NVIDIASoftware / SaaSAI and Machine LearningIoTCost ReductionProductivity ImprovementScalability2026NVIDIANV#76b900Software / SaaSUnited StatesSkild AI needed a way to train robots that can adapt across many bodies, tasks, and environments, but collecting enough real-world robotics data was too slow and expensive to produce robust general-purpose physical AI.$4,000-$15,000 systems versus $250,000+ traditional systemsFeb 2, 20266NVIDIA Cosmos Transfer · NVIDIA Isaac Lab · NVIDIA Omniverse02026-02-026
Skild AI needed a way to train robots that can adapt across many bodies, tasks, and environments, but collecting enough real-world robotics data was too slow and expensive to produce robust general-purpose physical AI.
↗$4,000-$15,000 systems versus $250,000+ traditional systems
↗10x reduction in total cost of ownership
↗60%-80% task performance within hours of data collection
↗Payloads up to 1.5x the robot's body weight
Reported impact
Business outcome
Skild AI achieved 60-80 percent task performance within hours of data collection, enabled robots to carry payloads up to 1.5x body weight, reduced total cost of ownership by 10x compared with traditional systems, and demonstrated recovery from jams and limb failures through in-context adaptation rather than reprogramming.
Cost Reduction
Productivity Improvement
Scalability
Solution
Skild AI built the Skild Brain as an omni-bodied robot foundation model on NVIDIA accelerated computing and simulation tools so it could train physical AI without depending on massive real-world robot fleets. The company uses NVIDIA Omniverse libraries and NVIDIA Isaac Lab to create large-scale physics simulations across thousands of robot embodiments and environments, while NVIDIA Cosmos Transfer augments those datasets with varied lighting and visual conditions. This synthetic pipeline is paired with human videos from the internet to teach robots how objects afford actions, giving the model broader behavioral coverage than teleoperation data alone. In deployment, the Skild Brain consumes raw camera images and proprioceptive signals and directly outputs low-level motor commands, enabling zero- or minimal-post-training adaptation to new robots. The result is a robotics stack that learns through scalable simulation and data augmentation rather than narrowly programmed behaviors.
Data flow
Synthetic robot scenarios and internet-scale human videos are fed into Skild AI's training pipeline, Isaac Lab and Omniverse generate scalable simulation experience, Cosmos Transfer augments the data, and the resulting Skild Brain turns vision and proprioception into low-level motor commands for new robot bodies in real-world tasks.
Solution architecture
4 components · 3 layers
Compute
NVIDIA Isaac LabCreates the physics-based simulation scenarios used for reinforcement-learning training at scale.
NVIDIA Cosmos TransferAugments training datasets with diverse visual and environmental variations to improve robustness.
Serving
Skild BrainActs as the omni-bodied robot foundation model that drives decision-making and motor control across robot types.
Orchestration
NVIDIA OmniverseProvides simulation libraries used to generate large-scale synthetic robotics data.
Architecture clues
The deployment path connects high-level action selection and low-level motor control in one end-to-end model.
The model is designed to work across multiple robot embodiments instead of a single form factor.
Training relies on synthetic simulation and video-derived affordances rather than only teleoperated robot data.
Evidence from the source
"NVIDIA Isaac Lab and Cosmos technologies allow us to create massive and scalable data sources necessary for robots to truly learn from experience across diverse scenarios and embodiments."
Skild AI built a true robotics foundation model called the Skild Brain.
The company uses NVIDIA Omniverse™ libraries and open frameworks such as NVIDIA Isaac™ Lab for advanced physics simulation and NVIDIA Cosmos™ for data augmentation and generation to train its foundation model.
The model demonstrates remarkable adaptability to mechanical changes, recovering from jammed wheels within 2-3 seconds.
This multi-pronged simulation approach enables Skild AI to acquire a millennium of experience within days.
Review how this reference was scored and trace each normalized claim back to its documented source.
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Scoring methodology
How scores are calculated
Customer Reference Value measures usefulness as a customer reference. Evidence Confidence measures the quality and traceability of available evidence, not independent verification.
Customer reference value100/100
Problem clarity20/20
Measures whether the customer's operational problem is specific enough to compare.
Implementation depth25/25
Rewards named components, data flow, integrations, and architecture detail.
Outcome specificity20/20
Measures whether the reported benefit is concrete rather than a generic claim.
Quantified impact25/25
4 metrics describe measurable impact.
Deployment scale10/10
Rewards evidence of a live or scaled deployment and meaningful integration scope.
Evidence confidence89%
Source authority20/25
The main evidence is an official vendor-published customer story.
Claim traceability21/25
10 of 12 key fields link to a named source.
Direct evidence20/20
5 direct source quotes retained.
Date provenance10/10
The publication date comes from the source page or publisher.
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