on_lane_planning.cc

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/******************************************************************************
 * Copyright 2018 The Apollo Authors. All Rights Reserved.
 *
 * Licensed under the Apache License, Version 2.0 (the "License");
 * you may not use this file except in compliance with the License.
 * You may obtain a copy of the License at
 *
 * http://www.apache.org/licenses/LICENSE-2.0
 *
 * Unless required by applicable law or agreed to in writing, software
 * distributed under the License is distributed on an "AS IS" BASIS,
 * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
 * See the License for the specific language governing permissions and
 * limitations under the License.
 *****************************************************************************/
 
#include "modules/planning/planning_component/on_lane_planning.h"
 
#include <algorithm>
#include <limits>
#include <list>
#include <utility>
 
#include "gtest/gtest_prod.h"
 
#include "absl/strings/str_cat.h"
 
#include "modules/common_msgs/planning_msgs/planning_internal.pb.h"
#include "modules/common_msgs/routing_msgs/routing.pb.h"
#include "modules/planning/planning_base/proto/planning_semantic_map_config.pb.h"
 
#include "cyber/common/file.h"
#include "cyber/common/log.h"
#include "cyber/time/clock.h"
#include "modules/common/math/quaternion.h"
#include "modules/common/vehicle_state/vehicle_state_provider.h"
#include "modules/map/hdmap/hdmap_util.h"
#include "modules/planning/planning_base/common/ego_info.h"
#include "modules/planning/planning_base/common/history.h"
#include "modules/planning/planning_base/common/planning_context.h"
#include "modules/planning/planning_base/common/trajectory_stitcher.h"
#include "modules/planning/planning_base/common/util/util.h"
#include "modules/planning/planning_base/gflags/planning_gflags.h"
#include "modules/planning/planning_base/learning_based/img_feature_renderer/birdview_img_feature_renderer.h"
#include "modules/planning/planning_base/reference_line/reference_line_provider.h"
#include "modules/planning/planning_interface_base/planner_base/planner.h"
#include "modules/planning/planning_interface_base/traffic_rules_base/traffic_decider.h"
 
namespace apollo {
namespace planning {
using apollo::canbus::Chassis;
using apollo::common::EngageAdvice;
using apollo::common::ErrorCode;
using apollo::common::Status;
using apollo::common::TrajectoryPoint;
using apollo::common::VehicleState;
using apollo::common::VehicleStateProvider;
using apollo::common::math::Vec2d;
using apollo::cyber::Clock;
using apollo::dreamview::Chart;
using apollo::hdmap::HDMapUtil;
using apollo::planning_internal::SLFrameDebug;
using apollo::planning_internal::SpeedPlan;
using apollo::planning_internal::STGraphDebug;
void SetChartminmax(apollo::dreamview::Chart* chart, std::string label_name_x,
                    std::string label_name_y) {
  auto* options = chart->mutable_options();
  double xmin(std::numeric_limits<double>::max()),
      xmax(std::numeric_limits<double>::lowest()),
      ymin(std::numeric_limits<double>::max()),
      ymax(std::numeric_limits<double>::lowest());
  for (int i = 0; i < chart->line_size(); i++) {
    auto* line = chart->mutable_line(i);
    for (auto& pt : line->point()) {
      xmin = std::min(xmin, pt.x());
      ymin = std::min(ymin, pt.y());
      xmax = std::max(xmax, pt.x());
      ymax = std::max(ymax, pt.y());
    }
    auto* properties = line->mutable_properties();
    (*properties)["borderWidth"] = "2";
    (*properties)["pointRadius"] = "0";
    (*properties)["lineTension"] = "0";
    (*properties)["fill"] = "false";
    (*properties)["showLine"] = "true";
  }
  options->mutable_x()->set_min(xmin);
  options->mutable_x()->set_max(xmax);
  options->mutable_x()->set_label_string(label_name_x);
  options->mutable_y()->set_min(ymin);
  options->mutable_y()->set_max(ymax);
  options->mutable_y()->set_label_string(label_name_y);
  // Set chartJS's dataset properties
}
OnLanePlanning::~OnLanePlanning() {
  if (reference_line_provider_) {
    reference_line_provider_->Stop();
  }
  planner_->Stop();
  injector_->frame_history()->Clear();
  injector_->history()->Clear();
  injector_->planning_context()->mutable_planning_status()->Clear();
  last_command_.Clear();
  injector_->ego_info()->Clear();
}
 
std::string OnLanePlanning::Name() const { return "on_lane_planning"; }
 
Status OnLanePlanning::Init(const PlanningConfig& config) {
  if (!CheckPlanningConfig(config)) {
    return Status(ErrorCode::PLANNING_ERROR,
                  "planning config error: " + config.DebugString());
  }
 
  PlanningBase::Init(config);
 
  // clear planning history
  injector_->history()->Clear();
 
  // clear planning status
  injector_->planning_context()->mutable_planning_status()->Clear();
 
  // load map
  hdmap_ = HDMapUtil::BaseMapPtr();
  ACHECK(hdmap_) << "Failed to load map";
 
  // instantiate reference line provider
  const ReferenceLineConfig* reference_line_config = nullptr;
  if (config_.has_reference_line_config()) {
    reference_line_config = &config_.reference_line_config();
  }
  reference_line_provider_ = std::make_unique<ReferenceLineProvider>(
      injector_->vehicle_state(), reference_line_config);
  reference_line_provider_->Start();
 
  // dispatch planner
  LoadPlanner();
  if (!planner_) {
    return Status(
        ErrorCode::PLANNING_ERROR,
        "planning is not initialized with config : " + config_.DebugString());
  }
 
  if (config_.learning_mode() != PlanningConfig::NO_LEARNING) {
    PlanningSemanticMapConfig renderer_config;
    ACHECK(apollo::cyber::common::GetProtoFromFile(
        FLAGS_planning_birdview_img_feature_renderer_config_file,
        &renderer_config))
        << "Failed to load renderer config"
        << FLAGS_planning_birdview_img_feature_renderer_config_file;
 
    BirdviewImgFeatureRenderer::Instance()->Init(renderer_config);
  }
 
  traffic_decider_.Init(injector_);
 
  start_time_ = Clock::NowInSeconds();
  return planner_->Init(injector_, FLAGS_planner_config_path);
}
 
