Production Autonomous Vehicle Evaluation

PAVE: An End-to-End Dataset for Production Autonomous Vehicle Evaluation

A real-world autonomous-driving dataset built for system-level evaluation of safety, behavior, and trajectory quality beyond perception-only benchmarks.

Xiangyu Li Chen Wang Yumao Liu Dengbo He Jiahao Zhang Ke Ma *

KITE Lab, The Hong Kong University of Science and Technology (Guangzhou)

  • Autonomous-mode collection
  • 6 database camera roles
  • RTK-enhanced GNSS/IMU trajectories
  • Scenario-level annotation schema
  • Selected academic subset release

Abstract

Existing datasets such as KITTI, nuScenes, Waymo, Argoverse, nuPlan, and Zenseact Open Dataset mainly support perception tasks and are largely collected from manually driven vehicles. PAVE closes this gap with real-world logs captured under identified autonomous-driving mode, enabling holistic evaluation of driving behavior, safety events, and trajectory quality with synchronized sensors and high-precision localization.

Release Focus System-level AV evaluation

Designed for behavior analysis, safety assessment, and trajectory-aware benchmark construction.

Included Signals Images, trajectories, scenarios

The public subset combines synchronized multi-view imagery, GNSS/IMU traces, and structured scenario metadata.

Current Release Academic non-commercial subset

Released for research, reproducible experiments, and scientific publication under the PAVE academic license.

Sensor Setup

PAVE vehicle sensor layout showing camera fields of view, GPS receivers, IMU, and vehicle axes.

Production AVs in PAVE

AION vehicle
AION
AITO M7 2024 vehicle
AITO M7 2024
AITO M7 2026 vehicle
AITO M7 2026
AVATR 11 vehicle
AVATR 11
Li Auto L9 vehicle
Li Auto L9
NIO ET5 vehicle
NIO ET5
NIO ET7 vehicle
NIO ET7
Tesla Model Y vehicle
Tesla Model Y
Toyota bZ3X vehicle
Toyota bZ3X
XPeng G9 vehicle
XPeng G9
XPeng P7 vehicle
XPeng P7
Xiaomi YU7 vehicle
Xiaomi YU7

Project Video

Dataset Comparison

This table compares representative autonomous driving datasets across perception, motion, and end-to-end categories. Notably, PAVE uniquely provides explicitly labeled autonomous driving mode data, enabling direct analysis of real-world AV behavior.

Category Dataset General Perception Trajectory Tasks
Year Scenes Size (h) Veh. models Driving mode Locations Avg. speed RGB imgs Ann. frames Cams Accuracy Attitude Ann. scenarios Tasks
Perception KITTI 2012 22 1.5 1 Human Karlsruhe 9.7 15k 15k 4 0.02 m Yes No Det.&Track.
ZOD (Frame) 2023 H + A (unlabeled) 14x Europe 100k 100k 1 0.01 m Yes No Det., Seg.
Waymo Perception 2019 1k 5.5 2 H + A (unlabeled) 3x USA 9.76 1M 200k 5 No Det.&Track.
Motion Waymo Motion 2021 100k 570 2 H + A (unlabeled) 6x USA 8.3 N/A N/A N/A No Motion Pred.
OpenPAV 2024 Multi H + A (unlabeled) Multi-source 3.2-32.2 N/A N/A N/A 0.01 - 0.1 m No Motion Pred.
End-to-End nuScenes 2019 1k 5.5 2 H + A (unlabeled) Boston, SG 5.1 1.4M 40k 6 ≤ 0.1 m Yes No Det.&Track.
ZOD (Sequences) 2023 1473 ~8 H + A (unlabeled) 14x Europe 294k 1473 1 0.01 m Yes No Det., Seg.
Waymo E2E 2025 4021 ~12 2 H + A (unlabeled) USA 5.8 ~5.5M 8 No Motion Plan.
Vehicle Count11

Vehicles represented in the current database.

FrameGroup9,255,068

Synchronized frame groups.

Valid Driving Time310.20 h

Driving time after the release validity filter.

ENU Distance14,618.53 km

Accumulated distance in the local east-north-up frame.

