Robot Safety Documentation: The Complete 2026 Guide

Robot safety documentation for a deployment comes down to six core documents. Three cover the machine and the site: a risk assessment, a facility readiness assessment, and an energy control procedure. The other three cover compliance and people: a technical file with Declaration of Conformity in the EU, training and competency records, and an incident reporting system. Each is required by a specific standard or regulation, and producing them in the right order prevents weeks of rework.

The stakes justify the paperwork. Work injuries cost the US economy $176.5 billion in 2023 (National Safety Council, 2023 data), and industrial robot use in US factories grew 10 percent in 2022 (NIOSH). In this guide I map every document to the standard that requires it, flag what changes for humanoids, and lay out the build order I use.

What safety documents does a robot deployment require?

Six documents form the minimum set, and skipping any of them carries a price. The National Safety Council puts the average cost of a medically consulted work injury at $43,000 (NSC Injury Facts, 2023 data). One prevented injury typically pays for the entire documentation program.

The table below maps each document to the standard or regulation that requires it.

Document	Required by	Region	When
Risk assessment	ISO 12100:2010, referenced by ISO 10218-2:2025 and the EU Machinery Regulation	Global	Before design freeze
Facility readiness assessment	ISO 10218-2:2025 / ANSI/A3 R15.06-2025 (robot application and cell requirements)	Global / US	Before installation
Energy control (LOTO) procedure	OSHA 29 CFR 1910.147	US	Before first service task
Technical file + Declaration of Conformity	EU Machinery Regulation 2023/1230	EU	Before placing on the market or into service
Training and competency records	OSHA 1910.147 (training duties) plus ISO 10218-2:2025 verification expectations	US / Global	Before operation
Incident and near-miss reports	OSHA 29 CFR Part 1904 (recordkeeping) plus internal program	US	Ongoing

This is not theoretical. BMW’s Spartanburg pilot put a Figure 02 humanoid on a ten-month production assignment. The robot supported the build of more than 30,000 BMW X3s. It moved more than 90,000 components and logged about 1,250 operating hours (BMW Group, 2026). Deployments at that scale only happen on top of a complete document set. If you are still planning the deployment itself, start with my humanoid robot factory implementation guide.

Which safety standards apply to robots in 2026?

Four layers of standards apply, and each layer demands its own documents. The foundation is ISO 12100:2010 for risk assessment methodology plus ISO 13849-1:2023 for safety-related control systems. On top sit ISO 10218-1:2025 for the robot and ISO 10218-2:2025 for the application and cell. Both parts were published in February 2025 as the first major revision since 2011 (A3, 2025).

The 2025 revision matters for your paperwork in three ways. Most requirements of ISO/TS 15066 on collaborative applications were folded into ISO 10218-2:2025, so there is no separate cobot standard to cite anymore. New robot classifications carry corresponding functional safety requirements. And cybersecurity requirements now appear where they affect robot safety. I break down every change in my ISO 10218:2025 explainer.

The top layer is regional adoption. In the US, ANSI/A3 R15.06-2025 was published in September 2025 as the national adoption of ISO 10218:2025. The three-part standard replaces ANSI/RIA R15.06-2012. It also renames “safety-rated monitored stop” to “monitored standstill” (The Robot Report, 2025). The A3 standards catalog lists the full document set. In the EU, the Machinery Regulation 2023/1230 carries legal force.

One emerging layer deserves a watch item in your conformity plan: ISO/WD 25785-1 is a working draft covering dynamically stable industrial mobile robots, the machines that rely on actively controlled stability and could become unstable without power. For the full humanoid-specific picture, see my post on humanoid robot safety standards in 2026.

What goes into a robot risk assessment?

A robot risk assessment follows the ISO 12100 loop: define the machine limits, identify hazards for every task and life-cycle phase, estimate and evaluate each risk, then reduce it through design, safeguarding and information for use. The document records each pass through that loop, with residual risk justified in writing.

The hazard data tells you where to focus. A NIOSH analysis identified 41 robot-related fatalities in the US between 1992 and 2017, and the underlying study found that 78 percent of cases involved a robot striking the worker, while 83 percent involved stationary robots (NIOSH, 2023 study).

Most documented robot fatalities did not involve exotic failure modes. They involved a stationary robot striking a person who was inside its envelope, usually during maintenance, programming or jam clearing. Your risk assessment should weight those intervention tasks accordingly.