Status OnLanePlanning::InitFrame(const uint32_t sequence_num,
                                 const TrajectoryPoint& planning_start_point,
                                 const VehicleState& vehicle_state) {
  frame_.reset(new Frame(sequence_num, local_view_, planning_start_point,
                         vehicle_state, reference_line_provider_.get()));
 
  if (frame_ == nullptr) {
    return Status(ErrorCode::PLANNING_ERROR, "Fail to init frame: nullptr.");
  }
 
  std::list<ReferenceLine> reference_lines;
  std::list<hdmap::RouteSegments> segments;
  reference_line_provider_->GetReferenceLines(&reference_lines, &segments);
  DCHECK_EQ(reference_lines.size(), segments.size());
 
  auto forward_limit = planning::PncMapBase::LookForwardDistance(
      vehicle_state.linear_velocity());
 
  for (auto& ref_line : reference_lines) {
    ref_line.SetEgoPosition(Vec2d(vehicle_state.x(), vehicle_state.y()));
    if (!ref_line.Segment(Vec2d(vehicle_state.x(), vehicle_state.y()),
                          planning::FLAGS_look_backward_distance,
                          forward_limit)) {
      const std::string msg = "Fail to shrink reference line.";
      AERROR << msg;
      return Status(ErrorCode::PLANNING_ERROR, msg);
    }
  }
  for (auto& seg : segments) {
    if (!seg.Shrink(Vec2d(vehicle_state.x(), vehicle_state.y()),
                    planning::FLAGS_look_backward_distance, forward_limit)) {
      const std::string msg = "Fail to shrink routing segments.";
      AERROR << msg;
      return Status(ErrorCode::PLANNING_ERROR, msg);
    }
  }
 
  auto status = frame_->Init(
      injector_->vehicle_state(), reference_lines, segments,
      reference_line_provider_->FutureRouteWaypoints(), injector_->ego_info());
  if (!status.ok()) {
    AERROR << "failed to init frame:" << status.ToString();
    return status;
  }
  return Status::OK();
}
 
// TODO(all): fix this! this will cause unexpected behavior from controller
void OnLanePlanning::GenerateStopTrajectory(ADCTrajectory* ptr_trajectory_pb) {
  ptr_trajectory_pb->clear_trajectory_point();
 
  const auto& vehicle_state = injector_->vehicle_state()->vehicle_state();
  const double max_t = FLAGS_fallback_total_time;
  const double unit_t = FLAGS_fallback_time_unit;
 
  TrajectoryPoint tp;
  auto* path_point = tp.mutable_path_point();
  path_point->set_x(vehicle_state.x());
  path_point->set_y(vehicle_state.y());
  path_point->set_theta(vehicle_state.heading());
  path_point->set_s(0.0);
  tp.set_v(0.0);
  tp.set_a(0.0);
  for (double t = 0.0; t < max_t; t += unit_t) {
    tp.set_relative_time(t);
    auto next_point = ptr_trajectory_pb->add_trajectory_point();
    next_point->CopyFrom(tp);
  }
}
 
void OnLanePlanning::RunOnce(const LocalView& local_view,
                             ADCTrajectory* const ptr_trajectory_pb) {
  // when rerouting, reference line might not be updated. In this case, planning
  // module maintains not-ready until be restarted.
  local_view_ = local_view;
  const double start_timestamp = Clock::NowInSeconds();
  const double start_system_timestamp =
      std::chrono::duration<double>(
          std::chrono::system_clock::now().time_since_epoch())
          .count();
 
  // localization
  ADEBUG << "Get localization:"
         << local_view_.localization_estimate->DebugString();
 
  // chassis
  ADEBUG << "Get chassis:" << local_view_.chassis->DebugString();
 
  Status status = injector_->vehicle_state()->Update(
      *local_view_.localization_estimate, *local_view_.chassis);
 
  VehicleState vehicle_state = injector_->vehicle_state()->vehicle_state();
  const double vehicle_state_timestamp = vehicle_state.timestamp();
  DCHECK_GE(start_timestamp, vehicle_state_timestamp)
      << "start_timestamp is behind vehicle_state_timestamp by "
      << start_timestamp - vehicle_state_timestamp << " secs";
 
  if (!status.ok() || !util::IsVehicleStateValid(vehicle_state)) {
    const std::string msg =
        "Update VehicleStateProvider failed "
        "or the vehicle state is out dated.";
    AERROR << msg;
    ptr_trajectory_pb->mutable_decision()
        ->mutable_main_decision()
        ->mutable_not_ready()
        ->set_reason(msg);
    status.Save(ptr_trajectory_pb->mutable_header()->mutable_status());
    // TODO(all): integrate reverse gear
    ptr_trajectory_pb->set_gear(canbus::Chassis::GEAR_DRIVE);
    FillPlanningPb(start_timestamp, ptr_trajectory_pb);
    GenerateStopTrajectory(ptr_trajectory_pb);
    return;
  }
 
  if (start_timestamp + 1e-6 < vehicle_state_timestamp) {
    common::monitor::MonitorLogBuffer monitor_logger_buffer(
        common::monitor::MonitorMessageItem::PLANNING);
    monitor_logger_buffer.ERROR("ego system time is behind GPS time");
  }
 
  if (start_timestamp - vehicle_state_timestamp <
      FLAGS_message_latency_threshold) {
    vehicle_state = AlignTimeStamp(vehicle_state, start_timestamp);
  }
 
  // Update reference line provider and reset scenario if new routing
  reference_line_provider_->UpdateVehicleState(vehicle_state);
  if (local_view_.planning_command->is_motion_command() &&
      util::IsDifferentRouting(last_command_, *local_view_.planning_command)) {
    last_command_ = *local_view_.planning_command;
    // AINFO << "new_command:" << last_command_.DebugString();
    reference_line_provider_->Reset();
    injector_->history()->Clear();
    injector_->planning_context()->mutable_planning_status()->Clear();
    reference_line_provider_->UpdatePlanningCommand(
        *(local_view_.planning_command));
    planner_->Reset(frame_.get());
  }
  // Get end lane way point.
  reference_line_provider_->GetEndLaneWayPoint(local_view_.end_lane_way_point);
 
  // planning is triggered by prediction data, but we can still use an estimated
  // cycle time for stitching
  const double planning_cycle_time =
      1.0 / static_cast<double>(FLAGS_planning_loop_rate);
 
  std::string replan_reason;
  std::vector<TrajectoryPoint> stitching_trajectory =
      TrajectoryStitcher::ComputeStitchingTrajectory(
          *(local_view_.chassis), vehicle_state, start_timestamp,
          planning_cycle_time, FLAGS_trajectory_stitching_preserved_length,
          true, last_publishable_trajectory_.get(), &replan_reason,
          *local_view_.control_interactive_msg);
 
  injector_->ego_info()->Update(stitching_trajectory.back(), vehicle_state);
  const uint32_t frame_num = static_cast<uint32_t>(seq_num_++);
  AINFO << "Planning start frame sequence id = [" << frame_num << "]";
  status = InitFrame(frame_num, stitching_trajectory.back(), vehicle_state);
  if (status.ok()) {
    injector_->ego_info()->CalculateFrontObstacleClearDistance(
        frame_->obstacles());
    injector_->ego_info()->CalculateCurrentRouteInfo(
        reference_line_provider_.get());
  }
 
  if (FLAGS_enable_record_debug) {
    frame_->RecordInputDebug(ptr_trajectory_pb->mutable_debug());
  }
  ptr_trajectory_pb->mutable_latency_stats()->set_init_frame_time_ms(
      Clock::NowInSeconds() - start_timestamp);
 