Scenario Coverage and Structured Annotation Schema

The PAVE dataset provides diverse real-world driving scenarios together with structured scenario-level annotations to support systematic condition-aware analysis, subset construction, and reproducible benchmark evaluation.

Representative PAVE multi-view images with object annotations and scene labels.
01

Area

area_type describes the dominant road context.

  • highway: expressways, urban expressways, elevated roads, ramps, and toll areas.
  • urban: city arterials, local roads, intersections, and built-up roadside areas.
  • residential: residential, campus, park, or internal community roads.
  • rural: suburban, rural, national, or provincial roads outside dense urban areas.
  • parking: parking lots, garages, or designated parking areas.
  • other: mixed, unclear, or out-of-category road contexts.
02

Lighting

lighting records the visible illumination condition.

  • day: sufficient natural daylight, including overcast daytime.
  • dawn and dusk: low-light transition periods around sunrise or sunset.
  • night: general nighttime conditions.
  • night_lit: nighttime with clear artificial or roadside lighting.
  • night_unlit: nighttime with weak or absent artificial lighting.
  • other: mixed or unclear illumination.
03

Weather

weather describes atmospheric and precipitation conditions.

  • clear: no notable precipitation or visibility obstruction.
  • cloudy: overcast or mostly cloudy conditions.
  • rain: active rainfall or a wet-road rain context.
  • snow: snowfall or snow-covered surroundings.
  • fog: fog, haze, or visibly reduced atmospheric clarity.
  • other: mixed, unusual, or unclear weather.
04

Road Surface

road_surface_type describes the drivable surface.

  • paved: asphalt, concrete, or another finished road surface.
  • unpaved: dirt, gravel, or a temporary construction path.
  • other: mixed or unclear surface conditions.
05

Driving State

driving_state describes frame-group motion behavior.

  • Values: stop, follow, cruise, lane_change_left, lane_change_right, turn_left, turn_right, other.
  • Window: the state uses a 6000 ms history and a 4000 ms future window.
  • Stop: current speed < 0.5 m/s and future displacement ≤ 2.0 m; the fallback allows ≤ 3.0 m with future speed < 0.5 m/s.
  • Turn: heading change ≥ 22° or 15°, past/future displacement ≥ 6/5 m, and current/future speed ≥ 2 m/s.
  • Lane change: heading change 2°–18°; the stricter branch starts at , with lateral displacement ≥ 1.0/1.5 m and forward displacement ≥ 8 m.
  • Follow: a lead vehicle is within ≤ 25 m; without lane geometry, a lead-box center between 35%–65% of image width is the same-lane range.
06

Vehicle and VRU Density

vehicle_density and vru_density summarize the number of road users in a frame group.

  • Vehicle: low5, mid = 6–15, high > 15.
  • VRU: low3, mid = 4–10, high > 10.
  • Vehicle and VRU categories are counted separately and stored as categorical fields.
07

Traffic Facilities

TrafficFacility records traffic-control objects in the scene.

  • Types: traffic_light and traffic_sign.
  • Fields: facility_type, mask_format, mask_data, x1/y1/x2/y2, score, and source.
  • Presence: has_traffic_light and has_traffic_sign are true when at least one matching facility exists in the frame group.
08

Traffic Participants

TrafficParticipant describes road users visible in individual frames.

  • Classes: vehicle, pedestrian, bicycle, electric_bicycle, and motorcycle.
  • Fields: class_name, mask_format, mask_data, x1/y1/x2/y2, score, and track_id.
  • Geometry: depth_median_m, depth_mean_m, depth_min_m, depth_max_m, distance_m, and rel_x_m/rel_y_m/rel_z_m.
09

Lane Lines and 3D Detection

LaneLine stores lane-boundary geometry, while Object3DDetection stores frame-level 3D targets.

  • Lane-line fields: lane_slot, point_format, points_data, point_count, x_min/y_min/x_max/y_max, and source.
  • 3D fields: class_name, original/model 2D boxes, bbox3d_format, bbox3d_data, camera-frame center, width_m/height_m/length_m, yaw_rad, and confidence.
  • Both records remain linked to their source frame and retain raw payload fields when available.
10

Driving Mode

  • AV: Autonomous Vehicle.
  • HV: Human-driven Vehicle.
  • Unknown: unavailable or undetermined driving mode.

