The Robot Foundation Model Market is forecast to expand from approximately USD 145 million in 2026 to USD 2.10 billion in 2031, representing a 70.7% CAGR over the five forecast intervals.
Key Highlights
• Industrial manipulators account for an important share of near-term spending as buyers seek model-assisted handling and task changes without complete automation redesign.
• Vision-language-action models lead the technology mix, combining natural-language tasks with observation-driven robot actions.
• Robot-specific adaptation remains a major paid service because factory layouts, grippers, safety requirements and object sets vary between customers.
• North America is expected to retain the leading revenue position in 2026, supported by model developers and enterprise robotics deployments.
• Asia Pacific gains share through 2031 as industrial automation, robotics integration and manufacturing deployments expand.
• Open model weights and partner-only previews are important technical inputs, while the largest commercial opportunity centers on supported deployment and adaptation.
The market includes commercially purchased generalist robot model licenses, model-specific adaptation, billed autonomy execution and dedicated enterprise deployment services across humanoids, manipulators, mobile robots and industrial field platforms. Customers purchase these services to accelerate task introduction and reduce repetitive robot-by-robot programming.
Robot foundation models differ from traditional automation software because broad pretrained representations of visual scenes, actions, spatial relations and physical interactions can be adapted to multiple settings. Skild AI has commercial customers across manufacturing and logistics, FieldAI deploys risk-aware autonomy in changing industrial environments, and Physical Intelligence has introduced managed fine-tuning and inference access through its Pi API beta. Their approaches differ in maturity and commercial delivery, but together they show demand for reusable robotics intelligence.
Market Overview
Commercial robot foundation models are trained on demonstrations, images, videos, robot-state trajectories and simulation data to learn reusable motion and manipulation behavior. A customer can adapt a general model to grasp unfamiliar parts, navigate a changing site or execute a sequence of physical actions. The model must still be connected to the robot controller, sensors and safety processes, making production integration an important purchasing requirement.
Skild AI reported more than 60 paying customers and a USD 100 million annual recurring revenue run rate in September 2026 across multiple robot types. FieldAI has described industrial customer expansion contracts and autonomous missions in changing construction and industrial sites. Physical Intelligence offers beta access to managed fine-tuning and cloud-hosted robotic inference, while NVIDIA publishes commercially usable open GR00T models that enable development without a separate model-weight charge.
Model suppliers compete on the ability to transfer learned behavior between machines and sites, not only on controlled laboratory demonstrations. Industrial buyers evaluate uptime, intervention frequency, task changeover and the cost of collecting additional demonstrations. Demand is therefore linked to an effective combination of generality, dependable operation and implementation support.
Market Trends
Reusable Models Are Moving from Research into Industrial Deployments
Skild AI has linked its general-purpose robot intelligence to customers handling manufacturing, warehouse and food-related work, while FieldAI reports expansion of autonomy operations across unpredictable industrial sites. These implementations increasingly test whether one model can be adapted to many jobs rather than trained independently for every machine.
Robotics customers are likely to favor models that reduce on-site programming and maintain acceptable performance after a product or facility changes. Supplier differentiation depends on measurable operational reliability, deployment support and the cost of improving a model when it encounters failures.
Managed Fine-Tuning and Model Access Are Becoming Product Channels
Physical Intelligence introduced the Pi API beta in October 2026 to let partners upload data, fine-tune models and run hosted robotic inference. The workflow lowers the need for every robotics company to build a complete training and deployment infrastructure before testing practical autonomy.
Commercial offerings are expected to combine model access with adaptation and support as customers move beyond early trials. Onboard execution will remain attractive where low latency or network independence is essential, limiting the role of fully cloud-hosted robot control.
Risk-Aware Autonomy Is Becoming Important Outside Controlled Factories
FieldAI combines learned representations with physical constraints and uncertainty-aware decisions for construction, mining and inspection environments. These sites change frequently, making fixed navigation maps and preprogrammed routes less reliable than in highly structured industrial cells.