  if (!status.ok()) {
    AERROR << status.ToString();
    if (FLAGS_publish_estop) {
      // "estop" signal check in function "Control::ProduceControlCommand()"
      // estop_ = estop_ || local_view_.trajectory.estop().is_estop();
      // we should add more information to ensure the estop being triggered.
      ADCTrajectory estop_trajectory;
      EStop* estop = estop_trajectory.mutable_estop();
      estop->set_is_estop(true);
      estop->set_reason(status.error_message());
      status.Save(estop_trajectory.mutable_header()->mutable_status());
      ptr_trajectory_pb->CopyFrom(estop_trajectory);
    } else {
      ptr_trajectory_pb->mutable_decision()
          ->mutable_main_decision()
          ->mutable_not_ready()
          ->set_reason(status.ToString());
      status.Save(ptr_trajectory_pb->mutable_header()->mutable_status());
      GenerateStopTrajectory(ptr_trajectory_pb);
    }
    // TODO(all): integrate reverse gear
    ptr_trajectory_pb->set_gear(canbus::Chassis::GEAR_DRIVE);
    FillPlanningPb(start_timestamp, ptr_trajectory_pb);
    frame_->set_current_frame_planned_trajectory(*ptr_trajectory_pb);
    const uint32_t n = frame_->SequenceNum();
    injector_->frame_history()->Add(n, std::move(frame_));
    return;
  }
 
  for (auto& ref_line_info : *frame_->mutable_reference_line_info()) {
    auto traffic_status =
        traffic_decider_.Execute(frame_.get(), &ref_line_info);
    if (!traffic_status.ok() || !ref_line_info.IsDrivable()) {
      ref_line_info.SetDrivable(false);
      AWARN << "Reference line " << ref_line_info.Lanes().Id()
            << " traffic decider failed";
    }
  }
 
  status = Plan(start_timestamp, stitching_trajectory, ptr_trajectory_pb);
 
  // print trajxy
  PrintCurves trajectory_print_curve;
  for (const auto& p : ptr_trajectory_pb->trajectory_point()) {
    trajectory_print_curve.AddPoint("trajxy", p.path_point().x(),
                                    p.path_point().y());
  }
  trajectory_print_curve.PrintToLog();
 
  // print obstacle polygon
  for (const auto& obstacle : frame_->obstacles()) {
    obstacle->PrintPolygonCurve();
  }
  // print ego box
  PrintBox print_box("ego_box");
  print_box.AddAdcBox(vehicle_state.x(), vehicle_state.y(),
                      vehicle_state.heading(), true);
  print_box.PrintToLog();
 
  const auto end_system_timestamp =
      std::chrono::duration<double>(
          std::chrono::system_clock::now().time_since_epoch())
          .count();
  const auto time_diff_ms =
      (end_system_timestamp - start_system_timestamp) * 1000;
  ADEBUG << "total planning time spend: " << time_diff_ms << " ms.";
 
  ptr_trajectory_pb->mutable_latency_stats()->set_total_time_ms(time_diff_ms);
  ADEBUG << "Planning latency: "
         << ptr_trajectory_pb->latency_stats().DebugString();
 
  if (!status.ok()) {
    status.Save(ptr_trajectory_pb->mutable_header()->mutable_status());
    AERROR << "Planning failed:" << status.ToString();
    if (FLAGS_publish_estop) {
      AERROR << "Planning failed and set estop";
      // "estop" signal check in function "Control::ProduceControlCommand()"
      // estop_ = estop_ || local_view_.trajectory.estop().is_estop();
      // we should add more information to ensure the estop being triggered.
      EStop* estop = ptr_trajectory_pb->mutable_estop();
      estop->set_is_estop(true);
      estop->set_reason(status.error_message());
    }
  }
 
  ptr_trajectory_pb->set_is_replan(stitching_trajectory.size() == 1);
  if (ptr_trajectory_pb->is_replan()) {
    ptr_trajectory_pb->set_replan_reason(replan_reason);
  }
 
  if (frame_->open_space_info().is_on_open_space_trajectory()) {
    FillPlanningPb(start_timestamp, ptr_trajectory_pb);
    ADEBUG << "Planning pb:" << ptr_trajectory_pb->header().DebugString();
    frame_->set_current_frame_planned_trajectory(*ptr_trajectory_pb);
  } else {
    auto* ref_line_task =
        ptr_trajectory_pb->mutable_latency_stats()->add_task_stats();
    ref_line_task->set_time_ms(reference_line_provider_->LastTimeDelay() *
                               1000.0);
    ref_line_task->set_name("ReferenceLineProvider");
 
    FillPlanningPb(start_timestamp, ptr_trajectory_pb);
    ADEBUG << "Planning pb:" << ptr_trajectory_pb->header().DebugString();
 
    frame_->set_current_frame_planned_trajectory(*ptr_trajectory_pb);
    if (FLAGS_enable_planning_smoother) {
      planning_smoother_.Smooth(injector_->frame_history(), frame_.get(),
                                ptr_trajectory_pb);
    }
  }
 
  const auto end_planning_perf_timestamp =
      std::chrono::duration<double>(
          std::chrono::system_clock::now().time_since_epoch())
          .count();
  const auto plnning_perf_ms =
      (end_planning_perf_timestamp - start_system_timestamp) * 1000;
  AINFO << "Planning Perf: planning name [" << Name() << "], "
        << plnning_perf_ms << " ms.";
  AINFO << "Planning end frame sequence id = [" << frame_num << "]";
  injector_->frame_history()->Add(frame_num, std::move(frame_));
}
 
void OnLanePlanning::ExportReferenceLineDebug(planning_internal::Debug* debug) {
  if (!FLAGS_enable_record_debug) {
    return;
  }
  for (auto& reference_line_info : *frame_->mutable_reference_line_info()) {
    auto rl_debug = debug->mutable_planning_data()->add_reference_line();
    rl_debug->set_id(reference_line_info.Lanes().Id());
    rl_debug->set_length(reference_line_info.reference_line().Length());
    rl_debug->set_cost(reference_line_info.Cost());
    rl_debug->set_is_change_lane_path(reference_line_info.IsChangeLanePath());
    rl_debug->set_is_drivable(reference_line_info.IsDrivable());
    rl_debug->set_is_protected(reference_line_info.GetRightOfWayStatus() ==
                               ADCTrajectory::PROTECTED);
 
    // store kappa and dkappa for performance evaluation
    const auto& reference_points =
        reference_line_info.reference_line().reference_points();
    double kappa_rms = 0.0;
    double dkappa_rms = 0.0;
    double kappa_max_abs = std::numeric_limits<double>::lowest();
    double dkappa_max_abs = std::numeric_limits<double>::lowest();
    for (const auto& reference_point : reference_points) {
      double kappa_sq = reference_point.kappa() * reference_point.kappa();
      double dkappa_sq = reference_point.dkappa() * reference_point.dkappa();
      kappa_rms += kappa_sq;
      dkappa_rms += dkappa_sq;
      kappa_max_abs = kappa_max_abs < kappa_sq ? kappa_sq : kappa_max_abs;
      dkappa_max_abs = dkappa_max_abs < dkappa_sq ? dkappa_sq : dkappa_max_abs;
    }
    double reference_points_size = static_cast<double>(reference_points.size());
    kappa_rms /= reference_points_size;
    dkappa_rms /= reference_points_size;
    kappa_rms = std::sqrt(kappa_rms);
    dkappa_rms = std::sqrt(dkappa_rms);
    rl_debug->set_kappa_rms(kappa_rms);
    rl_debug->set_dkappa_rms(dkappa_rms);
    rl_debug->set_kappa_max_abs(kappa_max_abs);
    rl_debug->set_dkappa_max_abs(dkappa_max_abs);
 
