Training Data for Physical AI

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01 // INFRASTRUCTURE

PRODUCTION
INFRASTRUCTURE

MULTI-MODAL SENSOR FUSION

Hardware-level synchronization across vision, proprioception, IMU, audio, and depth. Sub-millisecond timestamp alignment with nanosecond-precision Unix epochs.

Vision1920×1080 @ 30fps

Proprioception75-920Hz JSONL

IMU1000Hz

Sync Precision<1ms

ANNOTATION PIPELINE

Human-verified labels with automated quality checks. Distributed annotation infrastructure with inter-annotator agreement tracking.

QualityHuman-verified

LabelsSuccess/failure

TrackingInter-annotator

ScaleLinear throughput

02 // DATA FORMATS

TECHNICAL
SPECIFICATIONS

SENSOR MODALITIES

RGB VisionH.264

ProprioceptionJSONL

3D PoseNPZ

AudioWAV

DATA FORMATS

TimestampsUnix ns

VideoH.264

Sensor LogsJSONL

MetadataJSON

DELIVERY

CDNGlobal

APIREST

StorageS3

BatchPB-scale

[ ML-READY ][ ZERO PREPROCESSING ][ UNIFIED SCHEMA ]

03 // APPLICATIONS

TRAINING
PIPELINES

POLICY TRAINING

IMITATION LEARNING

Success-labeled trajectories from real robot deployments. Complete state-action pairs with synchronized vision and proprioception. Ready for behavior cloning and inverse RL.

PRE-TRAINING

FOUNDATION MODELS

Large-scale multi-modal data across diverse tasks and robot morphologies. Vision-language-action triplets for generalist policy pre-training.

MOTION CAPTURE

HUMAN-ROBOT INTERACTION

Multi-perspective human motion with 3D pose annotations. First-person and external viewpoints synchronized with body landmark tracking.

CONTINUOUS LEARNING

PRODUCTION DEPLOYMENT

Real-world failure modes and edge cases from live deployments. Continuous data collection for online learning and policy updates.

SCALE YOUR
TRAINING PIPELINE

Start with sample datasets to validate your approach. Scale to petabyte-batch production with custom collection infrastructure.