Securing the Robotics Supply Chain

Background: The Ruling

• The Covered List blocks new U.S. equipment authorization for advanced robotic devices and connected power inverters, while exempting previously authorized models, existing purchases, and federal use.A conditional-approval pathway is available through Department of Defense and Department of Homeland Security review.Source: Background: The Ruling · p. 2
• The Commission cites supply-chain vulnerability, cybersecurity risks to critical infrastructure, and the possibility of surveillance or remote commandeering through networked robots.Reported examples include consumer robots transmitting video data without users’ knowledge, allegedly controllable autonomous vehicles, and components withheld during geopolitical disputes.Source: Background: The Ruling · pp. 2–3
• The ruling’s enforcement leaves unresolved how it treats domestically assembled or marketed firms with foreign ownership or dependencies several tiers down the supply chain.Its reach may also differ between advanced foreign-made mobile robots and traditional industrial manipulators.Source: Background: The Ruling · p. 3
• The paper presents the ruling as a starting point for sustained federal investment in a broader robotics research and manufacturing ecosystem, rather than simple exclusion of listed devices.It argues that no single company or university has the resources or mandate to rebuild the entire supply chain independently.Source: Background: The Ruling · p. 3

The Current State of the Domestic Robotics Research Ecosystem

• Unitree shipped more than 5,500 humanoids in 2025, over a quarter of the global market, and 74 percent of its humanoid sales went to research users; its G1 sells for about $13,500.Unitree cut quadruped prices from $45,000 to under $2,000; Boston Dynamics’ Spot had a base price of $74,500.Source: The Current State of the Domestic… · p. 3
• Few U.S.-manufactured research robots exist, and those available remain beyond most academic laboratories’ budgets and may exceed many small and mid-size businesses’ viable price points.Boston Dynamics is U.S.-based but wholly owned by South Korea’s Hyundai Motor Group, an ownership structure whose treatment under the ruling remains unresolved.Source: The Current State of the Domestic… · pp. 3–4
• Even domestically assembled robots rely on foreign-sourced motors, sensors, wiring, batteries, semiconductors, cameras, and embedded compute platforms, while U.S.-made components are often manufactured overseas.The paper identifies integrated hardware-software co-design as a possible area for U.S. developers to differentiate themselves.Source: The Current State of the Domestic… · p. 4
• Components have been withheld amid geopolitical disputes, and the multi-year effort to scale domestic drone production and procurement remains incomplete.The paper also reports that chip supply chains can trace to a small number of internationally linked suppliers several tiers removed.Source: The Current State of the Domestic… · p. 4
• China leads the U.S. in robot density, with 322 robots per 10,000 workers versus 274, and its national robot sales run at roughly four times the U.S. level.The paper says several Asian nations combine large markets and long-term strategies with investment that supports deployment, experience, cost reduction, and iteration.Source: The Current State of the Domestic… · pp. 4–5
• The paper identifies the greater strategic risk as the next generation of robotics technology, manufacturing capability, supply chains, and expertise becoming concentrated elsewhere.Without a deliberate transition plan, withdrawing access to low-cost foreign platforms risks widening the gap.Source: The Current State of the Domestic… · p. 5

Designing for a mixed-trust supply chain

• The paper calls for systems that remain trustworthy while supply chains are partly foreign for a decade or more, centering verification and reverse engineering for detecting and, where needed, removing malicious functionality.Researchers must assume components could be adversarial until proven otherwise and ask what each component must be verified to do, rather than whether it should be used at all.Source: Technical Research Priorities for a… · pp. 5, 7
• Restricting access to foreign-made platforms also limits researchers’ ability to study how they operate, which the paper identifies as a precondition for developing analysis capability.The paper compares this tension with managing similar issues in small electronics.Source: Technical Research Priorities for a… · p. 5

Designing robots to tolerate supplier substitution

• Supplier changes during domestic capacity development motivate formal component interfaces, automated behavior re-identification, bounded-performance transfer of learned control policies, and lower-cost safety revalidation.The paper describes supplier and specification changes as likely to continue for years.Source: Technical Research Priorities for a… · pp. 5–6

Investing in the hardware fundamentals: Characterizing what component quality actually requires

