The first Physics-Native AI
for Runtime Operations


One physics-native platform, applicable wherever AI interacts with the physical world from edge to cloud. Grounded by 27 governing physics from thermal to fluids, all at 60Hz or faster - deterministic, repeatable, and validated. Everything that Physical AI promised - delivered.

Learn more about Manifold

Physics-native AI for the physical world

Manifold is a groundbreaking State Space world model that calculates physics. Not guessing from patterns, but through the fundamental equations that govern how the physical world actually works. Predictions, optimizations, and activities are validated before action occurs - ensuring reliable, safe, and accurate operations.

Sensor Input→Fusion Encoding→World State→Physics Engine→Prediction→Physics Validation→Actions
98.9%
Zero-shot accuracy
60Hz
End-to-end control loop
20ms
World state refresh cycle
21
Physics domains
28 day
Prediction horizon

Wherever AI meets the physical world

Physics generalizes in fundamental ways that pattern-recognition inference cannot. The same governing equations apply across materials, domains, and industries. Without re-training, without re-engineering - requiring minimal compute and data resources.

Manufacturing

Battery, concrete, composites, steel, pharma

Robotics

Contact-rich manipulation, deformable materials, fluids

Autonomous Systems

Navigation, terrain physics, spatial intelligence

Spacetech

Satellite data, flood prediction, orbital mechanics

AI Stack Augmentation

Physics layer for LLMs, VLAs, robotics platforms

Scientific Discovery

Route optimization, materials research, engineering

Latest news from Niva

Cover image for FABTECH 2026: Niva participates in AWS Professional Program, anchoring runtime physics-native AI against 'Physical AI' on the show floor
FABTECH, Manifold, physics-native AI, runtime physics, coupled physics, deterministic AI, edge AI, world model, welding, fabrication, GMAW, robotics, industry, academiaOctober 25, 2026 · News

FABTECH 2026: Niva participates in AWS Professional Program, anchoring runtime physics-native AI against 'Physical AI' on the show floor

Niva attended FABTECH 2026 in Las Vegas (21-23 October 2026), releasing a new GMAW runtime thermal forecasting demo, participating in the American Welding Society (AWS) Professional Program, and observing how ‘Physical AI’ is represented commercially. The term, as deployed by vendors ranging from startups to major robotics manufacturers, covers a vast array of capabilities, though often built on the same foundations. Manifold’s physics-native, deterministic, coupled multi-physics approach anchors a different architectural class.

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Cover image for Demo: GMAW Welding, per-weldment pass optimization with runtime thermal forecasting
Demo, Demonstration, Manufacturing, Welding, GMAW, Multipass, Process Control, Manifold, Runtime Physics, Thermal Forecasting, FABTECH 2026October 19, 2026 · Demos

Demo: GMAW Welding, per-weldment pass optimization with runtime thermal forecasting

Manifold forecasts each weldment's interior thermal state from arc history and times the next pass per-weldment. In the demo scenario, two parts share a surface pyrometer reading at pass 5; Manifold holds the stop-and-restart part 90 seconds and clears both under the 204 °C limit while the nominal part proceeds. Try it on the Demos page.

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Cover image for CAMX 2026: Niva releases runtime cure control study and demo for composite manufacturers
CAMX, Manifold, physics-native AI, runtime physics, coupled physics, edge AI, world model, deterministic AI, composites, cure cycle, thick laminate, AS4/3501-6, throughput optimization, industrySeptember 26, 2026 · News

CAMX 2026: Niva releases runtime cure control study and demo for composite manufacturers

Niva attended the Composites and Advanced Materials Expo (CAMX) show in Atlanta (21-24 September 2026), presenting a new technical study and interactive demo on composite cure-cycle optimization. Manifold recovered 92.9% of the margin in an already-optimized recipe and delivered a 1.5x throughput gain on the manufacturer's published thick-part cycle, with no hardware change. Substantive interactions have generated follow-ups across simulation, tier-1 fabrication, materials, and research partners.

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