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TartanDrive

TartanDrive is a large-scale real-world off-road driving dataset from CMU's AirLab, built for learning off-road vehicle dynamics models. It contains roughly 200,000 off-road driving interactions (about five hours of data) collected on a modified Yamaha Viking ATV driven across diverse terrain. The authors describe it as the largest real-world multimodal off-road driving dataset both in number of interactions and in number of sensing modalities. It provides seven unique sensing modalities: stereo RGB camera imagery (1024x512 @ 20Hz from a MultiSense S21), bird's-eye-view RGB maps (501x501 @ 20Hz) and heightmaps (501x501 @ 20Hz) derived from the stereo RGB-D mapping pipeline (not LiDAR), IMU (6D @ 200Hz), GPS-derived odometry/state (7D @ 50Hz), and vehicle proprioception including wheel RPM (4D @ 50Hz), shock/suspension position (4D @ 50Hz), and pedal/throttle commands (2D action @ 100Hz). Data are distributed as compressed rosbags (~100GB per compressed folder) that can be converted to PyTorch tensors or NumPy arrays via the provided scripts at github.com/castacks/tartan_drive. The dataset was introduced at ICRA 2022 and benchmarks state-of-the-art model-based RL methods for off-road dynamics prediction, showing that multi-modality improves prediction especially on challenging terrain. A follow-up, TartanDrive 2.0, adds LiDAR (two Velodyne VLP-32 and a Livox Mid-70) and seven hours of data.

Scale
5 hours
Formats
custom · rosbag
License
CC-BY-4.0
Published
2022-05-03

Decision summary

Best for

manual_operation

Main blocker

Metadata requires review against the official source before publication.

Next check

Read the dataset manifest and feature schema.

Catalog assessment

Selection evidence

73/100

Provisional · confidence 48 · 4/6 evaluated

Access and governance

Access and license are declared by the source.

usefulfit 75 · confidence 85

Schema and signal coverage

No machine-readable schema has been verified yet.

unknownnot scored · confidence 15

Policy training readiness

Observation and action/state signals are declared; alignment quality still depends on sample verification.

usefulfit 70 · confidence 55
View 3 more dimensions

World-model readiness

Temporal observations plus geometry or semantic context are declared; sample alignment remains to be audited.

usefulfit 82 · confidence 50

Failure and recovery readiness

No verified failure/recovery annotation evidence is available yet.

unknownnot scored · confidence 15

Download and processing readiness

Scale is declared; transfer and processing estimates are not measured.

usefulfit 65 · confidence 65
Review unresolved evidence and next checks

Signal gaps

  • Language intent / task phase. Not enough evidence is available to classify this signal.
  • Feedback / correction / failure. Not enough evidence is available to classify this signal.

Next checks

  • Read the dataset manifest and feature schema.
  • Run a bounded sample audit before assigning Strong readiness.

Record specifics

Dataset facts

Source
CMU AirLab
Evidence
secondary claim
Formats
custom · rosbag
hours
5
Read paper

Metadata coverage

Loop signals

5/7 present or partial

Language intent / task phase

No decision-grade evidence captured yet.

unknown
Feedback / correction / failure

No decision-grade evidence captured yet.

unknown
View 5 more signal categories
Observation / ego video

depth · video · TartanDrive is a large-scale real-world off-road driving dataset from CMU's AirLab, built for learning off-road vehicle dynamics models. It contains roughly 200,000 off-road driving interactions (about five hours of data) collected on a modified Yamaha Viking ATV driven across diverse terrain. The authors describe it as the largest real-world multimodal off-road driving dataset both in number of interactions and in number of sensing modalities. It provides seven unique sensing modalities: stereo RGB camera imagery (1024x512 @ 20Hz from a MultiSense S21), bird's-eye-view RGB maps (501x501 @ 20Hz) and heightmaps (501x501 @ 20Hz) derived from the stereo RGB-D mapping pipeline (not LiDAR), IMU (6D @ 200Hz), GPS-derived odometry/state (7D @ 50Hz), and vehicle proprioception including wheel RPM (4D @ 50Hz), shock/suspension position (4D @ 50Hz), and pedal/throttle commands (2D action @ 100Hz). Data are distributed as compressed rosbags (~100GB per compressed folder) that can be converted to PyTorch tensors or NumPy arrays via the provided scripts at github.com/castacks/tartan_drive. The dataset was introduced at ICRA 2022 and benchmarks state-of-the-art model-based RL methods for off-road dynamics prediction, showing that multi-modality improves prediction especially on challenging terrain. A follow-up, TartanDrive 2.0, adds LiDAR (two Velodyne VLP-32 and a Livox Mid-70) and seven hours of data.

