruct();
   auto geoLogger = getDefaultLogger("Geo", Logging::VERBOSE);
 
   CylindricalTrackingGeometry cGeometry(gctx, true);
   auto tGeometry = cGeometry(*geoLogger);
 
   ObjVisualization3D obj;
 
   tGeometry->visualize(obj, gctx);
 
   obj.write("cylindrical.obj");
 
   vecmem::host_memory_resource mr;
 
   DetrayPayloadConverter::Config cfg;
 
   tGeometry->apply([&cfg](const TrackingVolume& volume) {
     if (volume.volumeName() == "Beampipe") {
       cfg.beampipeVolume = &volume;
     }
   });
 
   auto logger = getDefaultLogger("Cnv", Logging::DEBUG);
   DetrayPayloadConverter converter(cfg, std::move(logger));
   auto payloads = converter.convertTrackingGeometry(gctx, *tGeometry);
 
   const auto& detector = *payloads.detector;
   const auto& homogeneousMaterial = *payloads.homogeneousMaterial;
   auto& materialGrids = *payloads.materialGrids;
   const auto& surfaceGrids = *payloads.surfaceGrids;
 
   BOOST_CHECK_EQUAL(detector.volumes.size(), 6);
   for (const auto& volume : detector.volumes) {
     BOOST_CHECK(volume.type == detray::volume_id::e_cylinder);
   }
   BOOST_CHECK_EQUAL(detector.volumes.at(0).name, "Beampipe");
   BOOST_CHECK_EQUAL(detector.volumes.at(1).name, "World");
   BOOST_CHECK_EQUAL(detector.volumes.at(2).name, "L0");
   BOOST_CHECK_EQUAL(detector.volumes.at(3).name, "L1");
   BOOST_CHECK_EQUAL(detector.volumes.at(4).name, "L2");
   BOOST_CHECK_EQUAL(detector.volumes.at(5).name, "L3");
 
   // @HACK: At this time, the conversion introduces a number of dummy material slabs which
   //        should ultimately not be there.
 
   BOOST_CHECK_EQUAL(homogeneousMaterial.volumes.size(), 6);
 
   for (const auto& volume : detector.volumes) {
     auto it = std::ranges::find_if(
         homogeneousMaterial.volumes, [&](const auto& hMat) {
           return hMat.volume_link.link == volume.index.link;
         });
 
     if (it == homogeneousMaterial.volumes.end()) {
       BOOST_FAIL("No material slab found for volume: " + volume.name);
       continue;
     }
 
     auto& hMat = *it;
 
     // Currently, we expect exactly one slab per surface!
     BOOST_CHECK_EQUAL(volume.surfaces.size(), hMat.mat_slabs.size());
   }
 
   BOOST_CHECK_EQUAL(materialGrids.grids.size(), 2);
 
   BOOST_CHECK_EQUAL(surfaceGrids.grids.size(), 4);
 
   // Empirical binning config from construction
   const std::vector<std::pair<int, int>> kLayerBinning = {
       {16, 14}, {32, 14}, {52, 14}, {78, 14}};
 
   for (const auto& [idx, it] : enumerate(surfaceGrids.grids)) {
     const auto [b0, b1] = kLayerBinning.at(idx);
 
     const auto [key, grids] = it;
 
     // We're only building one surface grid for each layer
     BOOST_CHECK_EQUAL(grids.size(), 1);
 
     auto& grid = grids.front();
 
     // All grids in this case are 2D
     BOOST_CHECK_EQUAL(grid.axes.size(), 2);
 
     BOOST_CHECK_EQUAL(b0, grid.axes.front().bins);
     BOOST_CHECK_EQUAL(b1, grid.axes.back().bins);
 
     std::size_t nBinsExp = grid.axes.front().bins * grid.axes.back().bins;
     BOOST_CHECK_EQUAL(grid.bins.size(), nBinsExp);
   }
 
   BOOST_CHECK_EQUAL(payloads.names.size(), 7);
 
