Use vector<map<>> for node_data. (#472)
parent
c8de50bd2b
commit
18d8ea75fa
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@ -195,8 +195,7 @@ void SparsePoseGraph::ComputeConstraint(const mapping::NodeId& node_id,
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.pose.inverse() *
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optimization_problem_.node_data()
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.at(node_id.trajectory_id)
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.at(node_id.node_index - optimization_problem_.num_trimmed_nodes(
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node_id.trajectory_id))
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.at(node_id.node_index)
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.pose;
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constraint_builder_.MaybeAddConstraint(
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submap_id, submap_data_.at(submap_id).submap.get(), node_id,
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@ -212,14 +211,9 @@ void SparsePoseGraph::ComputeConstraintsForOldScans(
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const auto& node_data = optimization_problem_.node_data();
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for (size_t trajectory_id = 0; trajectory_id != node_data.size();
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++trajectory_id) {
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for (size_t node_data_index = 0;
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node_data_index != node_data[trajectory_id].size();
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++node_data_index) {
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const int node_index =
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node_data_index +
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optimization_problem_.num_trimmed_nodes(trajectory_id);
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for (const auto& index_node_data : node_data[trajectory_id]) {
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const mapping::NodeId node_id{static_cast<int>(trajectory_id),
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static_cast<int>(node_index)};
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index_node_data.first};
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CHECK(!trajectory_nodes_.at(node_id).trimmed());
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if (submap_data.node_ids.count(node_id) == 0) {
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ComputeConstraint(node_id, submap_id);
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@ -247,12 +241,14 @@ void SparsePoseGraph::ComputeConstraintsForScan(
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const mapping::NodeId node_id{
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matching_id.trajectory_id,
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static_cast<size_t>(matching_id.trajectory_id) <
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optimization_problem_.node_data().size()
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optimization_problem_.node_data().size() &&
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!optimization_problem_.node_data()[matching_id.trajectory_id]
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.empty()
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? static_cast<int>(optimization_problem_.node_data()
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.at(matching_id.trajectory_id)
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.size()) +
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optimization_problem_.num_trimmed_nodes(
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matching_id.trajectory_id)
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.rbegin()
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->first +
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1)
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: 0};
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const auto& scan_data = trajectory_nodes_.at(node_id).constant_data;
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optimization_problem_.AddTrajectoryNode(
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@ -349,16 +345,14 @@ void SparsePoseGraph::WaitForAllComputations() {
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common::FromSeconds(1.))) {
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std::ostringstream progress_info;
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progress_info << "Optimizing: " << std::fixed << std::setprecision(1)
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<< 100. *
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(constraint_builder_.GetNumFinishedScans() -
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<< 100. * (constraint_builder_.GetNumFinishedScans() -
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num_finished_scans_at_start) /
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(num_trajectory_nodes_ - num_finished_scans_at_start)
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<< "%...";
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std::cout << "\r\x1b[K" << progress_info.str() << std::flush;
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}
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std::cout << "\r\x1b[KOptimizing: Done. " << std::endl;
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constraint_builder_.WhenDone(
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[this, ¬ification](
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constraint_builder_.WhenDone([this, ¬ification](
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const sparse_pose_graph::ConstraintBuilder::Result& result) {
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common::MutexLocker locker(&mutex_);
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constraints_.insert(constraints_.end(), result.begin(), result.end());
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@ -441,15 +435,12 @@ void SparsePoseGraph::RunOptimization() {
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const auto& node_data = optimization_problem_.node_data();
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for (int trajectory_id = 0;
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trajectory_id != static_cast<int>(node_data.size()); ++trajectory_id) {
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int node_data_index = 0;
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const int num_nodes = trajectory_nodes_.num_indices(trajectory_id);
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int node_index = optimization_problem_.num_trimmed_nodes(trajectory_id);
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for (; node_data_index != static_cast<int>(node_data[trajectory_id].size());
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++node_data_index, ++node_index) {
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const mapping::NodeId node_id{trajectory_id, node_index};
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for (const auto& node_data_index : node_data.at(trajectory_id)) {
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const mapping::NodeId node_id{trajectory_id, node_data_index.first};
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auto& node = trajectory_nodes_.at(node_id);
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node.pose =
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transform::Embed3D(node_data[trajectory_id][node_data_index].pose) *
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transform::Embed3D(node_data_index.second.pose) *
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transform::Rigid3d::Rotation(node.constant_data->gravity_alignment);
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}
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// Extrapolate all point cloud poses that were added later.