Foundation-model spending in field operations depends on proving that robots can safely complete repeat missions without constant human supervision. Models that recognize uncertainty and request intervention when necessary can broaden the range of practical customer environments.
Open Robotics Models Are Increasing Pressure on Proprietary Licenses
NVIDIA makes GR00T 1.7 available under open commercial-use terms and supplies development workflows for adapting robotic policies. Open alternatives can reduce the initial cost of model experimentation, particularly for robotics teams able to manage their own infrastructure.
Paid providers therefore need to offer demonstrable value through production adaptation, proprietary data advantages, dependable updates and technical support. Open weights can expand total demand for robotic intelligence while also restricting prices for a basic model checkpoint.
Segment Analysis
By Commercial Offering: Enterprise Foundation-Model Licensing and Support
Enterprise foundation-model licenses and associated support represent the largest estimated revenue stream because robot makers and industrial operators seek dependable access to reusable autonomy capabilities. Paid contracts can include model rights, supported versions, technical updates and defined deployment environments.
Commercial suppliers must differentiate supported access from freely released model weights. The value of a paid agreement rises when the provider assumes responsibility for compatibility, operational incidents and adaptation to customers’ production systems.
By Foundation Model Family: Vision-Language-Action Manipulation Models
Vision-language-action models are important in robotic manipulation because they convert visual observations and task instructions into motor actions. Skild S1, Physical Intelligence models and NVIDIA GR00T illustrate different approaches to transferring learned skills among devices and tasks.
Warehouse picking, materials handling and industrial assembly create opportunities where objects and sequences change too frequently for conventional programming alone. Customers still need task-specific verification because demonstrated generalization does not guarantee acceptable performance on every production cycle.
By Robot Embodiment: Fixed Industrial and Collaborative Robot Arms
Industrial arms remain a significant early deployment setting because established customers already own manipulators, grippers and controlled work areas. Suppliers can add learning-based perception and skill policies to automate variable handling and packaging operations without replacing the whole robot fleet.
Contract value depends on the number of facilities, robot configurations and required process changes rather than only installed robot counts. Model transfer can be valuable when one factory must support many products or frequent line reconfiguration.
By Primary Customer Type: Industrial and Service End Users
Factory operators, logistics providers and industrial service companies buy foundation-model autonomy to improve the economics of specific tasks. Their purchasing decisions are driven by labor availability, deployment cost, reprogramming effort and the reliability of automated work.
End users increasingly require a clear route from pilot to ongoing operations. Model developers that offer data collection, validation and maintenance alongside core intelligence may win contracts that pure model access cannot secure.
By Deployment Architecture: Hybrid Robot-Edge and Cloud
Hybrid architectures support cloud-assisted model updates and data management while keeping time-sensitive physical control near the robot. This division is useful when robots operate in factories with variable connectivity or require fast reactions to nearby obstacles and human workers.
Suppliers must demonstrate that onboard controllers maintain safe operation when network access is interrupted. The commercial opportunity lies in separately supported model execution and updates rather than the underlying processor or general cloud-compute bill.
By Primary Application: Warehouse and Material Handling
Warehouse and material-handling applications offer repeated opportunities to automate picking, packing, transporting and sorting goods that vary in size and presentation. Generalist policies can reduce the engineering needed for new products and unusual objects, particularly in mixed-product facilities.
Buyers evaluate the model against hourly throughput, successful grasps and the number of manual recoveries. Expanding a pilot across warehouses requires data reuse, consistent safety procedures and workable economics across different equipment fleets.
By Commercial Delivery Channel: Direct Managed Intelligence Subscriptions
Direct managed subscriptions allow robotics model suppliers to deliver updated capabilities and operational support over time rather than relying exclusively on one-off integration fees. Skild AI’s disclosed recurring revenue demonstrates that robotics-intelligence customers can be billed on an ongoing basis.