   // Write payloads to JSON directly
 
   {
     detray::io::geo_header_payload header_data;
     header_data.common = detray::io::detail::basic_converter::to_payload(
         payloads.names.at(0), detray::io::geometry_writer::tag);
     header_data.sub_header.emplace();
     auto& geo_sub_header = header_data.sub_header.value();
     geo_sub_header.n_volumes = detector.volumes.size();
     geo_sub_header.n_surfaces = 0;
     for (const auto& volume : detector.volumes) {
       geo_sub_header.n_surfaces += volume.surfaces.size();
     }
 
     nlohmann::ordered_json out_json;
     out_json["header"] = header_data;
     out_json["data"] = detector;
 
     std::ofstream ofs{"Detector_geometry_direct.json"};
     ofs << out_json.dump(2) << std::endl;
   }
 
   {
     detray::io::homogeneous_material_header_payload header_data;
     header_data.common = detray::io::detail::basic_converter::to_payload(
         payloads.names.at(0), detray::io::homogeneous_material_writer::tag);
     header_data.sub_header.emplace();
     header_data.sub_header->n_rods = 0;
     header_data.sub_header->n_slabs = 0;
 
     for (const auto& hVol : homogeneousMaterial.volumes) {
       if (hVol.mat_rods.has_value()) {
         header_data.sub_header->n_rods += hVol.mat_rods->size();
       }
       header_data.sub_header->n_slabs += hVol.mat_slabs.size();
     }
 
     nlohmann::ordered_json out_json;
     out_json["header"] = header_data;
     out_json["data"] = homogeneousMaterial;
 
     std::ofstream ofs{"Detector_homogeneous_material_direct.json"};
     ofs << out_json.dump(2) << std::endl;
   }
 
   // Payloads DONE, let's actually build a detray detector from them.
 
   using detector_t =
       detray::detector<detray::default_metadata<detray::array<double>>>;
 
   // build detector
   detray::detector_builder<detector_t::metadata> detectorBuilder{};
   // (1) geometry
   detray::io::geometry_reader::from_payload<detector_t>(detectorBuilder,
                                                         detector);
 
   detray::io::homogeneous_material_reader::from_payload<detector_t>(
       detectorBuilder, homogeneousMaterial);
 
   detray::io::material_map_reader<std::integral_constant<std::size_t, 2>>::
       from_payload<detector_t>(detectorBuilder, std::move(materialGrids));
 
   detray::io::surface_grid_reader<detector_t::surface_type,
                                   std::integral_constant<std::size_t, 0>,
                                   std::integral_constant<std::size_t, 2>>::
       from_payload<detector_t>(detectorBuilder, surfaceGrids);
 
   detector_t detrayDetector(detectorBuilder.build(mr));
 
   // Checks and print
   detray::detail::check_consistency(detrayDetector);
 
   detray::svgtools::illustrator illustrator(detrayDetector, payloads.names);
   illustrator.hide_eta_lines(true);
   illustrator.show_info(true);
 
   const auto svg_zr = illustrator.draw_detector(actsvg::views::z_r{});
   actsvg::style::stroke stroke_black = actsvg::style::stroke();
   auto zr_axis = actsvg::draw::x_y_axes("axes", {-250, 250}, {-250, 250},
                                         stroke_black, "z", "r");
   detray::svgtools::write_svg("test_svgtools_detector_zr", {
                                                                zr_axis,
                                                                svg_zr,
                                                            });
 
   const auto svg_xy = illustrator.draw_detector(actsvg::views::x_y{});
   auto xy_axis = actsvg::draw::x_y_axes("axes", {-250, 250}, {-250, 250},
                                         stroke_black, "x", "y");
   detray::svgtools::write_svg("test_svgtools_detector_xy", {
                                                                xy_axis,
                                                                svg_xy,
                                                            });
 
   auto writer_cfg = detray::io::detector_writer_config{}
                         .format(detray::io::format::json)
                         .replace_files(true);
 
   // std::cout << detray::utils::print_detector(detrayDetector, payloads.names)
   //           << std::endl;
 
   detray::io::write_detector(detrayDetector, payloads.names, writer_cfg);
 }
 
 BOOST_AUTO_TEST_SUITE_END()
 }  // namespace ActsTests

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