    bool is_off_road = false;
    double minimum_boundary = std::numeric_limits<double>::infinity();
 
    const double adc_half_width =
        common::VehicleConfigHelper::GetConfig().vehicle_param().width() / 2.0;
    const auto& reference_line_path =
        reference_line_info.reference_line().GetMapPath();
    const auto sample_s = 0.1;
    const auto reference_line_length =
        reference_line_info.reference_line().Length();
    double average_offset = 0.0;
    double sample_count = 0.0;
    for (double s = 0.0; s < reference_line_length; s += sample_s) {
      double left_width = reference_line_path.GetLaneLeftWidth(s);
      double right_width = reference_line_path.GetLaneRightWidth(s);
      average_offset += 0.5 * std::abs(left_width - right_width);
      if (left_width < adc_half_width || right_width < adc_half_width) {
        is_off_road = true;
      }
      if (left_width < minimum_boundary) {
        minimum_boundary = left_width;
      }
      if (right_width < minimum_boundary) {
        minimum_boundary = right_width;
      }
      ++sample_count;
    }
    rl_debug->set_is_offroad(is_off_road);
    rl_debug->set_minimum_boundary(minimum_boundary);
    rl_debug->set_average_offset(average_offset / sample_count);
  }
}
 
Status OnLanePlanning::Plan(
    const double current_time_stamp,
    const std::vector<TrajectoryPoint>& stitching_trajectory,
    ADCTrajectory* const ptr_trajectory_pb) {
  auto* ptr_debug = ptr_trajectory_pb->mutable_debug();
  if (FLAGS_enable_record_debug) {
    ptr_debug->mutable_planning_data()->mutable_init_point()->CopyFrom(
        stitching_trajectory.back());
    frame_->mutable_open_space_info()->set_debug(ptr_debug);
    frame_->mutable_open_space_info()->sync_debug_instance();
  }
 
  auto status = planner_->Plan(stitching_trajectory.back(), frame_.get(),
                               ptr_trajectory_pb);
 
  ptr_debug->mutable_planning_data()->set_front_clear_distance(
      injector_->ego_info()->front_clear_distance());
 
  if (frame_->open_space_info().is_on_open_space_trajectory()) {
    frame_->mutable_open_space_info()->sync_debug_instance();
    const auto& publishable_trajectory =
        frame_->open_space_info().publishable_trajectory_data().first;
    const auto& publishable_trajectory_gear =
        frame_->open_space_info().publishable_trajectory_data().second;
    const auto& trajectory_type = frame_->open_space_info().trajectory_type();
    const auto& is_collision = frame_->open_space_info().is_collision();
    publishable_trajectory.PopulateTrajectoryProtobuf(ptr_trajectory_pb);
    ptr_trajectory_pb->set_gear(publishable_trajectory_gear);
    ptr_trajectory_pb->set_trajectory_type(trajectory_type);
    ptr_trajectory_pb->set_is_collision(is_collision);
    // TODO(QiL): refine engage advice in open space trajectory optimizer.
    auto* engage_advice = ptr_trajectory_pb->mutable_engage_advice();
 
    // enable start auto from open_space planner.
    if (injector_->vehicle_state()->vehicle_state().driving_mode() !=
        Chassis::DrivingMode::Chassis_DrivingMode_COMPLETE_AUTO_DRIVE) {
      engage_advice->set_advice(EngageAdvice::READY_TO_ENGAGE);
      engage_advice->set_reason(
          "Ready to engage when staring with OPEN_SPACE_PLANNER");
    } else {
      engage_advice->set_advice(EngageAdvice::KEEP_ENGAGED);
      engage_advice->set_reason("Keep engage while in parking");
    }
    // TODO(QiL): refine the export decision in open space info
    ptr_trajectory_pb->mutable_decision()
        ->mutable_main_decision()
        ->mutable_parking()
        ->set_status(MainParking::IN_PARKING);
 
    if (FLAGS_enable_record_debug) {
      // ptr_debug->MergeFrom(frame_->open_space_info().debug_instance());
      frame_->mutable_open_space_info()->RecordDebug(ptr_debug);
      ADEBUG << "Open space debug information added!";
      // call open space info load debug
      // TODO(Runxin): create a new flag to enable openspace chart
      ExportOpenSpaceChart(ptr_trajectory_pb->debug(), *ptr_trajectory_pb,
                           ptr_debug);
    }
  } else {
    const auto* best_ref_info = frame_->FindDriveReferenceLineInfo();
    const auto* target_ref_info = frame_->FindTargetReferenceLineInfo();
    if (!best_ref_info) {
      const std::string msg = "planner failed to make a driving plan";
      AERROR << msg;
      if (last_publishable_trajectory_) {
        last_publishable_trajectory_->Clear();
      }
      return Status(ErrorCode::PLANNING_ERROR, msg);
    }
    // Store current frame stitched path for possible speed fallback in next
    // frames
    DiscretizedPath current_frame_planned_path;
    for (const auto& trajectory_point : stitching_trajectory) {
      current_frame_planned_path.push_back(trajectory_point.path_point());
    }
    const auto& best_ref_path = best_ref_info->path_data().discretized_path();
    std::copy(best_ref_path.begin() + 1, best_ref_path.end(),
              std::back_inserter(current_frame_planned_path));
    frame_->set_current_frame_planned_path(current_frame_planned_path);
 
    ptr_debug->MergeFrom(best_ref_info->debug());
    if (FLAGS_export_chart) {
      ExportOnLaneChart(best_ref_info->debug(), ptr_debug);
    } else {
      ExportReferenceLineDebug(ptr_debug);
      // Export additional ST-chart for failed lane-change speed planning
      const auto* failed_ref_info = frame_->FindFailedReferenceLineInfo();
      if (failed_ref_info) {
        ExportFailedLaneChangeSTChart(failed_ref_info->debug(), ptr_debug);
      }
    }
    ptr_trajectory_pb->mutable_latency_stats()->MergeFrom(
        best_ref_info->latency_stats());
    // set right of way status
    ptr_trajectory_pb->set_right_of_way_status(
        best_ref_info->GetRightOfWayStatus());
 
    for (const auto& id : best_ref_info->TargetLaneId()) {
      ptr_trajectory_pb->add_lane_id()->CopyFrom(id);
    }
 
    for (const auto& id : target_ref_info->TargetLaneId()) {
      ptr_trajectory_pb->add_target_lane_id()->CopyFrom(id);
    }
 
    ptr_trajectory_pb->set_trajectory_type(best_ref_info->trajectory_type());
 
    if (FLAGS_enable_rss_info) {
      *ptr_trajectory_pb->mutable_rss_info() = best_ref_info->rss_info();
    }
 
    best_ref_info->ExportDecision(ptr_trajectory_pb->mutable_decision(),
                                  injector_->planning_context());
 
