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7.94 kB
| namespace nb = nanobind; | |
| namespace madrona_gpudrive | |
| { | |
| // This file creates the python bindings used by the learning code. | |
| // Refer to the nanobind documentation for more details on these functions. | |
| NB_MODULE(madrona_gpudrive, m) | |
| { | |
| // Each simulator has a madrona submodule that includes base types | |
| // like madrona::py::Tensor and madrona::py::PyExecMode. | |
| madrona::py::setupMadronaSubmodule(m); | |
| // Add bindings for constants defined in src/consts.hpp | |
| m.attr("kMaxAgentCount") = consts::kMaxAgentCount; | |
| m.attr("kMaxRoadEntityCount") = consts::kMaxRoadEntityCount; | |
| m.attr("kMaxAgentMapObservationsCount") = consts::kMaxAgentMapObservationsCount; | |
| m.attr("episodeLen") = consts::episodeLen; | |
| m.attr("numLidarSamples") = consts::numLidarSamples; | |
| m.attr("vehicleScale") = consts::vehicleLengthScale; | |
| // Define RewardType enum | |
| nb::enum_<RewardType>(m, "RewardType") | |
| .value("DistanceBased", RewardType::DistanceBased) | |
| .value("OnGoalAchieved", RewardType::OnGoalAchieved) | |
| .value("Dense", RewardType::Dense); | |
| // Define RewardParams class | |
| nb::class_<RewardParams>(m, "RewardParams") | |
| .def(nb::init<>()) // Default constructor | |
| .def_rw("rewardType", &RewardParams::rewardType) | |
| .def_rw("distanceToGoalThreshold", &RewardParams::distanceToGoalThreshold) | |
| .def_rw("distanceToExpertThreshold", &RewardParams::distanceToExpertThreshold); | |
| nb::enum_<FindRoadObservationsWith>(m, "FindRoadObservationsWith") | |
| .value("KNearestEntitiesWithRadiusFiltering", FindRoadObservationsWith::KNearestEntitiesWithRadiusFiltering) | |
| .value("AllEntitiesWithRadiusFiltering", FindRoadObservationsWith::AllEntitiesWithRadiusFiltering); | |
| // Define Parameters class | |
| nb::class_<Parameters>(m, "Parameters") | |
| .def(nb::init<>()) // Default constructor | |
| .def_rw("polylineReductionThreshold", &Parameters::polylineReductionThreshold) | |
| .def_rw("observationRadius", &Parameters::observationRadius) | |
| .def_rw("rewardParams", &Parameters::rewardParams) | |
| .def_rw("collisionBehaviour", &Parameters::collisionBehaviour) | |
| .def_rw("maxNumControlledAgents", &Parameters::maxNumControlledAgents) | |
| .def_rw("IgnoreNonVehicles", &Parameters::IgnoreNonVehicles) | |
| .def_rw("roadObservationAlgorithm", &Parameters::roadObservationAlgorithm) | |
| .def_rw("initOnlyValidAgentsAtFirstStep", &Parameters::initOnlyValidAgentsAtFirstStep) | |
| .def_rw("dynamicsModel", &Parameters::dynamicsModel) | |
| .def_rw("enableLidar", &Parameters::enableLidar) | |
| .def_rw("disableClassicalObs", &Parameters::disableClassicalObs) | |
| .def_rw("isStaticAgentControlled", &Parameters::isStaticAgentControlled) | |
| .def_rw("readFromTracksToPredict", &Parameters::readFromTracksToPredict); | |
| // Define CollisionBehaviour enum | |
| nb::enum_<CollisionBehaviour>(m, "CollisionBehaviour") | |
| .value("AgentStop", CollisionBehaviour::AgentStop) | |
| .value("AgentRemoved", CollisionBehaviour::AgentRemoved) | |
| .value("Ignore", CollisionBehaviour::Ignore); | |
| nb::enum_<DynamicsModel>(m, "DynamicsModel") | |
| .value("Classic", DynamicsModel::Classic) | |
| .value("InvertibleBicycle", DynamicsModel::InvertibleBicycle) | |
| .value("DeltaLocal", DynamicsModel::DeltaLocal) | |
| .value("State", DynamicsModel::State); | |
| nb::enum_<EntityType>(m, "EntityType") | |
| .value("_None", EntityType::None) | |