Subscription contracts must nevertheless distinguish the model charge from robot leases, hardware maintenance and operator services. Supported updates, uptime requirements and service-level commitments help providers justify recurring fees.
Market Drivers
Reduction in Task-Specific Robot Programming
Industrial automation projects frequently require specialist programming when product types, robot grippers or work-cell layouts change. Reusable foundation models can learn from demonstrations and reduce the effort required to introduce a new manipulation task.
Warehouse and factory customers benefit when one trained capability can be adjusted across several production cells. The prospect of faster changeovers encourages software and adaptation purchases, even where customers retain conventional controllers for safety-critical motion.
Expansion of Real-World Robot Intelligence Deployments
Skild AI and FieldAI have documented commercial use cases extending beyond research laboratories. Production settings produce recurring requirements for model adaptation, technical support and monitoring as robots encounter changing physical conditions.
Industrial customer expansion can increase the number of supported robot deployments per contract and create follow-on opportunities when a provider demonstrates acceptable performance at the initial site.
Growing Availability of Managed Adaptation Services
Physical Intelligence’s Pi API beta illustrates how foundation-model providers can package data upload, fine-tuning and model serving into an accessible workflow. Teams that cannot operate large training infrastructure may find this route more practical than creating models from scratch.
Hosted adaptation services can shorten the interval between testing a robot skill and using it in a customer environment. Wider adoption depends on commercial terms, latency controls and repeatable performance validation.
Demand for Autonomous Operation in Changing Sites
Construction sites, energy facilities and industrial inspection locations cannot always be represented by stable maps or fixed task sequences. FieldAI’s risk-aware foundation models address uncertain terrain and obstacles encountered during real missions.
Customers value models that can adapt decisions when an environment changes, particularly where remote operation is costly or human access presents safety risks. This creates demand for deployable autonomy rather than research-only model releases.
Cross-Platform Learning and Robotics Ecosystem Development
Foundation models built from diverse robot trajectories and human demonstrations may reduce the need to collect large new datasets for every hardware configuration. Open development workflows and common data formats help more manufacturers experiment with transferable intelligence.
Robot OEMs and systems integrators can commercialize repeatable capabilities on existing fleets, while specialist model suppliers gain a larger customer base than a single robot form factor would provide.
Market Restraints
Unreliable Generalization Across Tasks and Environments
Robot foundation models may perform well on familiar demonstrations but fail when object geometry, contact forces, lighting or equipment changes. Physical mistakes can damage goods or interrupt industrial processes, making a high success rate essential.
Customers often require additional demonstrations, on-site tuning and repeated acceptance testing before approving deployment, increasing implementation cost and extending the sales cycle.
Safety Validation and Human-Interaction Constraints
Industrial robots must integrate learned motion with established safety mechanisms, emergency stops and controlled operating envelopes. Model outputs alone cannot replace validated machinery safeguards or site-specific operating procedures.
Buyers may limit autonomous tasks to approved environments until performance under unexpected human interaction and obstruction is adequately demonstrated.
High Cost of Collecting and Maintaining Robot Data
Robot action data must reflect sensor streams, gripper behavior, forces and precise task outcomes. Capturing diverse demonstrations and labeling failures can require equipment time and specialist operators.
Model suppliers need continuing data collection after deployment, and smaller customers may struggle to justify that effort for tasks with limited repetition or modest economic value.
Latency, Connectivity and Hardware Constraints
Foundation-model inference can demand considerable memory and compute, while physical control must respond quickly to changes in the environment. Cloud execution introduces network delays and connection risks that are not acceptable for every movement.
Customers may need costly edge optimization, model compression or a hybrid control architecture before using a large model in a practical robot fleet.
Competition from Open Models and Integrated Robot Software
Open model releases allow technically capable robot developers to experiment without purchasing a proprietary foundation-model license. Manufacturers may also include their own intelligence inside an all-in robot price or service contract.
Independent suppliers must prove that their adapted models, updates and operational support outperform free tools and embedded alternatives sufficiently to justify a separate software charge.
