FS Engineer (TÜV Rheinland) PH&RA - Course info
TÜV Rheinland Functional Safety Engineer Process Hazard and Risk Analysis Training (5 days)
This 5 day FS Engineer (TÜV Rheinland) PH&RA course is run in accordance with the TÜV Rheinland Functional Safety Program and comprises four days of classroom tuition and practical guidance. This aim of the course is to understand and master the application of process hazard analysis and associated risk assessment, as required for the early lifecycle phases of IEC 61508 / IEC 61511. There is a five hour competency assessment on the fifth day. Practical exercises will performed throughout the course which will be based on real life examples.
The assessment on the last day is in two parts with:
70 multiple choice questions (1 mark each question)
3 multiple part questions (30 marks spread over 3 questions)
Pass score requirement is 75%
Successful participants, who must also have a minimum of 3 years of experience in the field of process hazard analysis and risk assessment, will achieve the prestigious FS Engineer (TÜV Rheinland) PH&RA certificate.All FS Engineers of the TÜV Rheinland Functional Safety Program are also listed on the TÜV Rheinland website for Functional Safety at www.tuvasi.com
Course Objectives
The topics cover the concepts of identifying hazards using tools such as What-If, Failure Mode and Effect Analysis (FMEA) and HAZard and OPerability (HAZOP). This will be further developed into the analysis of risk and methods of risk reduction to consider the effectiveness of preventative and mitigating layers of protection. The use of preventative safeguarding efficiencies will be introduced for use with the PHA Matrix, along with the advantages/disadvantages of using the PHA Matrix with different Hazard Analysis methods.
The different questioning techniques used by a Hazard study leader to guarantee a systematic study methodology are investigated, as is the HAZOP flow sheet design, by considering the use of the HAZOP for specific needs such as LOPA. A LOPA exercise will actually be carried out from the output of the course HAZOP exercise. Consideration of constructing effective nodes will be examined and better definition will be given to claims of double jeopardy.
In order to compare similar designs which are ‘proven in use’, the course looks at the considerations required when building effective checklists, along with the advantages of combining this method with brainstorming approaches. Constant comparison of the different Hazard Analysis methods is made through highly practical exercises to allow the delegate to appreciate the benefits of the different methods used.
Some process related activities can only be carried out procedurally. When this is the case, Hazard identification methods for procedural activities must be considered. The course will look at the techniques available, and give consideration to which technique should be used with the associated good practice of implementing those techniques.
The course will introduce participants to the use of Safety Integrity Levels (SIL) and SIL determination using internationally agreed methods for assessing and quantifying process risk and risk reduction requirements. Delegates will be equipped with the knowledge and methods for undertaking various types of qualitative, semi quantified and quantitative risk assessments.
Practical exercises will be carried out for Semi Quantitative methods such as risk graph and LOPA. The shortfalls of the quicker methods will be investigated to allow the analyst to appreciate the limitations of screening tools. The most popular semi quantified method, Layer of Protection Analysis (LOPA), will be explored in depth. Practitioners often lose sight of the potential for high demand systems in the process industries, so a special section has been added to allow the delegates to consider when a system might be high demand. An exercise to demonstrate SIL determination for high demand will be carried out.
Delegates will gain an appreciation for the need for Fault Tree Analysis (FTA) given the potential for common cause failure when the consequences of a single top event require the analysis of a highly complex redundant system. Simplified FTA exercises will also be carried out to introduce the engineer to the method in both qualitative and quantitative terms.
The effective use of Event Tree Analysis will be looked at in two different forms (Mitigation ETA and Traditional ETA). HAZOP studies can often generate pages of hazard analysis for a complicated, high hazard process system that can fail in a number of ways generating many different consequences. The course will focus on how ETA can be used to qualitatively support the analyst in mapping out the various consequences given various events with safeguard success or failure. Analysts can then select those events which generate consequences of interest for which FTA may be required.
