| Date | Venue | Fees | |
|---|---|---|---|
| 31 Aug - 04 Sep 2026 | London - UK | $ 5,950 | |
| 09 - 13 Nov 2026 | Nairobi - Kenya | $ 5,950 | |
| 14 - 18 Dec 2026 | Dubai - UAE | $ 5,950 | |
| 30 Aug - 03 Sep 2027 | London - UK | $ 5,950 | |
| 08 - 12 Nov 2027 | Nairobi - Kenya | $ 5,950 | |
| 13 - 17 Dec 2027 | Dubai - UAE | $ 5,950 |
Introduction
Organisations operating in high-hazard, asset-intensive, and safety-critical environments face a common challenge: the gap between having risk, reliability, and safety management frameworks in place and having the advanced technical capability to apply them with precision, rigour, and genuine analytical depth. As systems become more complex, regulatory expectations more demanding, and the consequences of failure more severe, the need for professionals who can move beyond foundational frameworks to master advanced techniques has never been greater.
This Advanced Risk, Reliability & Safety Management Techniques training course is designed for experienced professionals who are ready to move to the next level. Building on a foundation of risk and safety management knowledge, the training course provides delegates with the advanced quantitative and qualitative techniques, analytical tools, and systematic methodologies used by leading organisations across the energy, manufacturing, process, infrastructure, and defence sectors to assess, manage, and control risk at the highest level of technical sophistication.
This GLOMACS training course will highlight:
- Advanced quantitative risk assessment (QRA) techniques, including fault tree analysis, event tree analysis, and consequence modelling
- The application of Layers of Protection Analysis (LOPA) and Safety Integrity Level (SIL) determination in safety-critical system design
- Advanced reliability engineering methods, including Weibull analysis, reliability block diagrams (RBD), and RAM modelling
- Human factors engineering and human reliability analysis (HRA) in complex operational environments
- Risk-informed decision-making, risk-based inspection (RBI), and risk-based maintenance (RBM) strategies
- Process safety management (PSM) systems, safety case development, and major accident hazard (MAH) prevention at an advanced level
- How to integrate advanced risk and reliability techniques into organisational governance and strategic decision-making
Objectives
By the end of this Advanced Risk, Reliability & Safety Management Techniques training course, participants will be able to:
- Apply advanced quantitative risk assessment (QRA) methodologies, including fault tree analysis (FTA), event tree analysis (ETA), and consequence modelling
- Conduct Layers of Protection Analysis (LOPA) and determine Safety Integrity Levels (SIL) for safety instrumented systems (SIS)
- Apply advanced reliability engineering techniques including Weibull analysis, RAM modelling, and reliability block diagrams (RBD)
- Perform human reliability analysis (HRA) and incorporate human factors engineering into risk and safety management systems
- Develop and implement risk-based inspection (RBI) and risk-based maintenance (RBM) programmes for asset-intensive environments
- Lead process safety management (PSM) programmes and develop safety cases aligned with major accident hazard prevention requirements
- Integrate advanced risk and reliability analytical outputs into organisational governance, capital investment, and strategic decision-making
- Apply internationally recognised standards including IEC 61508, IEC 61511, API 580/581, ISO 31000, and ISO 55000 at an advanced level
Training Methodology
Participants to this Advanced Risk, Reliability & Safety Management Techniques training course will receive thorough and technically rigorous instruction delivered by an expert practitioner with extensive hands-on experience across high-hazard and safety-critical industrial environments. The training course Tutor will utilise a variety of proven advanced adult learning teaching and facilitation techniques to ensure maximum understanding, comprehension, and retention of the information presented.
This training course is highly interactive and technically demanding, combining structured instruction with applied analytical exercises, cross-sector case studies, and team-based problem-solving activities. Facilitation methods include:
- Expert-led instruction grounded in internationally recognised standards and real-world advanced practice
- Quantitative risk assessment workshops including fault tree and event tree construction and analysis
- LOPA and SIL determination exercises using realistic safety-critical system scenarios
- Weibull analysis and reliability block diagram modelling workshops
- Case studies drawn from major process safety incidents and their investigation findings
- Human reliability analysis (HRA) scenario exercises incorporating human factors engineering principles
- Group-based risk-informed decision-making and risk ranking exercises
- Personal action planning to support the application of advanced techniques within delegates' own organisations
Organisational Impact
In sending delegates to this Advanced Risk, Reliability & Safety Management Techniques training course, organisations will gain the following benefits:
- A measurably improved capability to conduct advanced quantitative risk assessments and present findings to senior decision-makers and regulators
- Stronger safety case documentation, LOPA studies, and SIL determination processes that meet international standards requirements
- Enhanced reliability and asset integrity programmes through the application of advanced RAM modelling and risk-based inspection strategies
- Reduced frequency and severity of major accident events through improved process safety management and major hazard control
- A more systematic and defensible approach to risk-informed maintenance, capital investment, and operational decision-making
- Improved regulatory compliance and audit readiness across IEC 61508, IEC 61511, API 580/581, and ISO 55000 requirements
- A stronger internal community of advanced risk and reliability practitioners capable of driving sustained safety performance improvement
Personal Impact
Delegates attending this Advanced Risk, Reliability & Safety Management Techniques training course will develop their personal knowledge and professional capability in the following areas:
- Mastery of advanced quantitative risk assessment techniques including FTA, ETA, consequence modelling, and QRA report preparation
- Competence in LOPA methodology and SIL determination for safety instrumented systems in accordance with IEC 61508 and IEC 61511
- Advanced reliability engineering skills including Weibull analysis, RAM modelling, and reliability block diagram construction
- Ability to conduct human reliability analysis (HRA) and integrate human factors engineering into safety and risk management systems
- Practical skills in risk-based inspection (RBI) programme development aligned with API 580/581 methodology
- Confidence to lead process safety management programmes, develop safety cases, and manage major accident hazard prevention
- The analytical capability to translate advanced risk and reliability outputs into strategic and operational recommendations that influence senior decision-making
- A personal development plan for continuing to build advanced risk and safety management expertise within their professional role
Who should Attend?