Regional Outlook
North America
North America is expected to remain the largest regional market for paid robot foundation-model intelligence, supported by a concentration of model developers, robotics integration companies and industrial customers testing adaptable autonomy. Skild AI, FieldAI, Physical Intelligence and NVIDIA contribute to the regional supplier ecosystem, while manufacturers and logistics providers provide application demand.
United States activity is particularly important where customer contracts cover multiple robotic sites and repeated task adaptation. The region benefits from access to computing infrastructure and specialized robotics talent, though buyers continue to require evidence of reliability and a clear return from paid model deployment.
Asia Pacific
Asia Pacific is projected to gain share through 2031 as manufacturing automation, logistics facilities and robotics developers expand across China, Japan, South Korea and India. Industrial customers seeking flexible manipulation and inspection can create demand for reusable models across more equipment types and production environments.
Regional opportunity also depends on the ability to adapt models to locally supplied robots, diverse factory layouts and constrained on-device compute. Cross-border model partnerships and domestic development are likely to coexist as buyers prioritize operating performance, technical support and deployment economics.
Competitive Landscape
Skild AI and FieldAI compete through commercially deployed general-purpose robotics intelligence, but they emphasize different use cases. Skild focuses on broad manipulation and transferable robot skills, while FieldAI emphasizes risk-aware autonomy for complex field environments. Their real deployment experience creates a potential advantage in collecting failure data and improving operating performance.
Physical Intelligence is developing a model-centered platform with hosted fine-tuning and inference access through its Pi API beta. NVIDIA supports the ecosystem through open GR00T models and training/deployment tools, while Google DeepMind has released embodied reasoning tools and restricted-access robotics models. Generalist AI continues to publish high-performance model research; commercial customer receipts for its foundation models are not established in the public announcements reviewed.
Competitors are differentiated by deployment maturity, robot compatibility, model-update responsibilities and safety integration. A robot OEM may prefer its own embedded policy for control over the full system, while an enterprise integrator may select an independent model provider to work across several robot manufacturers. Paid service economics will depend on whether customers see measurable gains over open models and conventional automation.
Recent Developments
• October 13, 2026: Physical Intelligence announced the Pi API beta for uploading robot training data, fine-tuning models and cloud-hosted inference. The release established an access channel, not disclosed paid sales.
• September 10, 2026: Skild AI reported more than USD 100 million in annual recurring revenue and over 60 paying customers across varied robot applications, strengthening evidence of commercial robot intelligence.
• July 30, 2026: Google DeepMind introduced Gemini Robotics 2 and ER 2, expanding robot reasoning and motion-model capabilities. The VLA models remained focused on early-access partners.
• July 7, 2026: NVIDIA detailed the Isaac GR00T 1.7 development platform, including an open, commercially usable vision-language-action model and end-to-end policy workflows.
• April 2, 2026: Generalist AI introduced GEN-1, reporting higher success rates for selected physical tasks. The announcement concerned model research rather than confirmed commercial deployment revenue.
• March 12, 2026: FieldAI and Boston Dynamics announced a partnership to use Field Foundation Models in changing construction and industrial environments.
Market Outlook
Robot foundation models are expected to support a growing share of robotic software development as customers look for reusable intelligence across different objects, machines and environments. Model suppliers that combine broad training with repeatable adaptation, on-site reliability and clear service responsibilities should be better positioned for sustained enterprise contracts.
Industrial manipulation and autonomous inspection will remain important early applications, while humanoid deployments contribute a growing but narrower part of demand. Open models should stimulate experimentation and lower entry barriers, making paid adaptation and dependable production support more important differentiators than access to model weights alone.
North America is likely to remain the largest regional source of commercial revenue, with Asia Pacific expanding through manufacturing and robot-platform adoption. Customer decisions will continue to depend on safety, task success and whole-deployment economics rather than model benchmarks in isolation.
