Physical AI Solutions
Physical AI Training Data: From First Dataset to Deployment
Multimodal data collection, annotation, synthetic data, RLHF, and evaluation for robotics, autonomy, and embodied AI — one partner, full pipeline.
Full-Stack Physical AI Training Data
From raw data collection through RLHF and evaluation — one partner across every layer your team needs.
Multimodal Data Collection
Image, video, audio, sensor-linked metadata, telematics, instructions, and context capture at global scale across diverse environments and task types.
Complex Annotation
Objects, actions, tracking, segmentation, intent, spatial context, motion, and human-machine interactions — structured ground truth at every layer.
Synthetic Data Generation & Support
Synthetic dataset generation, QA, enrichment, validation, taxonomy alignment, and sim-to-real readiness workflows — originating quality data at scale, not just checking it.
RLHF & Preference Learning
Human preference collection, comparison ranking, reward model training data, and behavior alignment workflows — structured to move physical AI from functional to trustworthy.
Evaluation & Benchmarks
Regression sets, edge-case libraries, safety-scenario coverage, and release-readiness benchmarks purpose-built for physical AI systems.
Human-in-the-loop Review
Expert validation, exception handling, QA, and continuous feedback loops that improve reliability and close the gap between model outputs and retraining.
Physical AI training data built for robotics, autonomy, and embodied AI teams
Across embodied AI, mobility, manufacturing, and logistics — Shaip provides the data infrastructure that makes deployment possible.
Humanoids and embodied AI
Train systems to interpret surroundings, follow instructions, and interact more safely with people, tools, and spaces — with demonstration data grounded in real human activity.
Autonomous mobility
Support perception, scene understanding, navigation, and operational safety for vehicles and mobile platforms — with edge-case and safety-scenario coverage built in.
Industrial automation and smart factories
Improve machine vision, worker-safety detection, process monitoring, and exception handling in complex environments where reliability requirements are highest.
Warehouse and task automation
Support pick-and-place, long-horizon workflows, and real-world exception handling for robotic operations — from initial dataset creation through deployment-readiness benchmarks.
What Separates Shaip from Every Other AI Data Provider
Not a point annotator. Not a crowdsourcing platform. The integrated data infrastructure layer your physical AI team has been missing.
End-to-end infrastructure: from point annotation to real-world collection, synthetic data generation, RLHF-grade validation, and safety-scenario benchmarks — all under one engagement.
Global collection at scale: demonstrations, human activity, and real-world scenario capture across geographies, environments, and task types — managed, not crowdsourced.
Multi-modal annotation depth: vision, LiDAR, language, action, and workflow context — structured for how physical AI actually trains, evaluates, and gets to deployment.
Managed workforce and quality infrastructure: credentialed domain experts, structured QA workflows, ISO, SOC 2, and HIPAA-ready certifications — built for deployment-grade accuracy.
Understanding Physical AI
New to the space, or building an internal case? This section covers what physical AI is, why the data challenge is harder than it looks, and how the dataset stack maps to real capabilities.
Physical AI: What It Is and Why It's Different
AI systems that operate in and interact with the physical world through sensors, control systems, and actuators — bridging intelligence with real-world action.
Foundation models, better simulation, more capable sensors, and stronger edge compute are making real-world autonomy practical at scale for the first time.
High-quality multimodal data (vision + language + action), edge-case coverage, validation loops, and safer paths from simulation to deployment.
Not as a robot maker — as the data infrastructure and validation partner behind physical AI teams building the next generation of autonomous systems.
Why Physical AI Data Is Hard to Get Right
Physical AI does not learn from web-scale data alone. Teams need task-specific data grounded in the real world.
Models require multimodal inputs across vision, language, action, telemetry, and context — rarely available in integrated form.
Most teams still rely on fragmented datasets, creating performance gaps and slow iteration loops that delay deployment.
Safety validation, edge-case coverage, and sim-to-real readiness are now core buying criteria that vendors rarely address end-to-end.
Simulation data does not reliably transfer to physical deployment. Closing the sim-to-real gap requires structured validation loops, human feedback, and real-world grounding — not more synthetic volume alone.
The Physical AI Dataset Stack
Different dataset layers power different capabilities. Shaip supports the integrated stack required to train, validate, and harden real-world AI systems.
| Capability layer | Key dataset type | How Shaip supports it |
|---|---|---|
L1 Human understanding |
Human activity & demonstration data | Global collection of real-world scenarios, human demonstrations, and task-grounded context across diverse environments and populations. |
L2 Task execution |
Robot manipulation data | Structured capture and annotation of trajectories, joint states, object interactions, and workflows — built for repeatability and scale. |
L3 Instruction following |
Vision-Language-Action (VLA) data | Alignment of visual input, language instructions, and action trajectories for real-world execution — including fine-tuning support for VLA models. |
L4 Workflow completion |
Long-horizon task data | Multi-step task datasets, evaluation sets, and exception handling for complex sequences — enabling robust performance across extended tasks. |
Ready to build physical AI that actually deploys?
Talk to Shaip about multimodal data infrastructure, synthetic data generation, RLHF, evaluation workflows, and human-in-the-loop validation for robotics, autonomy, and embodied AI.