The biggest mistake I see is assessing only normal operation. Teach mode, fault recovery, cleaning and changeover are where exposure concentrates, so every one of those tasks needs its own hazard rows. I walk through the full method, field by field, in my ISO 12100 risk assessment template for robots.

Why does lockout tagout fail for humanoid robots?

Lockout/tagout assumes that removing energy makes a machine safe, and a balancing humanoid breaks that assumption. A dynamically stable robot uses actively controlled stability, meaning it could become unstable in the absence of power, which is exactly the machine class ISO/WD 25785-1 is being drafted to cover. Cut power to a standing biped without a controlled sequence and you may create the hazard you were trying to remove.

The compliance pressure is real even before humanoids enter the picture. Control of Hazardous Energy, 29 CFR 1910.147, ranked #4 on OSHA’s FY2025 Top 10 most frequently cited standards (OSHA, FY2025). Penalties assessed after January 15, 2026 run up to $16,550 per serious violation and $165,514 per willful or repeated violation (OSHA, 2026).

For a humanoid, your energy control procedure must document the safe posture or docking sequence before isolation, stored energy in batteries and actuators, and verification steps that do not require a person inside the envelope. OSHA’s hazardous energy topic page covers the baseline program elements. I published a complete bipedal-ready procedure in my robot lockout tagout template.

What changes with the EU Machinery Regulation in January 2027?

The Machinery Regulation (EU) 2023/1230 applies from 20 January 2027 and repeals the Machinery Directive 2006/42/EC (EUR-Lex). A small set of articles applied earlier, from 20 July 2024, but the date that matters for your technical file is January 2027. As a regulation it applies directly in every member state, with no national transposition gap.

For documentation owners, the practical change is the technical file and conformity assessment. Machinery placed on the EU market or put into service from the application date must conform to the new regulation, so anything you intend to commission in 2027 should be documented against 2023/1230 now, not against the outgoing directive. If you integrate robots into a larger cell, you may also take on manufacturer obligations for the assembled machine.

My advice: run both frameworks in parallel during 2026 and close the gaps one by one. I maintain a clause-by-clause transition list in my EU Machinery Regulation 2023/1230 checklist.

How do you document training and competency?

Training documentation must prove competency, not attendance. OSHA’s lockout/tagout standard, 1910.147, requires employers to train authorized, affected and other employees and to retrain when job assignments, machines or procedures change. A signature on a sign-in sheet does not demonstrate any of that.

A defensible record has four parts. First, a role matrix that defines who is authorized, affected or other for each robot system. Second, the training content itself, versioned, so you can show what a person was taught on a given date. Third, a competency verification, a practical demonstration or assessment with a named evaluator. Fourth, retraining triggers tied to change management, because every revised procedure invalidates part of the old training.

Long pilots show why versioning matters. BMW’s ten-month Figure 02 pilot ran ten-hour shifts Monday through Friday on a live sheet metal task (BMW Group, 2026). Over a period like that, procedures change and crews rotate, and only versioned records keep the paper trail intact. I detail the full record structure in my guide to robot safety training and competency requirements.

What belongs in an incident and near-miss report?

Two record types apply, and they serve different masters. Recordable injuries and illnesses follow OSHA’s recordkeeping rule, 29 CFR Part 1904, with its forms and posting obligations. Near misses are not federally recordable, but OSHA defines close calls as incidents “in which a worker might have been hurt if the circumstances had been slightly different” and says investigating them lets employers identify corrective actions that prevent future incidents (OSHA).

For robots, a useful near-miss report captures fields a generic form misses: robot mode at the time (automatic, manual, teach), speed and separation state, which safety function triggered or failed to trigger, and the software or configuration version running. Without those fields you cannot tell a sensor fault from a procedure gap.

Fleet-scale deployments make this data valuable fast. Agility Robotics reports that its Digit humanoid has moved over 100,000 totes at GXO’s Flowery Branch facility (Agility Robotics, 2025). At that cycle volume, even rare anomalies recur often enough to show patterns, but only if every one gets logged. I built a robot-specific form you can copy in my near-miss report form for robots.

How Do I Build the Robot Safety Documentation Program Step by Step?

Build the documents in dependency order, because each one feeds the next. The sequence I use across deployments has seven steps, and the risk assessment always comes first since the facility checklist, the LOTO procedure and the training matrix all inherit its hazard list.