Database Structure and Public Data Format

PAVE uses a synchronized frame group as the primary unit: camera frames, localization, operating mode, scenario attributes, and instance annotations share timestamps and database identifiers.

01

Relational Database Structure

The frame group connects synchronized sensor records with scene-level and frame-level annotations.

02

Current Data Tables

Primary keys and foreign keys show how the relational records are connected.

TableKey relationshipCurrent structure
vehicleid primary keyVehicle platform metadata, type, identity, model information, and vehicle-level calibration.
cameravehicle_idvehicle.idCamera role, brand, FOV, image size, intrinsic matrix, distortion, and camera-to-vehicle extrinsic matrix.
videocamera_idcamera.idVideo path, sequence, UTC time range, FPS, duration, codec, and resolution.
drive_modevehicle_idvehicle.idVehicle-specific mode key, display name, automation level, and description.
frame_groupvehicle_id, gnss_id, driver_intent_id, road_slope_state_idSynchronized vehicle-time record with sequence, UTC/local timestamps, localization link, intent, and road-slope state.
framevideo_id, camera_id, frame_group_id, drive_mode_idFrame index, timestamp, image path, video time, frame-level driving mode, mode confidence, and ADS indicator state.
gnssvehicle_idvehicle.idUTC samples with WGS84 position, ENU coordinates, speed, course, RTK status, satellite quality, and INS fields.
driver_intentid dictionary keyDriving-intent dictionary such as straight, left, and right.
road_slope_stateid dictionary keyRoad-slope dictionary for uphill, downhill, and flat states.
semantic_annotationframe_group_idframe_group.idFrame-group text description, language, model metadata, categories, tags, confidence, and notes.
scenario_annotationframe_group_idframe_group.idArea, lighting, weather, road surface, driving state, densities, facility flags, environmental fields, tags, source, and confidence.
traffic_participantframe_idframe.idRoad-user class, mask, bounding box, score, track identity, depth, distance, and relative position.
traffic_facilityframe_idframe.idTraffic-light/sign type, mask, bounding box, score, source, and facility-level metadata.
lane_lineframe_idframe.idLane slot, point format, point-set JSON, point count, geometry bounds, and source metadata.
object_3d_detectionframe_idframe.idObject class, 2D/3D boxes, camera-frame center, dimensions, yaw, scores, detector metadata, and raw payload.
03

Sensor Specifications in the Current Database

Six camera roles are present. A frame group may contain a subset, while localization and optional vehicle signals follow their own timing.

Sensor / signalStored parametersFrequency / timingDatabase representation
RGB camerasfront_wide, front_tele, left_wide, right_wide, rear_tele, inside; FOV, resolution, intrinsic, distortion, and extrinsic parameters. Exterior cameras support 2K at 30 Hz; the inside camera supports 1080p at 30 Hz.All collected camera data are standardized to 1080p at 10 Hz.camera, video, and frame
RTK-GNSS / INSWGS84 latitude/longitude/altitude, ENU E/N/U, speed, course, fix state, satellite count, HDOP, RTK fields, and INS attitude/status.Raw trajectory ≈20 Hz; aligned frame-group records ≈10 Hz; UTC millisecond timestamps.gnss, linked from frame_group; no independent imu table
CAN busOptional vehicle-state signals, including available energy or state-of-charge fields.10 Hz when supported; signal availability varies by vehicle.No independent can table exists in the current database.
Synchronization / framesUTC timestamps, vehicle frame (x forward, y left, z up), camera frame, and local ENU coordinate convention.Sensor synchronization error controlled within approximately 50 ms.Timestamp fields in video, frame, frame_group, and gnss
04

Release Layout

Public metadata is serialized as JSON while images remain under the release root.

pave_release/
├── data.json
└── images/
    └── <framegroup_id>_<timestamp>_<camera_role>.jpg
  • framegroup_id joins images, trajectory samples, and labels.
  • Legacy archives may use images_blurred/; paths remain relative to the release root.
  • Frame-group, frame, and track identifiers preserve one-to-many annotation records.
05

Logical Record

The public record is a frame-group view of the linked database entities; optional values may be empty.