Delegates will also be taken through the requirements for safety management and the framework of a Safety Management System (SMS) for achieving effective process risk management. Best practice for SMS will be investigated with the use of Bow-ties linking the Hazard and its safeguards to the SMS. An insight into how process safety KPIs can be used to better align engineering and management in the prevention of major accident hazards will be covered. The order in which we consider protecting against hazards will be strongly emphasised throughout the course and a section on Inherent Design will be covered. Various videos will support the course material and the three main aspects of how managers should understand Process Risk will be constantly emphasised. Degraded organisational structure examples will be investigated to demonstrate how this can impair, and then normalise the good judgement of engineers, in such a way that this can potentially increase the probability of a hazardous events occurring. The course will examine real life examples of how organisational structure contributed towards Texas City and Macondo disasters.
Realistic practical exercises and case studies will be used to compliment the instruction.
Who Should Attend?
- Instrument Engineers,
- Process Engineers
- Process Safety Engineers
- Risk, reliability, safety and quality Engineers
- Loss prevention engineers
- Senior Operating and Maintenance personnel who are who are involved in maintaining the integrity of their processes
- Who are involved in any of the lifecycle phases for safety instrumented systems from hazard and risk assessment, shut down system/fire and gas systems design to testing and maintenance)
- Plant and quality Managers
- System Integrators and Consultants
Participant eligibility requirements
In accordance with the TÜV Rheinland Functional Safety Program:
- A minimum of 3 to 5 years of experience in the field of process hazard analysis and risk assessment.
- University degree or equivalent engineering experience and responsibilities as certified by employer or engineering institution.
TÜV Rheinland certified Functional Safety Experts and approved trainers
All training will be undertaken by a FS Expert (TÜV Rheinland) for the acc. application area Safety Instrumented Systems (SIS) who have been approved by TÜV Rheinland to provider their training program.
Training Manuals
Training manuals containing all the presented material and exercise examples will be provided for each student.
Section 1 Agenda
Content:
- Process Safety and Management Systems
- Safety Legislation and Compliance
- IEC 61511 for the Process Industries
- Management of Functional Safety
- Prescriptive and Risk Based Standards
- Inherent Safety
- Process Lifecycle & Introduction to PH&RA Methods
- Safety Instrumented Functions (SIF)
- Process Risk and Risk Judgement
- How organisational Structure can degrade and normalise engineers judgement
- The effect of Group-Think on engineering judgement
Day 2 Agenda
Content:
- Hazard Identification Methods
- HAZard and OPerability (HAZOP) Studies
- What-If Analysis
- Checklist Analysis
- What-If/Checklist Analysis
- HAZOP or What-if of Non-Routine Operating Modes
- Failure Modes and Effect Analysis
Day 3 Agenda
Content:
- Risk Graphs
- Risk Graph Calibration
- LOPA
- Probability of Failure on Demand (PFD)
- Demand Rate
- Event Tree Analysis
- Fault Tree analysis
- Safety Requirement Specifications
- Recording and reporting risk assessment findings.
Day 5 Agenda
- A five (5) hour two part proficiency assessment comprising:
- Part 1 – 70 multiple choice questions (1 mark each question)
Part 2.1 – 15 marks HAZID/SIL Determination question - Part 2.2 – 15 marks HAZOP question
- Pass score requirement is 75%
The last day consists of a five (5) hour two part proficiency assessment comprising:
Part 1 – 70 multiple choice questions (1 mark each question)
Part 2.1 – 15 marks HAZID/SIL Determination question
Part 2.2 – 15 marks HAZOP question
Course Approval Criteria
Pass score is 75%
Please note: Price is in accordance with the FS program minimum pricing policy from TÜV Rheinland and will depend on location, please contact KPC for more information.
Special prices are available for in-house, site and tailor made trainings.
Cost includes:
- Course material
- Registration fees and FS Engineer PH/RA (TÜV Rheinland) certificate (If requirements are fulfilled and the pass mark is achieved.)
- Any required stationary ,Refreshments and Lunch (however the last day (exam day) there is no lunch foreseen as every participants is allowed to leave once he/she completed the exam)