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@ -459,7 +450,12 @@ void SparsePoseGraph::RunOptimization() {
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optimized_submap_transforms_, trajectory_id);
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const transform::Rigid3d old_global_to_new_global =
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local_to_new_global * local_to_old_global.inverse();
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for (; node_index < num_nodes; ++node_index) {
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int last_optimized_node_index =
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node_data.at(trajectory_id).empty()
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? 0
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: node_data.at(trajectory_id).rbegin()->first;
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for (int node_index = last_optimized_node_index + 1; node_index < num_nodes;
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++node_index) {
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const mapping::NodeId node_id{trajectory_id, node_index};
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auto& node_pose = trajectory_nodes_.at(node_id).pose;
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node_pose = old_global_to_new_global * node_pose;
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@ -84,25 +84,28 @@ void OptimizationProblem::AddTrajectoryNode(
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CHECK_GE(trajectory_id, 0);
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node_data_.resize(
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std::max(node_data_.size(), static_cast<size_t>(trajectory_id) + 1));
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node_data_[trajectory_id].push_back(NodeData{time, initial_pose, pose});
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trajectory_data_.resize(std::max(trajectory_data_.size(), node_data_.size()));
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auto& trajectory_data = trajectory_data_.at(trajectory_id);
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node_data_[trajectory_id].emplace(trajectory_data.next_node_index,
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NodeData{time, initial_pose, pose});
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++trajectory_data.next_node_index;
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}
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void OptimizationProblem::TrimTrajectoryNode(const mapping::NodeId& node_id) {
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auto& trajectory_data = trajectory_data_.at(node_id.trajectory_id);
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// We only allow trimming from the start.
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CHECK_EQ(trajectory_data.num_trimmed_nodes, node_id.node_index);
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auto& node_data = node_data_.at(node_id.trajectory_id);
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CHECK(!node_data.empty());
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if (node_id.trajectory_id < static_cast<int>(imu_data_.size())) {
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const common::Time node_time = node_data.front().time;
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CHECK(node_data.erase(node_id.node_index));
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if (!node_data.empty() &&
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node_id.trajectory_id < static_cast<int>(imu_data_.size())) {
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auto node_it = node_data.begin();
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const common::Time node_time = node_it->second.time;
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auto& imu_data = imu_data_.at(node_id.trajectory_id);
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while (imu_data.size() > 1 && imu_data[1].time <= node_time) {
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imu_data.pop_front();
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}
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}
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node_data.pop_front();
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++trajectory_data.num_trimmed_nodes;
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}
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void OptimizationProblem::AddSubmap(const int trajectory_id,
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@ -143,7 +146,7 @@ void OptimizationProblem::Solve(const std::vector<Constraint>& constraints,
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// TODO(hrapp): Move ceres data into SubmapData.
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std::vector<std::map<int, std::array<double, 3>>> C_submaps(
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submap_data_.size());
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std::vector<std::vector<std::array<double, 3>>> C_nodes(node_data_.size());
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std::vector<std::map<int, std::array<double, 3>>> C_nodes(node_data_.size());
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bool first_submap = true;
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for (size_t trajectory_id = 0; trajectory_id != submap_data_.size();
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++trajectory_id) {
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@ -168,14 +171,15 @@ void OptimizationProblem::Solve(const std::vector<Constraint>& constraints,
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for (size_t trajectory_id = 0; trajectory_id != node_data_.size();
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++trajectory_id) {
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const bool frozen = frozen_trajectories.count(trajectory_id);
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// Reserve guarantees that data does not move, so the pointers for Ceres
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// stay valid.
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C_nodes[trajectory_id].reserve(node_data_[trajectory_id].size());
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for (const NodeData& node_data : node_data_[trajectory_id]) {
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C_nodes[trajectory_id].push_back(FromPose(node_data.pose));
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problem.AddParameterBlock(C_nodes[trajectory_id].back().data(), 3);
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for (const auto& index_node_data : node_data_[trajectory_id]) {
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const int node_index = index_node_data.first;
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const NodeData& node_data = index_node_data.second;
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C_nodes[trajectory_id].emplace(node_index, FromPose(node_data.pose));
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problem.AddParameterBlock(C_nodes[trajectory_id].at(node_index).data(),
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3);
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if (frozen) {
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problem.SetParameterBlockConstant(C_nodes[trajectory_id].back().data());
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problem.SetParameterBlockConstant(
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C_nodes[trajectory_id].at(node_index).data());
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}
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}
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}
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@ -192,9 +196,7 @@ void OptimizationProblem::Solve(const std::vector<Constraint>& constraints,
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.at(constraint.submap_id.submap_index)
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.data(),
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C_nodes.at(constraint.node_id.trajectory_id)
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.at(constraint.node_id.node_index -
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trajectory_data_.at(constraint.node_id.trajectory_id)
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.num_trimmed_nodes)
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.at(constraint.node_id.node_index)
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.data());
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}
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@ -202,27 +204,37 @@ void OptimizationProblem::Solve(const std::vector<Constraint>& constraints,
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// if odometry is not available.