    // Add debug information.
    if (FLAGS_enable_record_debug) {
      auto* reference_line = ptr_debug->mutable_planning_data()->add_path();
      reference_line->set_name("planning_reference_line");
      const auto& reference_points =
          best_ref_info->reference_line().reference_points();
      double s = 0.0;
      double prev_x = 0.0;
      double prev_y = 0.0;
      bool empty_path = true;
      for (const auto& reference_point : reference_points) {
        auto* path_point = reference_line->add_path_point();
        path_point->set_x(reference_point.x());
        path_point->set_y(reference_point.y());
        path_point->set_theta(reference_point.heading());
        path_point->set_kappa(reference_point.kappa());
        path_point->set_dkappa(reference_point.dkappa());
        if (empty_path) {
          path_point->set_s(0.0);
          empty_path = false;
        } else {
          double dx = reference_point.x() - prev_x;
          double dy = reference_point.y() - prev_y;
          s += std::hypot(dx, dy);
          path_point->set_s(s);
        }
        prev_x = reference_point.x();
        prev_y = reference_point.y();
      }
    }
 
    last_publishable_trajectory_.reset(new PublishableTrajectory(
        current_time_stamp, best_ref_info->trajectory()));
    PrintCurves debug_traj;
    for (size_t i = 0; i < last_publishable_trajectory_->size(); i++) {
      auto& traj_pt = last_publishable_trajectory_->at(i);
      debug_traj.AddPoint("traj_sv", traj_pt.path_point().s(), traj_pt.v());
      debug_traj.AddPoint("traj_sa", traj_pt.path_point().s(), traj_pt.a());
      debug_traj.AddPoint("traj_sk", traj_pt.path_point().s(),
                          traj_pt.path_point().kappa());
    }
    // debug_traj.PrintToLog();
    ADEBUG << "current_time_stamp: " << current_time_stamp;
 
    last_publishable_trajectory_->PrependTrajectoryPoints(
        std::vector<TrajectoryPoint>(stitching_trajectory.begin(),
                                     stitching_trajectory.end() - 1));
 
    last_publishable_trajectory_->PopulateTrajectoryProtobuf(ptr_trajectory_pb);
 
    best_ref_info->ExportEngageAdvice(
        ptr_trajectory_pb->mutable_engage_advice(),
        injector_->planning_context());
  }
 
  return status;
}
 
bool OnLanePlanning::CheckPlanningConfig(const PlanningConfig& config) {
  // TODO(All): check other config params
  return true;
}
 
void PopulateChartOptions(double x_min, double x_max, std::string x_label,
                          double y_min, double y_max, std::string y_label,
                          bool display, Chart* chart) {
  auto* options = chart->mutable_options();
  options->mutable_x()->set_min(x_min);
  options->mutable_x()->set_max(x_max);
  options->mutable_y()->set_min(y_min);
  options->mutable_y()->set_max(y_max);
  options->mutable_x()->set_label_string(x_label);
  options->mutable_y()->set_label_string(y_label);
  options->set_legend_display(display);
}
 
void AddSTGraph(const STGraphDebug& st_graph, Chart* chart) {
  if (st_graph.name() == "DP_ST_SPEED_OPTIMIZER") {
    chart->set_title("Speed Heuristic");
  } else {
    chart->set_title("Planning S-T Graph");
  }
  PopulateChartOptions(-2.0, 10.0, "t (second)", -10.0, 220.0, "s (meter)",
                       false, chart);
 
  for (const auto& boundary : st_graph.boundary()) {
    // from 'ST_BOUNDARY_TYPE_' to the end
    std::string type =
        StGraphBoundaryDebug_StBoundaryType_Name(boundary.type()).substr(17);
 
    auto* boundary_chart = chart->add_polygon();
    auto* properties = boundary_chart->mutable_properties();
    (*properties)["borderWidth"] = "2";
    (*properties)["pointRadius"] = "0";
    (*properties)["lineTension"] = "0";
    (*properties)["cubicInterpolationMode"] = "monotone";
    (*properties)["showLine"] = "true";
    (*properties)["showText"] = "true";
    (*properties)["fill"] = "false";
 
    if (type == "DRIVABLE_REGION") {
      (*properties)["color"] = "\"rgba(0, 255, 0, 0.5)\"";
    } else {
      (*properties)["color"] = "\"rgba(255, 0, 0, 0.8)\"";
    }
 
    boundary_chart->set_label(boundary.name() + "_" + type);
    for (const auto& point : boundary.point()) {
      auto* point_debug = boundary_chart->add_point();
      point_debug->set_x(point.t());
      point_debug->set_y(point.s());
    }
  }
 
  auto* speed_profile = chart->add_line();
  auto* properties = speed_profile->mutable_properties();
  (*properties)["color"] = "\"rgba(255, 255, 255, 0.5)\"";
  for (const auto& point : st_graph.speed_profile()) {
    auto* point_debug = speed_profile->add_point();
    point_debug->set_x(point.t());
    point_debug->set_y(point.s());
  }
}
 
void AddSLFrame(const SLFrameDebug& sl_frame, Chart* chart) {
  chart->set_title(sl_frame.name());
  PopulateChartOptions(0.0, 80.0, "s (meter)", -8.0, 8.0, "l (meter)", false,
                       chart);
  auto* sl_line = chart->add_line();
  sl_line->set_label("SL Path");
  for (const auto& sl_point : sl_frame.sl_path()) {
    auto* point_debug = sl_line->add_point();
    point_debug->set_x(sl_point.s());
    point_debug->set_x(sl_point.l());
  }
}
 
void AddSpeedPlan(
    const ::google::protobuf::RepeatedPtrField<SpeedPlan>& speed_plans,
    Chart* chart) {
  chart->set_title("Speed Plan");
  PopulateChartOptions(0.0, 80.0, "s (meter)", 0.0, 50.0, "v (m/s)", false,
                       chart);
 
  for (const auto& speed_plan : speed_plans) {
    auto* line = chart->add_line();
    line->set_label(speed_plan.name());
    for (const auto& point : speed_plan.speed_point()) {
      auto* point_debug = line->add_point();
      point_debug->set_x(point.s());
      point_debug->set_y(point.v());
    }
 
    // Set chartJS's dataset properties
    auto* properties = line->mutable_properties();
    (*properties)["borderWidth"] = "2";
    (*properties)["pointRadius"] = "0";
    (*properties)["fill"] = "false";
    (*properties)["showLine"] = "true";
    if (speed_plan.name() == "DpStSpeedOptimizer") {
      (*properties)["color"] = "\"rgba(27, 249, 105, 0.5)\"";
    } else if (speed_plan.name() == "QpSplineStSpeedOptimizer") {
      (*properties)["color"] = "\"rgba(54, 162, 235, 1)\"";
    }
  }
}
 
void OnLanePlanning::ExportFailedLaneChangeSTChart(
    const planning_internal::Debug& debug_info,
    planning_internal::Debug* debug_chart) {
  const auto& src_data = debug_info.planning_data();
  auto* dst_data = debug_chart->mutable_planning_data();
  for (const auto& st_graph : src_data.st_graph()) {
    AddSTGraph(st_graph, dst_data->add_chart());
  }
}
 
