Multimodal Training Data Platform for Transportation AI

Revolutionize transportation with computer vision for smarter, safer, and more efficient systems.
Collage of urban street scenes with multiple vehicles, pedestrians, bicycles, and dogs, each labeled with bounding boxes and tags including car, person, bicycle, and dog.

Data Curation and Annotation for Transportation AI

Enhance transportation systems with precise data annotation, enabling smarter navigation, traffic management, and operational efficiency.
3D LiDAR point cloud visualization showing a blue autonomous car detecting multiple human figures and objects in its surroundings enclosed in colored bounding boxes.

3D LiDAR Annotation

3D LiDAR annotation provides precise spatial information by labeling point cloud data, enabling accurate object detection, classification, and tracking for applications such as autonomous vehicles, robotics, and smart city systems. This advanced annotation type captures depth, shape, and distance, essential for building robust AI models.
Two large trucks followed by several cars driving on a multi-lane highway with green 3D bounding boxes around each vehicle.

3D Cuboid Annotation

3D Cuboid annotation involves creating three-dimensional bounding boxes around objects, capturing their position, orientation, and size in a 3D space. This technique is essential for training AI models in applications like autonomous driving, robotics, and augmented reality, enabling accurate object detection and spatial understanding.
Heavy traffic jam on a multi-lane road with cars, motorcycles, buses, and trucks detected and labeled with colored boxes.

Traffic Prediction and Incident Analysis

Enable AI systems to predict and mitigate real-time traffic issues through advanced data annotation. By accurately labeling vehicles, road signs, lane markings, and traffic patterns, this annotation type empowers smarter navigation, congestion management, and safer transportation solutions.
Rear view of a white Peugeot RCZ car parked on cobblestone, with license plate number 6910 TE-7 and country code BY.

License Plate Recognition

Prepare and govern multimodal transportation data for perception, traffic intelligence, and autonomous mobility workflows.
Urban street scene with multiple 'Do Not Enter' signs, no bicycles allowed, and no pedestrian crossing signs on a city street with traffic and tall buildings.

Road Sign Detection and Recognition

Road Sign Reading annotation involves labeling and classifying various road signs in images or video data. This annotation type is essential for training AI models in autonomous vehicles, traffic management, and navigation systems, ensuring accurate sign detection and improved decision-making on the road.
Pedestrians crossing a street at a crosswalk, each person highlighted with green detection boxes.

Pedestrian and Foot Traffic Monitoring

Monitor Pedestrians and Foot Traffic annotation involves accurately labeling and tracking people in various environments. This annotation type is crucial for applications such as smart city planning, autonomous vehicles, crowd management, and safety analytics, enabling intelligent systems to understand and respond to human movement.
Close-up of damaged asphalt road surface showing a pothole with exposed underlying layer.

Road and Infrastructure Condition Monitoring

Monitor Road and Infrastructure Conditions annotation involves labeling and analyzing road surfaces, infrastructure elements, and environmental factors. This annotation type is essential for maintaining road safety, optimizing infrastructure management, and supporting autonomous vehicle navigation with accurate data insights.

Why AI Teams Choose Unitlab

One platform to manage, annotate, and curate training data across every modality, helping teams move faster while staying efficient at scale.
15X
Faster Data Annotation
60%
Free Up AI Engineer’s Time
5X
Save AI Development Cost

Annotation types for Transportation

Explore diverse annotation types for transportation, including vehicle detection, lane marking, traffic sign recognition, and route mapping to power advanced AI solutions.
Busy multilane city street with numerous cars, a person riding a bicycle, and several pedestrians near the crosswalk.

Bounding Box for Object Detection

Self-driving vehicles depend on their ability to perceive their environment for safe navigation. Experts play a key role by annotating bounding boxes, helping the vehicle's computer vision system accurately assess the distance and size of objects on the road and along the sides.

Segmentation for Road Scene Understanding

Semantic segmentation enhances object detection in autonomous vehicles by grouping multiple objects of the same category as a single unit. This process involves classifying every pixel in an image based on its semantic meaning, such as identifying all cars or all people within the scene.

Street scene with multiple color-segmented vehicles including SUVs and cars, green road, red buses, and trees along city buildings.
Rear view of a white Honda car driving on a highway with a green line and dots graphic overlay following the road.

Polyline Annotation for Lane Detection

Autonomous vehicles rely on environmental perception to navigate safely. Specialists contribute by marking bounding boxes, enabling the vehicle's computer vision system to accurately determine the size and distance of objects on and around the road.

Polygon for Shapes

Access expert assistance to accurately trace polygons around irregularly shaped objects. This enables computer vision systems in autonomous vehicles to detect all visible objects on the road, such as motorcycles, bicycles, cars, and animals, ensuring safe driving by preventing collisions.

Small green hatchback car parked partially on a paved shoulder beside a highway guardrail.

Transportation AI FAQs

What transportation data can Unitlab AI prepare?

Unitlab AI supports synchronized road video, camera images, geospatial imagery, text, documents, and related sensor records in one governed training-data workflow.

Which annotation types are useful for transportation AI?

Teams can combine bounding boxes, polygons, segmentation, polylines, keypoints, classifications, properties, temporal ranges, and object tracks for perception and mobility models.

Can Unitlab annotate long driving videos and tracked objects?

Yes. Frame-accurate video annotation, keyframes, interpolation, object tracking, temporal labels, and review workflows support long-form road and fleet footage.

How does Unitlab support synchronized cameras and multiview data?

Related camera views can be grouped and reviewed with shared temporal context, helping teams keep objects, events, and scene properties consistent across viewpoints.

Can transportation datasets be curated before annotation?

Yes. Teams can search, filter, balance, deduplicate, version, and route selected road and mobility data into annotation and QA workflows.

Can we use our own perception models?

Yes. Bring Your Own Model workflows let teams connect domain models with Unitlab automation, then review and correct predictions inside the annotation loop.

How is annotation quality managed for safety-critical data?

Instructions, ontologies, reviewer roles, issues, rework, approvals, and annotation history help teams enforce consistent quality across transportation datasets.

Can Unitlab handle large fleets and long-running projects?

Unitlab supports large datasets, dataset versions, programmatic upload and export, and collaborative workflows for production-scale transportation programs.

Can transportation data stay in our controlled infrastructure?

On-premises deployment is available for teams that need transportation data, models, and workflows to remain inside controlled infrastructure.