Safety Support for Developing, Integrating, and Deploying Advanced Robotic Systems

Technical standards and regulatory frameworks drive risk reduction across industrial, humanoid, general-purpose, and other robotic systems. Functional safety remains foundational, complemented by approaches to AI safety and the safety of intended functionality in increasingly autonomous and perception-driven systems. SRES helps robot developers and the organizations integrating and deploying their products establish safety programs grounded in the system’s intended use, operating environment, and interaction with people.

Industrial Automation and Robotics

SecuRESafe (SRES) experts have decades of hands-on experience developing, consulting on, and independently assessing complex, software-dominant safety-critical systems to meet the highest Safety Integrity Levels (SILs) under IEC 61508. Our work spans traditional industrial automation as well as mobile, autonomous delivery, and human-interactive robotic platforms.

As industrial systems evolve beyond fixed, fenced automation, functional safety concepts must be applied to robots operating in shared environments that respond dynamically to human presence. We help teams interpret and apply established functional safety principles in contexts where stability, controlled shutdown, and safe behavior under fault conditions are essential.

What We Deliver

Standards & Regulatory Readiness

  • Identification and application of safety standards, engineering practices, and regulatory requirements relevant to a robotic system and its intended deployment
  • Foundational machinery and robot-safety references, including ISO 12100, ISO 10218, ISO 13849, and IEC 62061
  • Applicable mobile-robotics references, including ISO 3691-4 and the ANSI/A3 R15.08 series
  • Emerging work relevant to dynamically stable robots and functional safety for AI systems, including ISO/CD 25785-1 and the ISO/IEC TS 22440 series
  • Applicable consumer, commercial, and public-facing robot requirements, including ANSI/CAN/UL 3300
  • Alignment with evolving European regulatory frameworks, including the Machinery Directive and Machinery Regulation (EU) 2023/1230

Application Risk Assessment & Deployment Support

  • Definition and review of intended tasks, system boundaries, worksite conditions, safety zones, human interactions, and foreseeable misuse
  • Preliminary hazard analysis and risk assessment addressing autonomous operation, mobility, manipulation, payloads, human access, and surrounding equipment
  • Analysis of AI and autonomy functional insufficiencies, environmental triggering conditions, and additional safeguard needs
  • Development and review of system safety concepts, including safety objectives, architectural assumptions, safety functions, safeguards, and operating constraints
  • Technical reviews, work-product development, and ongoing engineering guidance for equipment safety, production engineering, and site teams

Functional Safety Architecture & Controlled Shutdown

  • Application of functional safety principles to robot architectures, safety functions, safeguards, and transitions following faults or loss of capability
  • Fail-operational and controlled-shutdown behaviors for humanoid and mobile robots, including maintaining balance or avoiding new hazards during a transition to a safe condition
  • Integrated-system hazard consideration across mobility, manipulation, posture, payloads, and energized tools

Safety Cases & Defensible Safety Arguments

  • Safety case development for modern robotic systems and their intended deployment
  • Structured, evidence-based arguments connecting safety objectives, engineering evidence, verification and validation, cybersecurity, and operational controls
  • Credible and defensible safety arguments to support decisions by internal stakeholders, customers, assessors, insurers, and regulators

AI Safety & Scenario-Based Validation

  • Analysis of functional insufficiencies and environmental triggering conditions that can create hazards in AI-enabled robots even when conventional faults are not present
  • Scenario-based verification and validation representative of intended tasks, operating environments, human interactions, and relevant failure conditions
  • Consideration of perception limitations, uncertainty, runtime monitoring, architectural mitigations, and fallback behaviors

Knowledge and Competence

Our consulting experience directly informs the professional training we deliver. Our Physical AI training offerings include IEC 61508 Functional Safety Training, ISO/IEC TS 22440 Functional Safety and AI Systems Training, IEC 61508 Software Development Training, EU Cyber Resilience Act Training, and Responsible AI Training covering ISO/IEC 42001 and EN 18286 in the context of EU AI Act requirements.

In addition to public training programs, we offer private and customized training for robot developers, equipment safety teams, production engineers, and site personnel. Instructor-led sessions combine tailored content and discussion focused on the organization’s technologies, operating environments, and specific development or deployment challenges.

Get Started

This field is for validation purposes and should be left unchanged.

Innovate and solve problems with us

Let us know about your project and our team will be in contact

Related content

Need our help?

We’re here to provide the guidance and support you need to navigate the complexities of engineering with responsibility and safety at the forefront.

E-mail Us

info@sres.ai

SEND US A MESSAGE

How Can We Help You?

This field is for validation purposes and should be left unchanged.