void OnLanePlanning::ExportOnLaneChart(
    const planning_internal::Debug& debug_info,
    planning_internal::Debug* debug_chart) {
  const auto& src_data = debug_info.planning_data();
  auto* dst_data = debug_chart->mutable_planning_data();
  for (const auto& st_graph : src_data.st_graph()) {
    AddSTGraph(st_graph, dst_data->add_chart());
  }
  for (const auto& sl_frame : src_data.sl_frame()) {
    AddSLFrame(sl_frame, dst_data->add_chart());
  }
  AddSpeedPlan(src_data.speed_plan(), dst_data->add_chart());
}
 
void OnLanePlanning::ExportOpenSpaceChart(
    const planning_internal::Debug& debug_info,
    const ADCTrajectory& trajectory_pb, planning_internal::Debug* debug_chart) {
  // Export Trajectory Visualization Chart.
  if (FLAGS_enable_record_debug) {
    AddOpenSpaceOptimizerResult(debug_info, debug_chart);
    AddPartitionedTrajectory(debug_info, debug_chart);
    AddStitchSpeedProfile(debug_chart);
    AddPublishedSpeed(trajectory_pb, debug_chart);
    AddPublishedAcceleration(trajectory_pb, debug_chart);
    // AddFallbackTrajectory(debug_info, debug_chart);
  }
}
 
void OnLanePlanning::AddOpenSpaceOptimizerResult(
    const planning_internal::Debug& debug_info,
    planning_internal::Debug* debug_chart) {
  // if open space info provider success run
  if (!frame_->open_space_info().open_space_provider_success()) {
    return;
  }
 
  auto chart = debug_chart->mutable_planning_data()->add_chart();
  auto open_space_debug = debug_info.planning_data().open_space();
 
  chart->set_title("Open Space Trajectory Optimizer Visualization");
  PopulateChartOptions(open_space_debug.xy_boundary(0) - 1.0,
                       open_space_debug.xy_boundary(1) + 1.0, "x (meter)",
                       open_space_debug.xy_boundary(2) - 1.0,
                       open_space_debug.xy_boundary(3) + 1.0, "y (meter)", true,
                       chart);
 
  chart->mutable_options()->set_sync_xy_window_size(true);
  chart->mutable_options()->set_aspect_ratio(0.9);
  int obstacle_index = 1;
  for (const auto& obstacle : open_space_debug.obstacles()) {
    auto* obstacle_outline = chart->add_line();
    obstacle_outline->set_label(absl::StrCat("Bdr", obstacle_index));
    obstacle_index += 1;
    for (int vertice_index = 0;
         vertice_index < obstacle.vertices_x_coords_size(); vertice_index++) {
      auto* point_debug = obstacle_outline->add_point();
      point_debug->set_x(obstacle.vertices_x_coords(vertice_index));
      point_debug->set_y(obstacle.vertices_y_coords(vertice_index));
    }
    // Set chartJS's dataset properties
    auto* obstacle_properties = obstacle_outline->mutable_properties();
    (*obstacle_properties)["borderWidth"] = "2";
    (*obstacle_properties)["pointRadius"] = "0";
    (*obstacle_properties)["lineTension"] = "0";
    (*obstacle_properties)["fill"] = "false";
    (*obstacle_properties)["showLine"] = "true";
  }
 
  auto smoothed_trajectory = open_space_debug.smoothed_trajectory();
  auto* smoothed_line = chart->add_line();
  smoothed_line->set_label("Smooth");
  // size_t adc_label = 0;
  for (int i = 0; i < smoothed_trajectory.vehicle_motion_point_size() / 2;
       i++) {
    auto& point = smoothed_trajectory.vehicle_motion_point(i);
    const auto x = point.trajectory_point().path_point().x();
    const auto y = point.trajectory_point().path_point().y();
    // const auto heading = point.trajectory_point().path_point().theta();
    /*
        // Draw vehicle shape along the trajectory
        auto* adc_shape = chart->add_car();
        adc_shape->set_x(x);
        adc_shape->set_y(y);
        adc_shape->set_heading(heading);
        adc_shape->set_color("rgba(54, 162, 235, 1)");
        adc_shape->set_label(std::to_string(adc_label));
        adc_shape->set_hide_label_in_legend(true);
        ++adc_label;
    */
    // Draw vehicle trajectory points
    auto* point_debug = smoothed_line->add_point();
    point_debug->set_x(x);
    point_debug->set_y(y);
  }
 
  // Set chartJS's dataset properties
  auto* smoothed_properties = smoothed_line->mutable_properties();
  (*smoothed_properties)["borderWidth"] = "2";
  (*smoothed_properties)["pointRadius"] = "0";
  (*smoothed_properties)["lineTension"] = "0";
  (*smoothed_properties)["fill"] = "false";
  (*smoothed_properties)["showLine"] = "true";
 
  auto warm_start_trajectory = open_space_debug.warm_start_trajectory();
  auto* warm_start_line = chart->add_line();
  warm_start_line->set_label("WarmStart");
  for (int i = 0; i < warm_start_trajectory.vehicle_motion_point_size() / 2;
       i++) {
    auto* point_debug = warm_start_line->add_point();
    auto& point = warm_start_trajectory.vehicle_motion_point(i);
    point_debug->set_x(point.trajectory_point().path_point().x());
    point_debug->set_y(point.trajectory_point().path_point().y());
  }
  // Set chartJS's dataset properties
  auto* warm_start_properties = warm_start_line->mutable_properties();
  (*warm_start_properties)["borderWidth"] = "2";
  (*warm_start_properties)["pointRadius"] = "0";
  (*warm_start_properties)["lineTension"] = "0";
  (*warm_start_properties)["fill"] = "false";
  (*warm_start_properties)["showLine"] = "true";
}
 
void OnLanePlanning::AddPartitionedTrajectory(
    const planning_internal::Debug& debug_info,
    planning_internal::Debug* debug_chart) {
  // if open space info provider success run
  if (!frame_->open_space_info().open_space_provider_success()) {
    return;
  }
 
  const auto& open_space_debug = debug_info.planning_data().open_space();
  const auto& chosen_trajectories =
      open_space_debug.chosen_trajectory().trajectory();
  if (chosen_trajectories.empty() ||
      chosen_trajectories[0].trajectory_point().empty()) {
    return;
  }
 
  const auto& vehicle_state = frame_->vehicle_state();
  auto chart = debug_chart->mutable_planning_data()->add_chart();
  auto chart_kappa = debug_chart->mutable_planning_data()->add_chart();
  auto chart_theta = debug_chart->mutable_planning_data()->add_chart();
  chart->set_title("Open Space Partitioned Trajectory");
  chart_kappa->set_title("total kappa");
  chart_theta->set_title("total theta");
  auto* options = chart->mutable_options();
  options->mutable_x()->set_label_string("x (meter)");
  options->mutable_y()->set_label_string("y (meter)");
  options->set_sync_xy_window_size(true);
  options->set_aspect_ratio(0.9);
 
  // Draw vehicle state
  auto* adc_shape = chart->add_car();
  adc_shape->set_x(vehicle_state.x());
  adc_shape->set_y(vehicle_state.y());
  adc_shape->set_heading(vehicle_state.heading());
  adc_shape->set_label("ADV");
  adc_shape->set_color("rgba(54, 162, 235, 1)");
 