• The tolerances for mechanical backlash, torque ripple, and sensor degradation before robot task performance deteriorates have not been systematically mapped, despite being measurable on existing hardware.The paper notes that supplier-specific design choices can be mistaken for genuine functional requirements, potentially constraining qualified domestic suppliers.Source: Technical Research Priorities for a… · p. 6

Investing in the hardware fundamentals

• Component-level research into actuators, grippers, sensors, materials, and sensorized end-effectors has been persistently underfunded relative to software and systems research.The paper cites earlier roadmaps identifying gripper technology, multimodal sensor integration, and advanced manufacturing as underinvested areas.Source: Technical Research Priorities for a… · p. 6

Building the tools to verify trust, not just assume it

• No established research-backed method currently validates and certifies robotics component or system safety and security, and deep-learning safety-critical control loops pose additional certification difficulty.The proposed approach replaces country-of-origin proxies with verifiable trust properties, including machine-readable bills of materials, model provenance, signed updates, and hardware attestation.Source: Technical Research Priorities for a… · p. 6

Funding shared, open-access test infrastructure

• A fully instrumented multi-robot research setup can cost $1 million, making serious experimental robotics work inaccessible to many laboratories.The paper proposes open-access national test facilities spanning manufacturing, warehousing, home care, surgery, multi-robot systems, drones, and agriculture.Source: Technical Research Priorities for a… · p. 7

A conditioned pathway for research access

• A conditioned import pathway for qualified research institutions could preserve access to newer platforms while limiting quantities, requiring network isolation, and barring resale.The proposed pathway also includes inventory and disposition obligations and vulnerability reporting.Source: Federal Investment Opportunities… · p. 7

Targeting the components that actually constrain supply, not final assembly

• Domestic incentives should target motors, actuators, drives, compute, sensors, precision gearing, wiring harnesses, and batteries, with the goal of globally competitive production costs.Assembly-only incentives will not reach these supply-chain chokepoints or make domestic-content thresholds attainable.Source: Federal Investment Opportunities… · p. 7

Supporting an open, manufacturable reference design

• No U.S. robotics company maintains an open reference design spanning mechanics, bill of materials, firmware, control software, and validation, leaving each manufacturer to repeat substantial fixed work.The paper also proposes broader federal support for open-source and open-hardware development.Source: Federal Investment Opportunities… · pp. 7–8

Closing the gap between federally funded research and commercial products

• Federally funded prototypes can fail to reach the domestic market: an Army Research Laboratory-funded quadruped was commercialized abroad, and the domestic product sells at roughly sixty times the price and a fraction of the volume.The paper proposes expanding robotics-specific NSF TTP, I-Corps, and SBIR/STTR pathways.Source: Federal Investment Opportunities… · p. 8
• The gap runs both ways: some foreign-made components, especially basic motor components, cannot yet be produced domestically even in small research quantities.The paper identifies a robotics-focused lab-to-market translation program as a potential avenue, not an established solution.Source: Federal Investment Opportunities… · p. 8

Preserving basic research alongside translation

• Closing the translation gap should expand support across technology-readiness levels, not shift universities away from exploratory work, which the paper identifies as a source of future transformative innovations.University research typically sits at TRL 1–4, while translation work spans TRL 5–7 for products and deployments resulting from TRL 8–9 work.Source: Federal Investment Opportunities… · p. 8

A coordinated federal approach, not a single-agency mandate

• A coordinated federal program should span fundamental research, component technology, systems integration, and security, using regulatory, economic, and procurement levers alongside funding.The paper calls for alignment with the SCSP Commission's forthcoming report and published Conditional Approval criteria and timelines.Source: Federal Investment Opportunities… · p. 9

Implementation and transition

• Corporate research partnerships need clear intellectual-property and publication-independence terms, while restrictions should phase in as domestic alternatives become available and affordable.The paper presents these conditions as ways to support sustainability and a predictable transition for researchers and manufacturers.Source: Federal Investment Opportunities… · p. 9

A pipeline from K–12 through the doctorate

• A domestic robotics workforce requires sustained capacity from K–12 through doctorates, including technical schools and community colleges as well as research universities.The paper argues that the people who will eventually build this capacity are, in large part, currently in grade school.Source: Workforce and Education as Supply… · pp. 9–10