Companies Profiled
• Skild AI, Inc.
• FieldAI, Inc.
• Physical Intelligence
• NVIDIA Corporation
• Google DeepMind
• Generalist AI
Robot Foundation Model Market Scope:
| Report Metric | Details |
|---|---|
| Total Market Size in 2026 | USD 0.145 billion |
| Total Market Size in 2031 | USD 2.10 billion |
| Forecast Unit | USD Billion |
| Growth Rate | 70.7% |
| Study Period | 2021 to 2031 |
| Historical Data | 2021 to 2024 |
| Base Year | 2025 |
| Forecast Period | 2026 – 2031 |
| Segmentation | Commercial Offering, Foundation Model Family, Robot Embodiment, Primary Customer Type, Deployment Architecture, Primary Application, Commercial Delivery Channel, Geography |
| Companies |
|
| Customization Scope | 15% Free Customization included with purchase — Request Custom Breakdown → |
| Sample & Data Access | PDF Sample, Excel Databook & Analyst Briefing — Download Free Sample → |
Market Segmentation
By Commercial Offering
By Foundation Model Family
By Robot Embodiment
By Primary Customer Type
By Deployment Architecture
By Primary Application
By Commercial Delivery Channel
By Geography
Table of Contents
1. EXECUTIVE SUMMARY
1.1. Key Findings
1.2. Market Value and Growth Outlook
1.3. Robot Foundation Model Adoption
1.4. Regional Opportunity Summary
2. MARKET SNAPSHOT
2.1. Market Definition
2.2. 2025 Base Year and 2026–2031 Forecast
2.3. Commercial Revenue Framework
2.4. Technology and Application Summary
3. BUSINESS LANDSCAPE
3.1. Market Drivers
3.1.1. Reduction in Task-Specific Robot Programming
3.1.2. Expansion of Real-World Robot Intelligence Deployments
3.1.3. Growing Availability of Managed Adaptation Services
3.1.4. Demand for Autonomous Operation in Changing Sites
3.1.5. Cross-Platform Learning and Robotics Ecosystem Development
3.2. Market Restraints
3.2.1. Unreliable Generalization Across Tasks and Environments
3.2.2. Safety Validation and Human-Interaction Constraints
3.2.3. High Cost of Collecting and Maintaining Robot Data
3.2.4. Latency, Connectivity and Hardware Constraints
3.2.5. Competition from Open Models and Integrated Robot Software
3.3. Market Opportunities
3.3.1. Reusable Robot Skill Deployment
3.3.2. Industrial Risk-Aware Autonomy
3.4. Porter's Five Forces Analysis
3.5. Industry Value Chain Analysis
3.6. Policies and Regulations
3.7. Strategic Recommendations
4. TECHNOLOGICAL OUTLOOK
4.1. Vision-Language-Action Robotics Models
4.2. World Models and Embodied Spatial Reasoning
4.3. Cross-Embodiment Skill Transfer
4.4. Model Fine-Tuning and Adaptation
4.5. On-Device and Hybrid Autonomy
4.6. Safety, Risk Awareness and Model Evaluation
5. ROBOT FOUNDATION MODEL MARKET BY COMMERCIAL OFFERING
5.1. Introduction
5.2. Enterprise foundation-model licensing and support
5.3. Robot-specific model adaptation and skill delivery
5.4. Separately billed model inference and autonomy operations
5.5. Private foundation-model deployment and assurance
6. ROBOT FOUNDATION MODEL MARKET BY FOUNDATION MODEL FAMILY
6.1. Introduction
6.2. Vision-language-action manipulation models
6.3. Risk-aware embodied navigation and world models
6.4. Transferable dexterity and action policies
6.5. Embodied reasoning and task planning models
6.6. General motion and locomotion priors
7. ROBOT FOUNDATION MODEL MARKET BY ROBOT EMBODIMENT
7.1. Introduction
7.2. Humanoid robots
7.3. Fixed industrial and collaborative robot arms
7.4. Mobile manipulators