  // Draw the chosen trajectories
  const auto& chosen_trajectory = chosen_trajectories[0];
  auto* chosen_line = chart->add_line();
  chosen_line->set_label("Chosen");
  for (const auto& point : chosen_trajectory.trajectory_point()) {
    auto* point_debug = chosen_line->add_point();
    point_debug->set_x(point.path_point().x());
    point_debug->set_y(point.path_point().y());
  }
  auto* chosen_properties = chosen_line->mutable_properties();
  (*chosen_properties)["borderWidth"] = "2";
  (*chosen_properties)["pointRadius"] = "0";
  (*chosen_properties)["lineTension"] = "0";
  (*chosen_properties)["fill"] = "false";
  (*chosen_properties)["showLine"] = "true";
  auto* theta_line = chart_theta->add_line();
  auto* kappa_line = chart_kappa->add_line();
  // Draw partitioned trajectories
  size_t partitioned_trajectory_label = 0;
  for (const auto& partitioned_trajectory :
       open_space_debug.partitioned_trajectories().trajectory()) {
    auto* partition_line = chart->add_line();
    partition_line->set_label(
        absl::StrCat("Partitioned ", partitioned_trajectory_label));
    ++partitioned_trajectory_label;
    for (const auto& point : partitioned_trajectory.trajectory_point()) {
      auto* point_debug = partition_line->add_point();
      auto* point_theta = theta_line->add_point();
      auto* point_kappa = kappa_line->add_point();
      point_debug->set_x(point.path_point().x());
      point_debug->set_y(point.path_point().y());
      point_theta->set_x(point.relative_time());
      point_kappa->set_x(point.relative_time());
      point_theta->set_y(point.path_point().theta());
      point_kappa->set_y(point.path_point().kappa());
    }
 
    auto* partition_properties = partition_line->mutable_properties();
    (*partition_properties)["borderWidth"] = "2";
    (*partition_properties)["pointRadius"] = "0";
    (*partition_properties)["lineTension"] = "0";
    (*partition_properties)["fill"] = "false";
    (*partition_properties)["showLine"] = "true";
    SetChartminmax(chart_kappa, "time", "total kappa");
    SetChartminmax(chart_theta, "time", "total theta");
  }
 
  // Draw trajectory stitching point (line with only one point)
  // auto* stitching_line = chart->add_line();
  // stitching_line->set_label("TrajectoryStitchingPoint");
  // auto* trajectory_stitching_point = stitching_line->add_point();
  // trajectory_stitching_point->set_x(
  //     open_space_debug.trajectory_stitching_point().path_point().x());
  // trajectory_stitching_point->set_y(
  //     open_space_debug.trajectory_stitching_point().path_point().y());
  // // Set chartJS's dataset properties
  // auto* stitching_properties = stitching_line->mutable_properties();
  // (*stitching_properties)["borderWidth"] = "3";
  // (*stitching_properties)["pointRadius"] = "5";
  // (*stitching_properties)["lineTension"] = "0";
  // (*stitching_properties)["fill"] = "true";
  // (*stitching_properties)["showLine"] = "true";
 
  // Draw fallback trajectory compared with the partitioned and potential
  // collision_point (line with only one point)
  // if (open_space_debug.is_fallback_trajectory()) {
  //   auto* collision_line = chart->add_line();
  //   collision_line->set_label("FutureCollisionPoint");
  //   auto* future_collision_point = collision_line->add_point();
  //   future_collision_point->set_x(
  //       open_space_debug.future_collision_point().path_point().x());
  //   future_collision_point->set_y(
  //       open_space_debug.future_collision_point().path_point().y());
  //   // Set chartJS's dataset properties
  //   auto* collision_properties = collision_line->mutable_properties();
  //   (*collision_properties)["borderWidth"] = "3";
  //   (*collision_properties)["pointRadius"] = "8";
  //   (*collision_properties)["lineTension"] = "0";
  //   (*collision_properties)["fill"] = "true";
  // (*stitching_properties)["showLine"] = "true";
  // (*stitching_properties)["pointStyle"] = "cross";
 
  // const auto& fallback_trajectories =
  //     open_space_debug.fallback_trajectory().trajectory();
  // if (fallback_trajectories.empty() ||
  //     fallback_trajectories[0].trajectory_point().empty()) {
  //   return;
  // }
  // const auto& fallback_trajectory = fallback_trajectories[0];
  // // has to define chart boundary first
  // auto* fallback_line = chart->add_line();
  // fallback_line->set_label("Fallback");
  // for (const auto& point : fallback_trajectory.trajectory_point()) {
  //   auto* point_debug = fallback_line->add_point();
  //   point_debug->set_x(point.path_point().x());
  //   point_debug->set_y(point.path_point().y());
  // }
  // // Set chartJS's dataset properties
  // auto* fallback_properties = fallback_line->mutable_properties();
  // (*fallback_properties)["borderWidth"] = "3";
  // (*fallback_properties)["pointRadius"] = "2";
  // (*fallback_properties)["lineTension"] = "0";
  // (*fallback_properties)["fill"] = "false";
  // (*fallback_properties)["showLine"] = "true";
  // }
}
 
void OnLanePlanning::AddStitchSpeedProfile(
    planning_internal::Debug* debug_chart) {
  if (!injector_->frame_history()->Latest()) {
    AINFO << "Planning frame is empty!";
    return;
  }
 
  // if open space info provider success run
  if (!frame_->open_space_info().open_space_provider_success()) {
    return;
  }
 
  auto chart = debug_chart->mutable_planning_data()->add_chart();
  chart->set_title("Open Space Speed Plan Visualization");
  auto* options = chart->mutable_options();
  // options->mutable_x()->set_mid_value(Clock::NowInSeconds());
  double xmin(std::numeric_limits<double>::max()),
      xmax(std::numeric_limits<double>::lowest()),
      ymin(std::numeric_limits<double>::max()),
      ymax(std::numeric_limits<double>::lowest());
  // auto smoothed_trajectory = open_space_debug.smoothed_trajectory();
  auto* speed_profile = chart->add_line();
  speed_profile->set_label("Speed Profile");
  const auto& last_trajectory =
      injector_->frame_history()->Latest()->current_frame_planned_trajectory();
  for (const auto& point : last_trajectory.trajectory_point()) {
    auto* point_debug = speed_profile->add_point();
    point_debug->set_x(point.relative_time() +
                       last_trajectory.header().timestamp_sec());
    point_debug->set_y(point.v());
    if (point_debug->x() > xmax) xmax = point_debug->x();
    if (point_debug->x() < xmin) xmin = point_debug->x();
    if (point_debug->y() > ymax) ymax = point_debug->y();
    if (point_debug->y() < ymin) ymin = point_debug->y();
  }
  options->mutable_x()->set_window_size(xmax - xmin);
  options->mutable_x()->set_label_string("time (s)");
  options->mutable_y()->set_min(ymin);
  options->mutable_y()->set_max(ymax);
  options->mutable_y()->set_label_string("speed (m/s)");
  // Set chartJS's dataset properties
  auto* speed_profile_properties = speed_profile->mutable_properties();
  (*speed_profile_properties)["borderWidth"] = "2";
  (*speed_profile_properties)["pointRadius"] = "0";
  (*speed_profile_properties)["lineTension"] = "0";
  (*speed_profile_properties)["fill"] = "false";
  (*speed_profile_properties)["showLine"] = "true";
}
 