1. Run the ISO 12100 risk assessment. Cover every task and life-cycle phase, not just normal operation.
2. Write the conformity plan. Map which standards and regulations apply: ISO 10218-1/2:2025, ANSI/A3 R15.06-2025 in the US, EU MR 2023/1230 in the EU.
3. Complete the facility readiness assessment. Floors, charging, traffic routes, emergency access, derived from the application requirements of ISO 10218-2:2025.
4. Write the energy control procedure. Machine-specific, with the stability sequence for dynamically stable robots.
5. Compile the technical file. For EU deployments, assemble the 2023/1230 evidence before commissioning, not after.
6. Train and verify competency. Versioned content, named evaluators, retraining triggers.
7. Stand up incident and near-miss reporting. Then close the loop: every report that reveals a new hazard sends you back to step 1.

The diagram below shows the seven steps and the feedback loop from reporting back to the risk assessment.

Budget the sequence into your deployment plan rather than treating it as a parallel chore. Teams that document as they go reach commissioning with a complete file. Teams that defer it reconstruct evidence under deadline pressure, and reconstructed evidence is exactly what auditors and regulators distrust.

Frequently Asked Questions

Do collaborative robots need separate safety documentation in 2026?

No separate standard applies anymore. Most requirements of ISO/TS 15066, the former collaborative robot specification, were incorporated into ISO 10218-2:2025 (ISO). Your cobot application is documented through the same risk assessment and application file as any other robot cell, with collaborative operating modes addressed inside it.

Is robot safety documentation legally required in the United States?

Parts of it are. OSHA 29 CFR 1910.147 requires written, machine-specific energy control procedures, and 29 CFR Part 1904 requires injury and illness records. ANSI/A3 R15.06-2025 is voluntary as a standard, but OSHA can reference recognized standards when evaluating whether an employer addressed known hazards.

How often should robot safety documents be reviewed?

Review on two triggers: change and time. Any change to the robot, tooling, layout, software or procedure should reopen the affected documents immediately. Beyond that, a periodic review on a fixed cycle catches drift. OSHA’s lockout/tagout standard, for example, expects periodic inspection of energy control procedures, so build that cadence into the calendar.

Does the EU Machinery Regulation apply to robots already in service?

The regulation applies from 20 January 2027 to machinery placed on the market or put into service from that date (EUR-Lex). Existing installed machines are not automatically re-certified, but substantial modification can create new obligations, so document every modification decision and consult a conformity specialist.

Should I wait for ISO 25785-1 before deploying a humanoid robot?

No. ISO/WD 25785-1 is a working draft for dynamically stable mobile robots and has no fixed publication date (ISO). Deploy under the current stack, ISO 12100, ISO 10218-1/2:2025 and regional rules, document your stability-related hazards explicitly, and track the draft so you can adopt it on publication.

This article is for informational purposes only and does not constitute legal, regulatory or professional safety advice. Always consult a qualified safety engineer before deploying robotic systems.

Sources

• OSHA Top 10 Most Frequently Cited Standards, FY2025
• OSHA Civil Penalty Amounts, 2026
• OSHA 29 CFR 1910.147, The Control of Hazardous Energy (Lockout/Tagout)
• OSHA 29 CFR Part 1904, Recording and Reporting Occupational Injuries and Illnesses
• OSHA, Control of Hazardous Energy topic page
• OSHA, Incident Investigation
• Regulation (EU) 2023/1230 on Machinery, EUR-Lex
• ISO 12100:2010, Safety of Machinery, Risk Assessment and Risk Reduction
• ISO 13849-1:2023, Safety-Related Parts of Control Systems
• ISO 10218-1:2025, Robotics, Safety Requirements, Part 1: Industrial Robots
• ISO 10218-2:2025, Robotics, Safety Requirements, Part 2: Industrial Robot Applications and Robot Cells
• ISO/WD 25785-1, Dynamically Stable Industrial Mobile Robots, Part 1 (working draft)
• A3, Robot Safety Standard Documents
• The Robot Report, Updated ANSI/A3 Standards Address Industrial Robot Safety, September 2025
• A3, New ANSI/A3 R15.06-2025 American National Standard for Industrial Robot Safety Now Available, 2025
• NIOSH, Robotics in the Workplace: An Overview
• National Safety Council, Injury Facts: Work Injury Costs
• BMW Group Press Release, Humanoid Robots in Production, February 2026
• Agility Robotics, Digit Moves Over 100,000 Totes at GXO, November 2025