7.5. Mobile robots and quadrupeds
7.6. Other specialized robot platforms
8. ROBOT FOUNDATION MODEL MARKET BY PRIMARY CUSTOMER TYPE
8.1. Introduction
8.2. Robot OEMs and platform manufacturers
8.3. Industrial and service end users
8.4. Robotics integrators and deployment partners
8.5. Model developers and research-oriented organizations
9. ROBOT FOUNDATION MODEL MARKET BY DEPLOYMENT ARCHITECTURE
9.1. Introduction
9.2. On-device model execution
9.3. Hybrid robot-edge and cloud
9.4. Managed cloud model serving
9.5. Private or air-gapped deployment
10. ROBOT FOUNDATION MODEL MARKET BY PRIMARY APPLICATION
10.1. Introduction
10.2. Warehouse and material handling
10.3. Industrial inspection and field operations
10.4. Manufacturing assembly and manipulation
10.5. Retail, food and commercial service tasks
10.6. Care, domestic and advanced research tasks
11. ROBOT FOUNDATION MODEL MARKET BY COMMERCIAL DELIVERY CHANNEL
11.1. Introduction
11.2. Direct managed intelligence subscriptions
11.3. OEM and technology licensing agreements
11.4. Metered model access and API
11.5. Model adaptation and deployment engagements
12. GEOGRAPHY
12.1. North America
12.1.1. United States
12.1.2. Canada
12.1.3. Mexico
12.2. South America
12.2.1. Brazil
12.2.2. Argentina
12.2.3. Rest of South America
12.3. Europe
12.3.1. Germany
12.3.2. United Kingdom
12.3.3. France
12.3.4. Italy
12.3.5. Spain
12.3.6. Switzerland
12.3.7. Rest of Europe
12.4. Middle East and Africa
12.4.1. Saudi Arabia
12.4.2. United Arab Emirates
12.4.3. Israel
12.4.4. South Africa
12.4.5. Rest of Middle East and Africa
12.5. Asia Pacific
12.5.1. China
12.5.2. Japan
12.5.3. South Korea
12.5.4. India
12.5.5. Singapore
12.5.6. Australia
12.5.7. Taiwan
12.5.8. Rest of Asia Pacific
13. COMPETITIVE ENVIRONMENT AND ANALYSIS
13.1. Major Players and Strategy Analysis
13.2. Commercial Offering Comparison
13.3. Market Share Analysis
13.4. Strategic Partnerships and Developments
13.5. Competitive Dashboard
14. COMPANY PROFILES
14.1. Skild AI, Inc.
14.2. FieldAI, Inc.
14.3. Physical Intelligence
14.4. NVIDIA Corporation
14.5. Google DeepMind
14.6. Generalist AI
15. APPENDIX
15.1. Research Methodology
15.2. Market Forecast Methodology
15.3. Definitions and Abbreviations
15.4. Source Register
15.5. Disclaimer
Frequently asked questions
What is the Robot Foundation Model market size and growth forecast?
The Robot Foundation Model Market's projected to reach $2.10 billion by 2031, growing at 70.7% CAGR.
Which technologies are leading the Robot Foundation Model market?
Vision-language-action models lead, combining natural language with observation-driven actions.
Which regions will lead the market revenue by 2031?
North America leads in 2026; Asia Pacific gains significant share by 2031.
What are key services driving commercial opportunity in this market?
Supported deployment and robot-specific adaptation are the largest commercial opportunities.
What types of robots are included in the market?
Humanoids, manipulators, mobile robots, and industrial field platforms are included.
How do robot foundation models benefit customers?
They accelerate task introduction and reduce repetitive robot-by-robot programming.
Cite this report
Knowledge Sourcing Intelligence. (Nov 2026). Robot Foundation Model Market Size, Share & Growth Forecast (2026-2031). https://www.knowledge-sourcing.com/report/robot-foundation-model-market





