Datasets:
The dataset viewer is not available for this subset.
Exception: SplitsNotFoundError
Message: The split names could not be parsed from the dataset config.
Traceback: Traceback (most recent call last):
File "/usr/local/lib/python3.12/site-packages/datasets/inspect.py", line 286, in get_dataset_config_info
for split_generator in builder._split_generators(
^^^^^^^^^^^^^^^^^^^^^^^^^^
File "/usr/local/lib/python3.12/site-packages/datasets/packaged_modules/json/json.py", line 91, in _split_generators
pa_table = next(iter(self._generate_tables(**splits[0].gen_kwargs, allow_full_read=False)))[1]
^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
File "/usr/local/lib/python3.12/site-packages/datasets/packaged_modules/json/json.py", line 193, in _generate_tables
examples = [ujson_loads(line) for line in batch.splitlines()]
^^^^^^^^^^^^^^^^^
File "/usr/local/lib/python3.12/site-packages/datasets/utils/json.py", line 20, in ujson_loads
return pd.io.json.ujson_loads(*args, **kwargs)
^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
ValueError: Expected object or value
The above exception was the direct cause of the following exception:
Traceback (most recent call last):
File "/src/services/worker/src/worker/job_runners/config/split_names.py", line 65, in compute_split_names_from_streaming_response
for split in get_dataset_split_names(
^^^^^^^^^^^^^^^^^^^^^^^^
File "/usr/local/lib/python3.12/site-packages/datasets/inspect.py", line 340, in get_dataset_split_names
info = get_dataset_config_info(
^^^^^^^^^^^^^^^^^^^^^^^^
File "/usr/local/lib/python3.12/site-packages/datasets/inspect.py", line 291, in get_dataset_config_info
raise SplitsNotFoundError("The split names could not be parsed from the dataset config.") from err
datasets.inspect.SplitsNotFoundError: The split names could not be parsed from the dataset config.Need help to make the dataset viewer work? Make sure to review how to configure the dataset viewer, and open a discussion for direct support.
Embodied Physics Trajectories
100+ million physics trajectories across 10 substrates, generated from 200KB of hand-rolled Rust on a single Apple M4 Pro.
No external physics libraries. No game engines. No Unity. No MuJoCo. Pure Euler and symplectic integration, hand-written in Rust, compiled to native Metal compute. Every trajectory is SHA-256 sealed at generation time.
This is not synthetic data from a rendering pipeline. This is physics ground truth — bodies in substrates experiencing forces.
What This Dataset Contains
Time-series trajectory data from Monte Carlo physics simulations across 10 physical domains. Each trajectory records the full state evolution of a body moving through a physically-grounded environment, with timestep-level sensor readings, phase transitions, anomaly flags, and cryptographic proof hashes.
| Substrate | Physics | Bodies | Integration | Rate |
|---|---|---|---|---|
| Mars (CO₂) | Atmospheric drag, supersonic deceleration, suicide burn | EDL Lander | Euler 1000Hz | 144/s |
| Orbital (Vacuum) | Quaternion attitude, reaction wheels, gyroscopic coupling | MAVEN-class satellite | Euler 100Hz | 353/s |
| Marine (Seawater) | Pressure gradients, buoyancy, IMU drift, GPS-denied nav | Submarine, Autonomous Boat | Euler 1000Hz | 11/s |
| Terran (Mycelium) | Boussinesq soil stress, glomalin coupling, moisture transport | 8 body types (tracked, wheeled, legged, drone, humanoid, agrover, scout drone, titanhauler) | 100Hz | 10,750/s |
| Atheric (Signal) | Shannon capacity, Friis path loss, frequency hopping | Coherent Signal | — | 15,830/s |
| Mycelial (Network) | Hyphal conductance, Kirchhoff flow, percolation threshold | Mycorrhizal Mesh | — | 760/s |
| Asteroid (NEO) | O(N²) N-body gravity, Hookean contact mechanics | Rubble Pile | Metal GPU | 9/s |
| Celestial (Astro) | Yoshida 4th-order symplectic, N-body ephemeris | Spacecraft | — | 71/s |
| Plutonian (Core) | Entropy decay, phase crystallization, deep-time evolution | Phase System | — | 71/s |
| Energy (Grid) | Swing equation, nuclear/solar/wind/hydro dispatch | Grid Node | — | 186,060/s |
Generation rates are live-measured on Apple M4 Pro (14-core CPU, 20-core GPU, 24GB unified memory).
