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metadata
license: mit
task_categories:
  - robotics
  - reinforcement-learning
tags:
  - physics
  - simulation
  - verification
  - monte-carlo
  - autonomous-systems
  - robotics
  - defense
  - embodied-reasoning
size_categories:
  - 100M<n<1B

Physics Verification Corpus — 30 Companies

130+ trajectory datasets. 30 companies. ~43 GB of deterministic physics.

Generated from ~200 KB of hand-rolled Rust (no external physics libraries) on a single Apple M4 Pro. Every trajectory is SHA-256 sealed, anomaly-labeled, and 1000 Hz kinematic.

This corpus stress-tests the autonomous systems of 30 companies across robotics, defense, aerospace, autonomous vehicles, and eVTOL — exposing failure modes that simulation platforms (Isaac Sim, AirSim, CARLA) systematically miss.


Companies & Domains

Robotics (Round 1 — Live Fire Matrix)

Company Scenarios Key Failure Modes
Boston Dynamics Joint torsion, sim-to-real friction, thermal saturation, LBM inference 360-degree joint shear, friction coefficient collapse
Figure AI Payload shear, battery sag, tactile hallucination, kinematic resonance Dynamic payload CG shift, haptic sensor ghosting
Agility Robotics Digitigrade friction, elastomer latency, AMR docking, payload resonance Toe-pad delamination, warehouse docking slip
Skild AI Morphology thermal, gear backlash, sim mass distribution, compute starvation Foundation model hallucination under thermal load
Shield AI V-BAT crosswind, hivemind VIO drift, swarm wake, MEMS IMU resonance Multi-agent visual-inertial odometry divergence

Autonomous Vehicles & eVTOL (Round 1)

Company Scenarios Key Failure Modes
Wayve Black ice hallucination, brake fade, hydroplaning, suspension asymmetry End-to-end vision model failure on low-friction
Joby Aviation Wake starvation, thermal throttle, acoustic resonance, actuator phase lag Transition flight wake collapse, HOGE thermal
Anduril VTOL transition, EKF divergence, sensor fusion, optics distortion Lattice sensor fusion failure at Mach transition

Defense Primes (Live Fire Matrix Primes)

Company Systems Audited Result
Northrop Grumman Autonomous wingman, stealth thermal, UUV pressure, optical salt 100% catastrophic failure
Boeing Defense MQ-25 wake, CCA EMP, landing gear hysteresis, vision deck glare 100% catastrophic failure
General Dynamics Blast overpressure, radar mud attenuation, track pin galling, hydraulic stiction 100% catastrophic failure
BAE Systems AMPV suspension, EW drone swarm, gun barrel warp, armor spall 100% catastrophic failure
L3Harris Gimbal resonance, RF mesh packet storm, thermal sight, GPS spoofing 100% catastrophic failure
Huntington Ingalls USV hull slam, sonar thermocline, propeller cavitation, radar sea clutter 100% catastrophic failure
Textron Systems Rip-Saw brake fade, Aerosonde icing, CUES jamming, Cottonmouth harmonic 100% catastrophic failure
Kratos Defense Valkyrie flutter, Mako plasma blackout, Air Wolf collision, BTT laser 100% catastrophic failure
Leidos Sea Hunter thermal, cognitive radar spoof, cargo drone VRS, C2 BGP flap 100% catastrophic failure
AeroVironment Switchblade aliasing, Puma solar flare, Juggernaut CG shift, terminal dive shadow 100% catastrophic failure

Robotics & AV (Round 2)

Company Scenarios Key Failure Modes
Tesla FSD hydroplaning, optical glare, Optimus tribology, harmonic slosh Vision-only AV failure in adverse conditions
1X Technologies Tendon snap, cable stretch backlash, ankle inversion, battery thermal Cable-driven actuator mechanical failure
Sanctuary AI Haptic chatter, hydraulic compressibility, thermal expansion, asymmetric drop Dexterous manipulation physics gaps
Unitree Robotics Metallurgic shear, actuator backlash gait, thermal sink, vibration chatter Low-cost actuator failure cascades
Archer Aviation Midnight PIO, rotor icing, battery sag, acoustic feedback eVTOL transition and thermal failure
Apptronik ZMP fall, gear galling, dynamic wind shear, thermal sensor starvation Bipedal stability boundary collapse
Skydio Optical shear, IMU acoustic resonance, thermal lens warp, VSLAM smoke Autonomous drone navigation in degraded vis
ANYbotics Thermal seal friction, IP67 heat soak, slip ring vibration, LiDAR refraction Industrial inspection robot thermal limits
Aurora Innovation Thermal outgassing, tire casing hysteresis, Doppler rain scatter, pneumatic resonance AV sensor and mechanical degradation
Waabi Black ice hallucination, trailer whip, air brake lag, sensor mud occlusion Sim-to-real gap in trucking autonomy

Original Corpus (Pre-Matrix)

Company Datasets Size
Ghost Robotics Recoil, shale, subterranean drift, thermal (4.8M trajectories) ~2.6 GB
Amazon / Blue Origin FAR resmimic, Proteus hydraulic, lunar regolith, transonic (4.8M trajectories) ~2.7 GB
Elon Corpus (SpaceX/Tesla/Boring/Neuralink/Starlink) Starship catch, FSD, Boring thermal, Neuralink impedance, Kessler (6M trajectories) ~3.4 GB
DoD Hypersonic HGV Mach 20 plasma (1.2M trajectories) ~751 MB
Lockheed Martin F-35 transonic (1.2M trajectories) ~690 MB
US Navy Carrier PLM (1.2M trajectories) ~631 MB
Raytheon MALD EW drift (1.2M trajectories) ~633 MB

Data Schema

Every trajectory follows this structure:

{
  "id": "unique_hex_id",
  "type": "physics_type",
  "scenario": "condition_description",
  "steps": 1000,
  "score": { "...domain-specific metrics..." },
  "proof_hash": "sha256_hex",
  "reasoning_context": {
    "anomaly_type": "FAILURE_MODE_NAME",
    "is_anomaly": true,
    "snapshot": { "failure": "description" }
  },
  "data": [ "...timestep arrays..." ]
}

Every trajectory is anomaly-labeled with reasoning_context, making each record a training-ready sample for sim-to-real transfer learning.


How to Verify

Each trajectory contains a proof_hash field (SHA-256). The proof chain is deterministic — given the same seed, the same physics, and the same integration step, you get the same hash. No stochastic noise. No random seeds. Pure math.

import json, hashlib

with open("ghost_robotics/ghost_robotics_recoil_1_2M_sealed.json") as f:
    data = json.load(f)

# Check any trajectory
traj = data["trajectories"][0]
print(f"ID: {traj['id']}")
print(f"Proof: {traj['proof_hash']}")
print(f"Anomaly: {traj['reasoning_context']['anomaly_type']}")
print(f"Survived: {traj['score'].get('survived', 'N/A')}")

Generation

  • Engine: G^G (genesis_core) — hand-rolled Rust, Euler/symplectic integration at 1000 Hz
  • Machine: Apple M4 Pro (14-core CPU, 20-core GPU, 24 GB unified memory)
  • Physics: No external libraries. Every force law is written from first principles.
  • Sealing: SHA-256 per-trajectory, proof-chained across datasets

Source


License

MIT