Certified Safety Engineer (CSE)

Upon completing the Certified Safety Engineer (CSE) program, participants will be able to:

• Apply system safety engineering principles to identify, evaluate, and control hazards through design rather than relying solely on administrative controls and PPE.
• Design inherently safer systems using the hierarchy: elimination, substitution, engineering controls, administrative controls, and PPE — with engineering solutions prioritised over procedural solutions in every analysis.
• Conduct quantitative risk assessments using engineering methodologies: fault tree analysis, event tree analysis, failure modes and effects analysis (FMEA), bow-tie analysis, and semi-quantitative risk matrices to quantify risk and inform design decisions.
• Evaluate and design machine guarding solutions per OSHA 29 CFR 1910.212 and ANSI B11 series standards: barrier guards, interlocked guards, presence-sensing devices (light curtains, area scanners, safety mats), and two-hand controls for point-of-operation protection.
• Apply fire protection engineering principles: fire dynamics, detection system design (NFPA 72), suppression system design (NFPA 13), hazardous area classification (NFPA 70/IEC 60079), and the engineering analysis that determines fire protection system requirements for industrial facilities.
• Evaluate electrical safety from an engineering perspective: arc flash hazard analysis, approach boundaries, overcurrent protection coordination, grounding system design, and the NFPA 70E engineering controls that prevent electrical injuries.
• Design engineering controls for chemical and physical hazard mitigation: local exhaust ventilation, process enclosure, noise isolation, vibration damping, and the engineering solutions that reduce exposures below occupational exposure limits.
• Apply ergonomic engineering principles: workstation design, tool design, material handling system design, and the anthropometric and biomechanical analysis that eliminates musculoskeletal disorder risk factors through design.
• Integrate safety engineering into the project lifecycle: concept safety reviews, design hazard analysis, pre-startup safety reviews, management of change from an engineering perspective, and decommissioning safety planning.
• Evaluate reliability and maintainability of safety-critical systems: redundancy design, failure probability analysis, and the engineering assessment that ensures safety systems perform when demanded.

Core Modules

• System Safety Engineering Principles: systematic identification and control of hazards through design, system safety analysis techniques, and the engineering mindset that designs out hazards rather than managing them
• Inherently Safer Design: elimination, minimisation, substitution, moderation, simplification — the design philosophy that prevents hazards from existing in the first place
• Quantitative Risk Assessment for Engineers: FTA, ETA, FMEA, bow-tie, risk matrices, consequence analysis, frequency estimation, and the quantitative methods that engineers use to evaluate and compare design options
• Machine Guarding and Equipment Safety Engineering: OSHA 1910.212, ANSI B11 series, point-of-operation analysis, guard design, interlocking, presence-sensing devices, robot safety (ANSI/RIA R15.06), and machine risk assessment per ANSI B11.0
• Fire Protection Engineering: fire dynamics, NFPA 72 detection, NFPA 13 suppression, hazardous area classification (NFPA 70/IEC 60079), and fire protection system engineering analysis
• Electrical Safety Engineering: NFPA 70E arc flash analysis, approach boundaries, overcurrent protection, coordination studies, grounding systems, and electrical PPE categories
• Engineering Controls for Chemical and Physical Hazards: ventilation design (LEV, dilution), enclosure, isolation, noise control, vibration control, and exposure reduction through engineering design
• Ergonomic Engineering and Human Factors: workstation design, tool design, material handling systems, anthropometrics, biomechanics, and design-level MSD prevention
• Safety Engineering in the Project Lifecycle: concept safety reviews, design-phase hazard analysis, PSSR, management of change, and decommissioning integration
• Reliability Engineering Awareness: redundancy, failure probability, safety integrity levels, and reliability analysis for safety-critical systems

• Mechanical, electrical, chemical, civil, and industrial engineers transitioning into safety engineering roles or adding safety engineering competency to their engineering practice
• Safety professionals with engineering backgrounds seeking a certification that validates their engineering approach to safety
• Design engineers who need to integrate safety into product, process, and facility design from the concept stage
• Machine safety engineers and equipment safety specialists who assess and design machine guarding solutions
• Fire protection engineers and electrical safety engineers seeking a broad safety engineering credential
• Process safety engineers who apply inherently safer design and quantitative risk assessment to process facilities
• Reliability engineers who need to understand how safety engineering integrates with reliability and maintainability analysis
• Professionals preparing for or complementing the International Diploma in Safety, Risk and Reliability Engineering (DIP-1007)

Prerequisite: An engineering or technical background is strongly recommended. The CSE develops engineering-level analytical competency and assumes familiarity with engineering principles, technical drawings, and quantitative analysis. No formal engineering degree is required.

• An engineering or technical background is strongly recommended
• Familiarity with engineering principles, technical drawings, and quantitative analysis strengthens performance
• No formal engineering degree is required
• All instruction in English; professional proficiency required

Upon completion, graduates receive an American Institute of Safety Professionals certificate, wallet card, and transcript. Employer-verifiable at amiosp.com/student-verifications.

• CSSP: Supervisor (enforcement)
• CSHT: Trainer (education)
• CSS: Specialist (technical analysis)
• CSE: Safety Engineer — YOU ARE HERE (engineering design)
• CHSO: Officer (operations)
• CHSM: Manager (programme leadership)

• CSE certification → DIP-1007: International Diploma in Safety, Risk and Reliability Engineering (480 hours, 60 credits — includes FEM, ML, structural dynamics, earthquake engineering)

Participants receive online training delivered through leading delivery platforms and the institute's Learning Management System (LMS). Training is provided directly by American Institute of Safety Professionals as well as through its network of Accredited Training Providers (ATPs), all backed by expert instruction and official study materials. Assessments are conducted online, and successful participants are awarded internationally recognized certificates.

To suit individual needs and schedules, participants can access training through the student dashboard and choose from a range of flexible delivery options, including blended learning, e-learning, remote and distance learning, and face-to-face instruction.