{
  "framegroup_id": 123,
  "frames": [{
    "image_name": "..._front_wide.jpg",
    "camera_type": "front_wide",
    "camera_calibration": {"intrinsic": "...", "distortion": "...", "extrinsic": "..."}
  }],
  "timestamp": 1753564625700,
  "drive_intent": null,
  "drive_mode": "auto",
  "objects": [],
  "environment": {"weather": "clear", "illumination": "day", "traffic_density": "mid"},
  "scenario_category": null,
  "language_description": null,
  "trajectory": [{"timestamp": 1753564625700, "x_m": 0.0, "y_m": 0.0, "z_m": 0.0, "speed_mps": 2.4}]
}

Images are RGB records; trajectory values use SI units and timestamps are milliseconds. The public record does not introduce a separate CAN table.

Research-Oriented Release Design

The current public subset is organized to support non-commercial research, method development, and scientific publication around autonomous-vehicle evaluation.

01

Autonomous-mode Collection

Logs are captured with autonomous driving engaged rather than purely manual operation.

02

System-level Evaluation

Supports safety and reliability analysis beyond isolated perception metrics.

03

Trajectory and Behavior Analysis

Structured for AV behavior understanding, trajectory evaluation, and benchmark construction.

04

Multi-modal Synchronization

Synchronized sensor streams and localization records make temporal alignment first-class.

05

Privacy-aware Release

Faces and license plates are anonymized to match privacy and compliance requirements.

06

Benchmark-ready Packaging

Suitable for academic evaluation, reproducible experiments, and future devkit expansion.

Academic Release and Usage Terms

The Dataset is made available solely for non-commercial academic research, method development, education, and scientific publication.

License Summary

The Dataset is provided under the PAVE Academic Non-Commercial License v1.0.

  • Permitted: academic research, scientific investigation, method development, validation, benchmarking, peer-reviewed publication, theses, dissertations, and non-commercial teaching.
  • Prohibited: commercial or industrial use, including product/system development, internal industrial evaluation, deployment training, consulting, contract research, or paid services.
  • Redistribution, resale, sublicensing, or sharing of the Dataset or any modified or derived version is prohibited.
  • Use in a proprietary or closed-source commercial system is prohibited.
  • Commercial or industrial use requires a separate licensing agreement.
Read formal license Read usage summary

Usage Conditions

  • Any publication, presentation, report, or derivative work using the Dataset must cite the PAVE paper; failure to cite constitutes misuse.
  • Dataset use alone grants no authorship or co-authorship; authorship requires a substantial intellectual contribution.
  • The Dataset is provided as is, without warranty; the authors and copyright holders are not liable for claims or damages arising from use.
  • License violations automatically terminate the license, and all Dataset copies must then be deleted.
  • Users must respect data privacy, applicable regulations, and rigorous scientific and ethical standards.
  • Unauthorized commercial use will be pursued under applicable licensing agreements.

Full Dataset & Licensing

For full dataset access, commercial licensing, extended access, usage-rights clarification, industrial evaluation services, or extended annotations and benchmarks:

kema@hkust-gz.edu.cn

Please Cite the Dataset Paper

Citation is mandatory for any publication, presentation, report, or derivative work using this Dataset, even partially; failure to cite constitutes misuse.

@inproceedings{li2026pave,
  title={PAVE: An end-to-end dataset for production autonomous vehicle evaluation},
  author={Li, Xiangyu and Wang, Chen and Liu, Yumao and He, Dengbo and Zhang, Jiahao and Ma, Ke},
  booktitle={Proceedings of the IEEE/CVF Conference on Computer Vision and Pattern Recognition},
  pages={1010--1018},
  year={2026}
}
Open the paper on arXiv

Dataset Inquiries and Licensing Requests

Please contact the maintainers for full dataset access, commercial licensing, usage-rights clarification, extended benchmarks, or industrial evaluation services.

Email

kema@hkust-gz.edu.cn

KITE Lab, HKUST(GZ)