present
Action / hand pose / robot state

TartanDrive is a large-scale real-world off-road driving dataset from CMU's AirLab, built for learning off-road vehicle dynamics models. It contains roughly 200,000 off-road driving interactions (about five hours of data) collected on a modified Yamaha Viking ATV driven across diverse terrain. The authors describe it as the largest real-world multimodal off-road driving dataset both in number of interactions and in number of sensing modalities. It provides seven unique sensing modalities: stereo RGB camera imagery (1024x512 @ 20Hz from a MultiSense S21), bird's-eye-view RGB maps (501x501 @ 20Hz) and heightmaps (501x501 @ 20Hz) derived from the stereo RGB-D mapping pipeline (not LiDAR), IMU (6D @ 200Hz), GPS-derived odometry/state (7D @ 50Hz), and vehicle proprioception including wheel RPM (4D @ 50Hz), shock/suspension position (4D @ 50Hz), and pedal/throttle commands (2D action @ 100Hz). Data are distributed as compressed rosbags (~100GB per compressed folder) that can be converted to PyTorch tensors or NumPy arrays via the provided scripts at github.com/castacks/tartan_drive. The dataset was introduced at ICRA 2022 and benchmarks state-of-the-art model-based RL methods for off-road dynamics prediction, showing that multi-modality improves prediction especially on challenging terrain. A follow-up, TartanDrive 2.0, adds LiDAR (two Velodyne VLP-32 and a Livox Mid-70) and seven hours of data.

present
Gaze / attention

TartanDrive is a large-scale real-world off-road driving dataset from CMU's AirLab, built for learning off-road vehicle dynamics models. It contains roughly 200,000 off-road driving interactions (about five hours of data) collected on a modified Yamaha Viking ATV driven across diverse terrain. The authors describe it as the largest real-world multimodal off-road driving dataset both in number of interactions and in number of sensing modalities. It provides seven unique sensing modalities: stereo RGB camera imagery (1024x512 @ 20Hz from a MultiSense S21), bird's-eye-view RGB maps (501x501 @ 20Hz) and heightmaps (501x501 @ 20Hz) derived from the stereo RGB-D mapping pipeline (not LiDAR), IMU (6D @ 200Hz), GPS-derived odometry/state (7D @ 50Hz), and vehicle proprioception including wheel RPM (4D @ 50Hz), shock/suspension position (4D @ 50Hz), and pedal/throttle commands (2D action @ 100Hz). Data are distributed as compressed rosbags (~100GB per compressed folder) that can be converted to PyTorch tensors or NumPy arrays via the provided scripts at github.com/castacks/tartan_drive. The dataset was introduced at ICRA 2022 and benchmarks state-of-the-art model-based RL methods for off-road dynamics prediction, showing that multi-modality improves prediction especially on challenging terrain. A follow-up, TartanDrive 2.0, adds LiDAR (two Velodyne VLP-32 and a Livox Mid-70) and seven hours of data.

partial
Sim-real pairing

depth

present
License / format / access

Open · CC-BY-4.0 · custom · rosbag

partial
Evidence details and provenance

Official signal claims

DepthPoint_cloudProprioceptionVideo

Schema and annotations

No machine-readable schema facts are captured.

Sample verification

Pending. Metadata does not prove sample coverage, alignment, or file integrity.

curated official source

Integration notes

  • Metadata requires review against the official source before publication.

Catalog links

Related records

TartanDrive: Loop Signals, Model Fit, and Failure Mining Readiness · OpenBot.ai