Humanoid Robot Safety Standards: ISO, IEC and the Gaps

Why standardizing humanoid robots is so hard

Humanoid robots combine traits that standards bodies have historically treated separately: they are machines with significant kinetic energy (industrial-robot territory), companions in human environments (personal-care-robot territory), and increasingly AI-driven software products (AI regulation). In 2026, humanoid safety therefore emerges from a mosaic of existing standards, product-specific risk analyses, and – for many vendors – purely voluntary commitments.

Transparency note: we only list standards that are publicly documented. Where we are uncertain, we say so explicitly – this field is moving quickly.

ISO 10218: Industrial robots (2025 revision)

ISO 10218 (Parts 1 and 2) is the foundational standard for safety requirements of industrial robots and robot systems. The 2025 revision integrated and modernized the Technical Specification ISO/TS 15066 on collaborative robots – including force and pressure limits at human contact points – into the standard itself.

Relevance to humanoids: when a humanoid works in a factory or warehouse, industrial robot safety standards apply in principle. However, the force/pressure limits were defined for specific collaborative applications; whether they transfer to a freely walking humanoid is contested among standardization experts – there is no binding answer.

ISO 13482: Personal care robots

ISO 13482, "Robotics – Safety requirements for personal care robots", is the central standard for robots interacting with people in private or public settings. It requires risk reduction through inherently safe design, protective measures and usage information.

Relevance: consumer humanoids such as the announced 1X Neo will likely be measured against this standard. Whether and to what extent manufacturers actually apply it is not publicly documented as of September 2026 – reliable certification data is missing.

Consumer robotics: IEC 63327 via robot vacuums

A verifiable example of concrete consumer-robotics safety: the IEC 60335-2-2 standard for vacuum cleaner safety, extended for robotic models, and IEC 63327, which specifies safety requirements for automatically operated robot vacuum cleaners – covering shutdown behavior, collision safety and electrical safety of autonomous household robots.

Why this matters: it shows the path standardization will likely take for other household robots – product-specific standards rather than one generic humanoid standard. To our knowledge, no equivalent product-specific document for humanoid household robots has been published as of September 2026. Uncertainty: work in standardization committees may exist that is not yet public; we cannot rule that out.

EU regulation: Machinery Regulation and AI Act

The EU Machinery Regulation (EU) 2023/1230 replaces the Machinery Directive 2006/42/EC and applies from 20 January 2027. It explicitly addresses robotics and AI-based safety functions: self-learning behavior that affects safety must remain safe throughout the product’s lifetime. Humanoid robots placed on the EU market fall into scope as machinery.

In parallel, the EU AI Act applies its risk-based framework: safety-relevant AI components in robots can qualify as high-risk AI. The combined application of both frameworks to humanoid robots had not yet been worked out in official Commission guidance as of September 2026.

What remains unregulated: the open gaps

• No dedicated ISO/IEC product standard for humanoid robots (as of September 2026, per publicly available knowledge).
• No binding force/pressure limits for freely walking household humanoids.
• No established consumer certification mark independently attesting humanoid robot safety.
• Cybersecurity: partially covered by IEC 62443 and EU radio-equipment law, but no humanoid-specific standard.
• Liability for autonomous decisions: largely unresolved legally; reform debates ongoing.

Bottom line: anyone deploying humanoids today navigates a mosaic of ISO 10218, ISO 13482, machinery law and voluntary vendor claims. Buyers should demand documented risk analyses and independent assessments – and stay skeptical of marketing-only safety claims.