Product Overview

Summary: This Industrial Robots Safe Operating Procedure sets out clear, practical steps for safely programming, operating, and maintaining industrial robots in Australian workplaces. It helps businesses control high‑risk interactions between people and robotic systems, supporting compliance with WHS duties while maximising productivity and uptime.

Industrial robots are now common across Australian manufacturing, logistics, food processing, and advanced engineering operations. While they deliver significant gains in speed, precision and repeatability, they also introduce serious safety risks including crushing, impact, entanglement and unexpected movement. This Industrial Robots Safe Operating Procedure provides a structured, step‑by‑step framework for managing these risks across the full lifecycle of robotic tasks – from design and commissioning through to normal operation, maintenance, troubleshooting and decommissioning.

The SOP translates complex WHS and machinery safety requirements into clear instructions that frontline workers, supervisors and contractors can actually follow. It defines how to set up and verify safety systems (such as guards, light curtains, safety interlocks and emergency stops), how to enter and work within robot cells, and how to manage modes such as teach, manual and automatic. It also addresses change management, lock out–tag out (LOTO), and coordination with other plant and processes, helping businesses demonstrate due diligence under Australian WHS legislation. By implementing this procedure, organisations can significantly reduce the likelihood of serious injuries, unplanned downtime, and regulatory scrutiny while building a strong safety culture around robotics and automation.

Key Benefits

• Reduce the risk of crush, impact and entanglement injuries associated with industrial robot operation and maintenance.
• Ensure consistent, compliant start‑up, shutdown, teach and maintenance practices across all shifts and sites.
• Demonstrate due diligence with documented procedures aligned to Australian WHS laws and machinery safety standards.
• Minimise unplanned downtime and equipment damage through structured pre‑use checks and fault‑response steps.
• Improve training effectiveness by giving operators and technicians clear, role‑specific instructions for working around robots.

Who is this for?

• Production Managers
• Engineering Managers
• Automation Engineers
• Maintenance Supervisors
• Robot Operators
• Industrial Electricians
• WHS Managers
• Safety Advisors
• Manufacturing Supervisors
• Commissioning Engineers

Hazards Addressed

• Crushing and impact injuries from unexpected or uncontrolled robot movement
• Entanglement in moving parts, end‑effectors, conveyors and associated equipment
• Being struck by moving loads, tools or workpieces handled by the robot
• Pinch points and shear points within robot cells and guarding systems
• Defeat or failure of interlocks, light curtains and other safety devices
• Electrical hazards during installation, fault‑finding and maintenance
• Stored energy hazards (pneumatic, hydraulic, mechanical) during service work
• Slips, trips and falls around robot cells, cabling and peripherals
• Exposure to hazardous substances handled or dispensed by robots (e.g. welding fumes, adhesives, paints)
• Ergonomic strain during manual teaching, programming and fixture setup
• Inadequate emergency response when a person is trapped or injured in a robot cell

Included Sections

• 1.0 Purpose and Scope
• 2.0 Definitions and Terminology (including robot modes and safeguarded space)
• 3.0 Roles, Responsibilities and Competency Requirements
• 4.0 Applicable Legislation, Standards and Manufacturer Documentation
• 5.0 Description of Industrial Robots and Associated Plant
• 6.0 Hazard Identification and Risk Controls for Robot Cells
• 7.0 Required PPE and Safety Equipment
• 8.0 Pre‑Start Inspections and Safety System Checks
• 9.0 Safe Entry and Exit Procedures for Robot Cells
• 10.0 Safe Operating Procedure – Automatic Mode
• 11.0 Safe Operating Procedure – Teaching and Manual Modes
• 12.0 Changeover, Setup and Tooling/End‑Effector Adjustments
• 13.0 Lock Out–Tag Out (LOTO) and Isolation for Maintenance
• 14.0 Fault‑Finding, Jam Clearing and Recovery from Emergency Stops
• 15.0 Coordination with Other Plant, Contractors and Adjacent Work Areas
• 16.0 Housekeeping, Access, and Guarding Integrity Checks
• 17.0 Emergency Procedures and Incident Response
• 18.0 Training, Induction and Competency Verification
• 19.0 Inspection, Testing and Preventive Maintenance Requirements
• 20.0 Document Control, Review and Continuous Improvement

Legislation & References

• Work Health and Safety Act 2011 (Cth and relevant state/territory variants)
• Work Health and Safety Regulations 2011 (Cth and relevant state/territory variants)
• Safe Work Australia – Code of Practice: Managing risks of plant in the workplace
• Safe Work Australia – Code of Practice: How to manage work health and safety risks
• AS/NZS 4024 series: Safety of machinery (including AS 4024.3301 Safety of machinery – Robots for industrial environments – Safety requirements)
• AS 4024.1601–1604: Safety of machinery – Design of control systems and emergency stops
• AS/NZS ISO 12100: Safety of machinery – General principles for design – Risk assessment and risk reduction
• AS/NZS 3000: Electrical installations (Wiring Rules)
• Manufacturer-specific robot and controller safety manuals (e.g. ABB, FANUC, KUKA, Yaskawa, Universal Robots)