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for (size_t trajectory_id = 0; trajectory_id != node_data_.size();
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++trajectory_id) {
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for (size_t node_data_index = 1;
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node_data_index < node_data_[trajectory_id].size();
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++node_data_index) {
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if (node_data_[trajectory_id].empty()) {
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continue;
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}
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for (auto node_it = node_data_[trajectory_id].begin();;) {
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const int node_index = node_it->first;
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const NodeData& node_data = node_it->second;
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++node_it;
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if (node_it == node_data_[trajectory_id].end()) {
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break;
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}
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const int next_node_index = node_it->first;
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const NodeData& next_node_data = node_it->second;
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if (next_node_index != node_index + 1) {
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continue;
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}
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const bool odometry_available =
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trajectory_id < odometry_data_.size() &&
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odometry_data_[trajectory_id].Has(
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node_data_[trajectory_id][node_data_index].time) &&
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node_data_[trajectory_id][next_node_index].time) &&
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odometry_data_[trajectory_id].Has(
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node_data_[trajectory_id][node_data_index - 1].time);
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node_data_[trajectory_id][node_index].time);
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const transform::Rigid3d relative_pose =
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odometry_available
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? odometry_data_[trajectory_id]
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.Lookup(
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node_data_[trajectory_id][node_data_index - 1].time)
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.inverse() *
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odometry_data_[trajectory_id].Lookup(
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node_data_[trajectory_id][node_data_index].time)
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: transform::Embed3D(
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node_data_[trajectory_id][node_data_index - 1]
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.initial_pose.inverse() *
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node_data_[trajectory_id][node_data_index].initial_pose);
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? odometry_data_[trajectory_id].Lookup(node_data.time).inverse() *
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odometry_data_[trajectory_id].Lookup(next_node_data.time)
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: transform::Embed3D(node_data.initial_pose.inverse() *
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next_node_data.initial_pose);
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problem.AddResidualBlock(
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new ceres::AutoDiffCostFunction<SpaCostFunction, 3, 3, 3>(
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new SpaCostFunction(Constraint::Pose{
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@ -230,8 +242,8 @@ void OptimizationProblem::Solve(const std::vector<Constraint>& constraints,
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options_.consecutive_scan_translation_penalty_factor(),
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options_.consecutive_scan_rotation_penalty_factor()})),
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nullptr /* loss function */,
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C_nodes[trajectory_id][node_data_index - 1].data(),
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C_nodes[trajectory_id][node_data_index].data());
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C_nodes[trajectory_id][node_index].data(),
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C_nodes[trajectory_id][next_node_index].data());
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}
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}
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@ -254,16 +266,14 @@ void OptimizationProblem::Solve(const std::vector<Constraint>& constraints,
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}
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for (size_t trajectory_id = 0; trajectory_id != node_data_.size();
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++trajectory_id) {
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for (size_t node_data_index = 0;
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node_data_index != node_data_[trajectory_id].size();
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++node_data_index) {
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node_data_[trajectory_id][node_data_index].pose =
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ToPose(C_nodes[trajectory_id][node_data_index]);
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for (auto& index_node_data : node_data_[trajectory_id]) {
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index_node_data.second.pose =
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ToPose(C_nodes[trajectory_id].at(index_node_data.first));
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}
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}
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}
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const std::vector<std::deque<NodeData>>& OptimizationProblem::node_data()
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const std::vector<std::map<int, NodeData>>& OptimizationProblem::node_data()
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const {
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return node_data_;
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}
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@ -273,10 +283,6 @@ const std::vector<std::map<int, SubmapData>>& OptimizationProblem::submap_data()
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return submap_data_;
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}
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int OptimizationProblem::num_trimmed_nodes(int trajectory_id) const {
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return trajectory_data_.at(trajectory_id).num_trimmed_nodes;
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}
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} // namespace sparse_pose_graph
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} // namespace mapping_2d
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} // namespace cartographer
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@ -76,20 +76,18 @@ class OptimizationProblem {
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void Solve(const std::vector<Constraint>& constraints,
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const std::set<int>& frozen_trajectories);
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const std::vector<std::deque<NodeData>>& node_data() const;
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const std::vector<std::map<int, NodeData>>& node_data() const;
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const std::vector<std::map<int, SubmapData>>& submap_data() const;
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int num_trimmed_nodes(int trajectory_id) const;
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private:
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struct TrajectoryData {
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// TODO(hrapp): Remove, once we can relabel constraints.
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int next_submap_index = 0;
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int num_trimmed_nodes = 0;
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int next_node_index = 0;
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};
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mapping::sparse_pose_graph::proto::OptimizationProblemOptions options_;
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std::vector<std::deque<sensor::ImuData>> imu_data_;
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std::vector<std::deque<NodeData>> node_data_;
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std::vector<std::map<int, NodeData>> node_data_;
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std::vector<transform::TransformInterpolationBuffer> odometry_data_;
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std::vector<std::map<int, SubmapData>> submap_data_;
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std::vector<TrajectoryData> trajectory_data_;
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