This GLOMACS training course is designed for experienced professionals with an existing foundation in risk, safety, or reliability management who wish to develop advanced technical capability. It is suitable to a wide range of professionals but will greatly benefit:
- Senior HSE & Process Safety Engineers
- Reliability & Asset Integrity Engineers
- Risk Engineers & Quantitative Risk Analysts
- Safety Instrumented System (SIS) Engineers
- Plant & Operations Managers in High-Hazard Environments
- Maintenance & Inspection Engineers
- Technical Safety & Loss Prevention Managers
- Regulatory Affairs & Compliance Professionals
Advanced Quantitative Risk Assessment (QRA) Techniques
- Review of risk fundamentals: moving from qualitative to quantitative risk assessment
- Fault Tree Analysis (FTA): construction, logic gates, minimal cut sets, and probabilistic evaluation
- Event Tree Analysis (ETA): initiating events, branch probabilities, and consequence pathways
- Consequence modelling: fire, explosion, and toxic dispersion modelling principles and applications
- Risk integration: combining FTA and ETA in quantitative risk assessment (QRA) studies
- Individual and societal risk criteria: F-N curves, risk contours, and ALARP demonstration
- Workshop: constructing and evaluating a quantitative risk assessment for a process scenario
Functional Safety: LOPA, SIL Determination & Safety Instrumented Systems
- Introduction to functional safety: IEC 61508 and IEC 61511 framework and requirements
- Layers of Protection Analysis (LOPA): methodology, independent protection layers (IPLs), and initiating event frequencies
- Safety Integrity Level (SIL) determination: risk graph, LOPA, and risk matrix methods
- Safety Instrumented System (SIS) design: SIL verification, architectural constraints, and proof test intervals
- Safety requirements specification (SRS) and functional safety management
- Common cause failures, systematic failures, and their treatment in functional safety assessments
- Workshop: LOPA study and SIL determination for a safety-critical control system scenario
Advanced Reliability Engineering: Weibull Analysis, RBD & RAM Modelling
- Weibull analysis: probability distribution, shape and scale parameters, and failure rate characterisation
- Failure data collection, analysis, and the application of Weibull to maintenance optimisation
- Reliability Block Diagrams (RBD): series, parallel, and complex system configurations
- RAM (Reliability, Availability, Maintainability) modelling: principles, inputs, and output interpretation
- Risk-Based Inspection (RBI): API 580/581 methodology, degradation mechanisms, and inspection planning
- Risk-Based Maintenance (RBM): integrating reliability data into maintenance strategy optimisation
- Workshop: Weibull analysis and RAM modelling exercise using representative equipment failure data
Human Reliability Analysis & Human Factors Engineering
- Human factors in major accident causation: lessons from process safety incidents
- Human error taxonomy: slips, lapses, mistakes, and violations in operational contexts
- Human Reliability Analysis (HRA) methodologies: THERP, HEART, and ATHEANA
- Task analysis: hierarchical task analysis (HTA) and its application in HRA
- Human factors engineering in system design: controls, displays, alarms, and procedures
- Organisational and management factors: safety culture, workload, fatigue, and team dynamics
- Workshop: human reliability analysis exercise applied to a high-consequence operational task
Process Safety Management, Safety Cases & Advanced Integration
- Process Safety Management (PSM) systems: US OSHA PSM 1910.119 and EU Seveso III Directive requirements
- Safety case development: purpose, structure, content requirements, and regulatory submission
- Major Accident Hazard (MAH) identification, assessment, and bow-tie development at an advanced level
- Management of change (MOC) in safety-critical systems: process, risk assessment, and authorisation
- Integrating QRA, LOPA, RBI, and HRA outputs into organisational risk governance and decision-making
- Advanced safety performance measurement: leading indicators, safety case updates, and continuous assurance
- Personal action planning: applying advanced techniques and sustaining capability development within your organisation
- Upon successful completion of this training course, GLOMACS Certificate will be awarded to the delegates. Continuing Professional Education credits (CPE): In accordance with the standards of the National Registry of CPE Sponsors, one CPE credit is granted per 50 minutes of attendance
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