| .value("RoadEdge", EntityType::RoadEdge) | |
| .value("RoadLine", EntityType::RoadLine) | |
| .value("RoadLane", EntityType::RoadLane) | |
| .value("CrossWalk", EntityType::CrossWalk) | |
| .value("SpeedBump", EntityType::SpeedBump) | |
| .value("StopSign", EntityType::StopSign) | |
| .value("Vehicle", EntityType::Vehicle) | |
| .value("Pedestrian", EntityType::Pedestrian) | |
| .value("Cyclist", EntityType::Cyclist) | |
| .value("Padding", EntityType::Padding) | |
| .value("NumTypes", EntityType::NumTypes); | |
| // Bindings for Manager class | |
| nb::class_<Manager>(m, "SimManager") | |
| .def( | |
| "__init__", [](Manager *self, madrona::py::PyExecMode exec_mode, int64_t gpu_id, std::vector<std::string> scenes, Parameters params, bool enable_batch_renderer, uint32_t batch_render_view_width, uint32_t batch_render_view_height) | |
| { new (self) Manager(Manager::Config{ | |
| .execMode = exec_mode, | |
| .gpuID = (int)gpu_id, | |
| .scenes = scenes, | |
| .params = params, | |
| .enableBatchRenderer = enable_batch_renderer, | |
| .batchRenderViewWidth = batch_render_view_width, | |
| .batchRenderViewHeight = batch_render_view_height});}, | |
| nb::arg("exec_mode"), | |
| nb::arg("gpu_id"), | |
| nb::arg("scenes"), | |
| nb::arg("params"), | |
| nb::arg("enable_batch_renderer") = false, | |
| nb::arg("batch_render_view_width") = 64, | |
| nb::arg("batch_render_view_height") = 64) | |
| .def("step", &Manager::step) | |
| .def("reset", &Manager::reset) | |
| .def("action_tensor", &Manager::actionTensor) | |
| .def("reward_tensor", &Manager::rewardTensor) | |
| .def("done_tensor", &Manager::doneTensor) | |
| .def("self_observation_tensor", &Manager::selfObservationTensor) | |
| .def("map_observation_tensor", &Manager::mapObservationTensor) | |
| .def("partner_observations_tensor", &Manager::partnerObservationsTensor) | |
| .def("lidar_tensor", &Manager::lidarTensor) | |
| .def("steps_remaining_tensor", &Manager::stepsRemainingTensor) | |
| .def("shape_tensor", &Manager::shapeTensor) | |
| .def("controlled_state_tensor", &Manager::controlledStateTensor) | |
| .def("agent_roadmap_tensor", &Manager::agentMapObservationsTensor) | |
| .def("absolute_self_observation_tensor", | |
| &Manager::absoluteSelfObservationTensor) | |
| .def("bev_observation_tensor", &Manager::bevObservationTensor) | |
| .def("valid_state_tensor", &Manager::validStateTensor) | |
| .def("info_tensor", &Manager::infoTensor) | |
| .def("rgb_tensor", &Manager::rgbTensor) | |
| .def("depth_tensor", &Manager::depthTensor) | |
| .def("response_type_tensor", &Manager::responseTypeTensor) | |
| .def("expert_trajectory_tensor", &Manager::expertTrajectoryTensor) | |
| .def("set_maps", &Manager::setMaps) | |
| .def("world_means_tensor", &Manager::worldMeansTensor) | |
| .def("metadata_tensor", &Manager::metadataTensor) | |
| .def("map_name_tensor", &Manager::mapNameTensor) | |
| .def("deleteAgents", [](Manager &self, nb::dict py_agents_to_delete) { | |
| std::unordered_map<int32_t, std::vector<int32_t>> agents_to_delete; | |
| // Convert Python dict to C++ unordered_map | |
| for (auto item : py_agents_to_delete) { | |
| int32_t key = nb::cast<int32_t>(item.first); | |
| std::vector<int32_t> value = nb::cast<std::vector<int32_t>>(item.second); | |
| agents_to_delete[key] = value; | |
| } | |
| self.deleteAgents(agents_to_delete); | |
| }) | |
| .def("deleted_agents_tensor", &Manager::deletedAgentsTensor) | |
| .def("map_name_tensor", &Manager::mapNameTensor) | |
| .def("scenario_id_tensor", &Manager::scenarioIdTensor); | |
| } | |
| } | |