Schema
Every exported JSON file follows this structure:
{
"dataset_metadata": {
"generator": "G^G {Substrate} Monte Carlo v1.0",
"domain": "{substrate}",
"scenario": "{scenario_type}",
"trajectories": 10000,
"physics_engine": "genesis_core::{module} ({integrator} {rate}Hz)",
"version": "1.0.0",
"generated_at": "2026-03-07T23:24:59Z"
},
"trajectories": [
{
"id": "{substrate}_{hash}",
"type": "{trajectory_type}",
"scenario": "{scenario_name}",
"steps": 306171,
"score": { ... },
"proof_hash": "0ec728887ad144603b56ee53e302b72342c7fc81...",
"reasoning_context": {
"anomaly_type": "HARD_LANDING",
"is_anomaly": true,
"snapshot": { ... }
},
"data": [
{ "t": 0.0, "alt": 24371.8, "vel": 180.6, "phase": "ENTRY", ... },
{ "t": 1.0, "alt": 24191.2, "vel": 181.3, "phase": "ENTRY", ... }
]
}
]
}
Per-Substrate Timestep Fields
Mars EDL — Entry, Descent, and Landing through CO₂ atmosphere:
t, alt, vel, pos[3], rho (atmospheric density), phase (ENTRY/CHUTE/RETRO/TERMINAL)
Orbital — Satellite tumble recovery in vacuum:
t, omega[3] (angular velocity), omega_mag, wheel_h[3] (reaction wheel momentum),
fuel_kg, battery_pct, in_sunlight, measured_mag, phase (TUMBLE/DETUMBLE/FINE_POINT)
Marine — GPS-denied underwater/surface navigation:
t, depth, v (velocity), p (position), drift, nav_error, current[3],
battery, waypoint (index)
Terran — Robot-soil contact mechanics:
t, pressure_pa, yield_pa, compaction, moisture, phase (APPROACH/CONTACT/TRAVERSE)
Score Fields (Per-Substrate)
| Substrate | Score Fields |
|---|---|
| Mars | dispersion, final_velocity, max_deceleration_g, mission_success |
| Orbital | final_omega_rad_s, fuel_remaining_pct, recovered, recovery_time_s |
| Marine | nav_error_m, waypoints_reached, waypoints_total, energy_consumed_pct, mission_success |
| Terran | pressure_yield_ratio, compaction, seed_emerged, mission_success |
Reasoning Context
Every trajectory includes a reasoning_context block — a structured snapshot designed for training autonomous decision-making systems. It captures the anomaly state at a critical moment:
{
"anomaly_type": "HARD_LANDING",
"is_anomaly": true,
"snapshot": {
"alt": 24371.9,
"chute_deployed": true,
"dust_storm": false,
"retro_fired": false,
"vel": 302.5
}
}
This enables training models that reason through embodied physics rather than about it — the distinction between information retrieval and sovereign decision-making.
Scale
| Milestone | Trajectories | Status |
|---|---|---|
| 100M Corpus (proof-only) | 100,009,600 | Complete — SHA-256 sealed, data not exported |
| Exported Corpus | ~85,200 | Complete — 10 substrates, ~10.6 GB |
| Mars 10M Product Run | 10,000,000 | Complete — 60 GB raw JSON |
| Terran 10M Product Run | 10,000,000 | Complete — 24 GB raw, 1.4 GB compressed |
| Marine 10M Product Run | — | Pending (estimated ~4.2 TB) |
Master Proof Hash (100M Sequential): 4b12bf0f6392cd1a0e76f5cffcdfc93868a1a83aa509e620df4743182ca39b30
Use Cases
- Reinforcement learning — Pre-training world models with physically-grounded trajectories
- Sim-to-real transfer — Training autonomous systems on diverse physics before deployment
- Anomaly detection — Learning failure modes from labeled anomalous trajectories
- Autonomous decision-making — Dark Window scenarios (GPS-denied, comm-loss) where systems must reason from physics priors alone
- Robotics foundation models — Multi-substrate pre-training across land, sea, air, and space
- Spacecraft autonomy — MAVEN-class tumble recovery, orbital rendezvous
- Agricultural robotics — Soil-robot interaction across 4 soil types × 8 body configurations
- Marine autonomy — GPS-denied submarine and surface vessel navigation
Technical Details
Engine: G^G Genesis Core — pure Rust, no external physics dependencies
Machine: Apple M4 Pro (14-core CPU, 20-core GPU, 24 GB unified memory)
GPU: Metal compute shader for asteroid N-body (O(N²) gravity, GPU-authoritative)
Proofs: SHA-256 chain — every trajectory is cryptographically sealed at generation time
On-chain anchor: 42 autonomous decision manifests verified on Internet Computer (IC) mainnet
Canister: ad7wi-4aaaa-aaaad-aeijq-cai (IC mainnet, stable storage)
Sample Data
The samples/ directory contains small extracts (5 trajectories each, 10 timesteps per trajectory) from each substrate for schema validation and preview.
Licensing
This dataset is commercially licensed. Sample data is provided for evaluation.
For full dataset access, contact: kruze@aijesusbro.com
Pricing:
| Product | Price |
|---|---|
| Mars EDL (10M trajectories) | $5,000 |
| Terran Soil (10M trajectories, 8 body types × 4 soils) | $5,000 |
| Marine Navigation (10M trajectories) | $10,000 |
| Full Corpus | Contact for licensing |
Website: aijesusbro.com
Citation
@dataset{protocolcompany_embodied_physics_2026,
author = {Kruze, John Frances IV},
title = {Embodied Physics Trajectories: Monte Carlo Simulation Data for Autonomous Systems},
year = {2026},
publisher = {Protocol Company},
url = {https://huggingface.co/datasets/protocolcompany/embodied-physics-trajectories}
}
About Protocol Company
Protocol Company builds embodied reasoning infrastructure — physics engines that generate the training data autonomous systems need to operate in the real world. 10 physics substrates, 100+ million trajectories, zero external dependencies. The simulation is the product.
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