Applied doctoral training

• The NSF UIDP Industry-Integrated Ph.D. Scholars Program offers about $47 million for more than 250 students over five years, including a required one-year industry placement in a four-year doctoral track.The paper calls the program modest relative to need and flags the short timeline and corporate-placement reliance as design tensions.Source: Workforce and Education as Supply… · p. 10
• National-laboratory partnerships and professional doctoral tracks are proposed as applied-training options that could reduce reliance on companies without displacing traditional research doctorates.The paper says NSF is reportedly piloting a version of the professional-doctoral model and that its results should inform future expansion.Source: Workforce and Education as Supply… · p. 10

Recruiting and retaining domestic talent

• Training investment abroad is likely to outnumber comparable U.S. commitments, while higher industry compensation partly limits domestic student interest in graduate study.The paper frames international enrollment and professional-society growth alongside the need to build a domestic pipeline.Source: Workforce and Education as Supply… · p. 10

Connecting early interest to later education

• K–12 robotics competitions can be better connected to later education: at Michigan, pipeline demand contributed to establishing a Robotics major and department, which drew more than 100 declared majors in its first year.The paper argues that connective pathways through vocational and graduate programs may do more than graduate-study incentives alone.Source: Workforce and Education as Supply… · pp. 10–11

Closing the hardware-software divide

• Universities should address the separation between researchers working on AI and software and those working on hardware and manufacturing, rather than treating robot platforms as commodities.The paper argues that unreliable systems, manufacturing tolerance, and higher-level AI methods are connected research problems.Source: Workforce and Education as Supply… · p. 11

First-principles and hands-on training

• Universities can reconnect theory and practice by having students build components such as actuators and motors, while shared robotics facilities could extend the hands-on model used in microfabrication.The paper notes that few technical schools or community colleges currently offer robotics-specific training of substantial breadth, despite the need for technicians.Source: Workforce and Education as Supply… · p. 11

Closing the hardware-software divide

• Robotics training should bridge software and hardware disciplines and integrate hardware-software co-development with security from the start of system design.The paper presents that integrated development as a potential durable U.S. advantage when supported at scale over decades.Source: Workforce and Education as Supply… · pp. 11–12

• Closing the gap requires sustained, coordinated investment because dependence on foreign platforms and components runs deep and domestic alternatives lack meaningful scale.The conclusion presents the vulnerability as an opportunity to build a domestic robotics research and manufacturing base.Source: Conclusion · p. 12
• The agenda spans component-level hardware research, methods to verify trust in mixed supply chains, and shared physical infrastructure for testing at scale.Source: Conclusion · p. 12
• Researchers, engineers, and technicians need training now, from foundational hardware instruction through doctoral education, to meet the timeline for trustworthy robotics.The conclusion also describes these priorities as an opportunity to build a base the U.S. can lead with rather than depend upon.Source: Conclusion · p. 12

• The paper is titled “Securing the robotics supply chain: Technical needs and investment opportunities for the domestic robotics research ecosystem.”Source: Suggested Citation · p. 15
• The listed authors are Bethel, Christensen, Jenkins, Pappas, Yanco, and Griffin.Source: Suggested Citation · p. 15
• The suggested citation lists the Computing Research Association (CRA) as publisher and Washington, D.C. as the publication location.Source: Suggested Citation · p. 15

• The white paper acknowledges reviewers Nenad Medvidović of the University of Southern California and Weisong Shi of the University of Delaware.Source: Reviewers · p. 15
• The material is supported by U.S. National Science Foundation awards 2300842 and 2619366, which support the Computing Community Consortium programmatic committee of CRA.Source: Reviewers · p. 15
• The authors state that the material's opinions, findings, conclusions, and recommendations do not necessarily reflect the NSF's views.Source: Reviewers · p. 15

• The Computing Community Consortium is a programmatic committee of the Computing Research Association.Source: About the Computing Community… · p. 15
• CCC brings together thought leaders from industry, academia, and government to advance computing research visions.Source: About the Computing Community… · p. 15
• CCC communicates research visions to stakeholders, policymakers, the public, and the computing research community.Source: About the Computing Community… · p. 15