Functional Safety Certification for Six-Axis Articulated Robots: EU Machinery Regulation 2023/1230 Explained

Date
2027-04-02
Location
Online
Host
Zach L

About this event

A Worked-Examples Session for Field Service Engineers pursuing functional safety certification. A live 30-minute worked-examples session on EU Machinery Regulation 2023/1230 for six-axis articulated robots, built for field service engineers pursuing functional safety certification. What We'll Cover: What EU Machinery Regulation 2023/1230 requires and how its scope applies to six-axis articulated robots Mapping EU Machinery Regulation 2023/1230 clauses to the certification evidence assessors expect System-specific hazards and safety functions typical of six-axis articulated robots Common findings that delay certification, and how to avoid them A practical readiness roadmap for field service engineers preparing for assessment Related topics: EU Machinery Regulation 2023/1230 · Six-Axis Artic

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About Functional Safety Foundations

This event covers the compliance, engineering, and verification requirements defined by Functional Safety Foundations.

The cross-sector fundamentals underlying every functional safety standard: risk as severity × likelihood, the safety function concept, integrity levels, the safety lifecycle, and the split between random and systematic failures.

What it regulates

Shared vocabulary and reasoning: hazard → risk → risk reduction allocation → safety requirement → verified implementation → maintained integrity in operation.

Who must comply

Everyone entering the field — the conceptual base of the entire catalog.

Key requirements of Functional Safety Foundations

  • Hazard and risk fundamentals
  • Safety function anatomy: sensor-logic-actuator with defined safe state
  • Integrity ladders (SIL/PL/ASIL/DAL) as risk-reduction currencies
  • Random vs systematic failure treatment
  • Lifecycle and management of functional safety incl. competence

Key concepts: Functional Safety Foundations

Functional safety management
Planning, competence, documentation and assessment wrapped around technical work.
Random vs systematic
Hardware wear-out/chance failures quantified statistically versus design/process errors controlled by rigor.
Risk reduction allocation
Distributing required risk reduction among mechanical design, safeguards, control functions and procedures.
Safe state
The defined condition a function drives the equipment to on demand or fault.

Frequently asked questions: Functional Safety Foundations

Why can't testing alone prove safety?

Rare-event targets (like 1e-7/h) are unverifiable by test duration, and systematic errors evade random testing — hence the standards' dual machinery of quantified hardware analysis plus process rigor and independent assessment.

Standard information based on the published text of Functional Safety Foundations. Event content is provided by the host. For authoritative guidance, consult the official standard body.