void OnLanePlanning::AddPublishedSpeed(const ADCTrajectory& trajectory_pb,
                                       planning_internal::Debug* debug_chart) {
  // if open space info provider success run
  if (!frame_->open_space_info().open_space_provider_success()) {
    return;
  }
 
  auto chart = debug_chart->mutable_planning_data()->add_chart();
  chart->set_title("Speed Partition Visualization");
  auto* options = chart->mutable_options();
  // options->mutable_x()->set_mid_value(Clock::NowInSeconds());
  // auto smoothed_trajectory = open_space_debug.smoothed_trajectory();
  auto* speed_profile = chart->add_line();
  speed_profile->set_label("Speed Profile");
  double xmin(std::numeric_limits<double>::max()),
      xmax(std::numeric_limits<double>::lowest()),
      ymin(std::numeric_limits<double>::max()),
      ymax(std::numeric_limits<double>::lowest());
  for (const auto& point : trajectory_pb.trajectory_point()) {
    auto* point_debug = speed_profile->add_point();
    point_debug->set_x(point.relative_time() +
                       trajectory_pb.header().timestamp_sec());
    if (trajectory_pb.gear() == canbus::Chassis::GEAR_DRIVE) {
      point_debug->set_y(point.v());
    }
    if (trajectory_pb.gear() == canbus::Chassis::GEAR_REVERSE) {
      point_debug->set_y(-point.v());
    }
    if (point_debug->x() > xmax) xmax = point_debug->x();
    if (point_debug->x() < xmin) xmin = point_debug->x();
    if (point_debug->y() > ymax) ymax = point_debug->y();
    if (point_debug->y() < ymin) ymin = point_debug->y();
  }
  options->mutable_x()->set_window_size(xmax - xmin);
  options->mutable_x()->set_label_string("time (s)");
  options->mutable_y()->set_min(ymin);
  options->mutable_y()->set_max(ymax);
  options->mutable_y()->set_label_string("speed (m/s)");
  // Set chartJS's dataset properties
  auto* speed_profile_properties = speed_profile->mutable_properties();
  (*speed_profile_properties)["borderWidth"] = "2";
  (*speed_profile_properties)["pointRadius"] = "0";
  (*speed_profile_properties)["lineTension"] = "0";
  (*speed_profile_properties)["fill"] = "false";
  (*speed_profile_properties)["showLine"] = "true";
 
  auto* sliding_line = chart->add_line();
  sliding_line->set_label("Time");
 
  auto* point_debug_up = sliding_line->add_point();
  point_debug_up->set_x(Clock::NowInSeconds());
  point_debug_up->set_y(2.1);
  auto* point_debug_down = sliding_line->add_point();
  point_debug_down->set_x(Clock::NowInSeconds());
  point_debug_down->set_y(-1.1);
 
  // Set chartJS's dataset properties
  auto* sliding_line_properties = sliding_line->mutable_properties();
  (*sliding_line_properties)["borderWidth"] = "2";
  (*sliding_line_properties)["pointRadius"] = "0";
  (*sliding_line_properties)["lineTension"] = "0";
  (*sliding_line_properties)["fill"] = "false";
  (*sliding_line_properties)["showLine"] = "true";
}
 
VehicleState OnLanePlanning::AlignTimeStamp(const VehicleState& vehicle_state,
                                            const double curr_timestamp) const {
  // TODO(Jinyun): use the same method in trajectory stitching
  //               for forward prediction
  auto future_xy = injector_->vehicle_state()->EstimateFuturePosition(
      curr_timestamp - vehicle_state.timestamp());
 
  VehicleState aligned_vehicle_state = vehicle_state;
  aligned_vehicle_state.set_x(future_xy.x());
  aligned_vehicle_state.set_y(future_xy.y());
  aligned_vehicle_state.set_timestamp(curr_timestamp);
  return aligned_vehicle_state;
}
 
void OnLanePlanning::AddPublishedAcceleration(
    const ADCTrajectory& trajectory_pb, planning_internal::Debug* debug) {
  // if open space info provider success run
  if (!frame_->open_space_info().open_space_provider_success()) {
    return;
  }
  double xmin(std::numeric_limits<double>::max()),
      xmax(std::numeric_limits<double>::lowest()),
      ymin(std::numeric_limits<double>::max()),
      ymax(std::numeric_limits<double>::lowest());
  auto chart = debug->mutable_planning_data()->add_chart();
  chart->set_title("Acceleration Partition Visualization");
  auto* options = chart->mutable_options();
  // options->mutable_x()->set_mid_value(Clock::NowInSeconds());
 
  auto* acceleration_profile = chart->add_line();
  acceleration_profile->set_label("Acceleration Profile");
  for (const auto& point : trajectory_pb.trajectory_point()) {
    auto* point_debug = acceleration_profile->add_point();
    point_debug->set_x(point.relative_time() +
                       trajectory_pb.header().timestamp_sec());
    if (trajectory_pb.gear() == canbus::Chassis::GEAR_DRIVE)
      point_debug->set_y(point.a());
    if (trajectory_pb.gear() == canbus::Chassis::GEAR_REVERSE)
      point_debug->set_y(-point.a());
    if (point_debug->x() > xmax) xmax = point_debug->x();
    if (point_debug->x() < xmin) xmin = point_debug->x();
    if (point_debug->y() > ymax) ymax = point_debug->y();
    if (point_debug->y() < ymin) ymin = point_debug->y();
  }
  options->mutable_x()->set_window_size(xmax - xmin);
  options->mutable_x()->set_label_string("time (s)");
  options->mutable_y()->set_min(ymin);
  options->mutable_y()->set_max(ymax);
  options->mutable_y()->set_label_string("acceleration (m/s)");
  // Set chartJS's dataset properties
  auto* acceleration_profile_properties =
      acceleration_profile->mutable_properties();
  (*acceleration_profile_properties)["borderWidth"] = "2";
  (*acceleration_profile_properties)["pointRadius"] = "0";
  (*acceleration_profile_properties)["lineTension"] = "0";
  (*acceleration_profile_properties)["fill"] = "false";
  (*acceleration_profile_properties)["showLine"] = "true";
 
  auto* sliding_line = chart->add_line();
  sliding_line->set_label("Time");
 
  auto* point_debug_up = sliding_line->add_point();
  point_debug_up->set_x(Clock::NowInSeconds());
  point_debug_up->set_y(2.1);
  auto* point_debug_down = sliding_line->add_point();
  point_debug_down->set_x(Clock::NowInSeconds());
  point_debug_down->set_y(-1.1);
 
  // Set chartJS's dataset properties
  auto* sliding_line_properties = sliding_line->mutable_properties();
  (*sliding_line_properties)["borderWidth"] = "2";
  (*sliding_line_properties)["pointRadius"] = "0";
  (*sliding_line_properties)["lineTension"] = "0";
  (*sliding_line_properties)["fill"] = "false";
  (*sliding_line_properties)["showLine"] = "true";
}
 
}  // namespace planning
}  // namespace apollo