ADEPP Workshops
ADEPP courses can be available as "Seminars", "on the job workshops", "distant training" and "e-Learning". Please select the syllabuses which are your priorities on the "ADEPP CTR-Template" in attached file and we will organise the requested workshops and training programs as soon as possible. Our courses are in English. They can be presented translated to your local language upon request.
The syllabus of ADEPP Training programs are found in the attached file. Each course can be provided for the proficiency levels of awareness, knowledge, skill and mastery. The generic ADEPP courses can be customised for Offshore, Onshore, Chemical and Petrochemical, Refineries and Pipelines applications upon request. ADEPP group has signed the MOU on research and training activities with Sharif University of Technology and Isfahan firefighting organisation.
Therefore, we are also capable to organise the practical firefighting training programs in collaboration with Isfahan Firefighting organisation and provide the joint course with Sharif University. The joint certificate with Sharif University is possible at 30% extra cost. This cost includes the course and exams reviews.
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Proficiency Level:
Awareness Knowledge Skill Mastery Training Request
ADEPP Training website is designed considering the scientific facts about learning and forgetting curves. Research on the forgetting curve shows is that:
Time after training | Trainees will have forgotten. |
After 1 hour | Approximately 50% of the information your course has delivered. |
After 24 hours | Around 70% of new information. |
Within 1 week | On average 90% of it. |
Fig-1: Typical learning and forgetting curves
From: Human focus
The learning becomes far more durable with much better long-term retention. What this shows is that:
Repetition is good, but, that spaced repetition is even better!
- Longer spacing intervals tend to be better than shorter ones – spacing should be a minimum of one-day intervals. There seems to be little benefit in repetitions at shorter intervals than this.
- Spacing may not produce an effect unless there are more than two or three repetitions.
Training is not a one-off event – it's a continuous process.
Understanding & Implementation of the Process Safety Management
- 114
- 15 July 2015
- Dr. Fabienne Salimi
Target Trainee:
This program is well suited to Process safety Engineers, Plant managers, Safety supervisors, Process Engineers, Safety Engineers and discipline Engineers.
Description:
The objective of this course is to explain the elements of the process safety management based on OSHA, CCPS or EI models. The following subjects will be discussed:
- Major Accident Hazards
- 20 Elements of Process Safety
- Evolution of Process Safety Management System
- Challenges in Implementation of Process Safety
- Application of ADEPP Monitor for Implementation of an Effective PSM
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Skills:
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Course Duration:
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Client:
Safety Case for the Hazardous Projects
- 114
- 15 July 2015
- Dr. Fabienne Salimi
Target Trainee:
This program is well suited to Process safety Engineers, Plant managers, Safety supervisors, Process Engineers, Safety Engineers and discipline Engineers.
Description:
The objective of this course is to give a practical understanding of the methodologies that may be used to develop HSE case for hazardous project. Attendance of consequence analysis course is recommended. The following subjects will be discussed:
- Methodology of QRA
- Failure Case Definition
- Consequence Assessment
- Frequency Analysis
- Risk Calculation
- ALARP Demonstration
- Identification of Safety Critical Systems
- Application of ADEPP Monitor for Traceability and Audibility of Safety Critical Elements
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Skills:
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Course Duration:
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Client:
Application of the Bow-Tie Methodology in HAZID
- 114
- 15 September 2015
- Dr. Fabienne Salimi
Target Trainee:
Plant managers, Safety supervisors, Process Engineers, Instrument engineers, Safety engineers and discipline engineers.
Description:
Objective of this course is to train the attendees to identify the hazards, threats, incident and accident consequences, preventive and mitigation with a systematic manner. Attendance of consequence analysis course is recommended. The following subjects will be covered:
- Basic definitions; including risk, incident, accident, consequence, frequency, preventive and mitigation measures
- Introduction to ISO 17776 checklist as the hazard identification guideline
- HAZID brainstorming sessions with Qualitative Bow-Tie; Method, Key Words, and Woksheets
- Risk Ranking and Screening
- Action tracking and follow up with ADEPP Monitor
- Introduction to Quantitative Bow-Tie for ALARP Demonstration
- Case Study for a F & E Scenario
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Skills:
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Course Duration:
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Client:
HAZOP Methodology & Case Study
- 114
- 15 October 2015
- Dr. Fabienne Salimi
Target Trainee:
Plant managers, Safety supervisors, Process Engineers, Instrument engineers, Safety engineers and discipline engineers.
Description:
The objective of this course is to train the HAZOP chairmen and attendees to think and assess in a systematic manner the hazards associated to the operation. The following subjects will be covered:
- How to apply the API 14C for those process hazard with potential of the Major Accident
- How to Apply IEC61511 to assess the Hazards Associated to Failure on Demand and Spurious Trips
- How to apply dynamic simulation to assess the consequence of the:
- Process Deviation
- Failure on demand and Spurious Function of the Safety System
- Alarm Function and Operator Intervention
- F & G Scenarios
- How to record the worksheets efficiently to cover all phases
- How to apply Acrobat writer to document HAZOP in a user-friendly manner
- How to Apply ADEPP Monitor for Action Tracking & Follow Up
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Skills:
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Course Duration:
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Client:
Fundamental of Process Safeguarding
- 114
- 15 June 2015
- Dr. Fabienne Salimi
Target Trainee:
Plant managers, Safety supervisors, Process Engineers, Instrument engineers, Safety engineers and discipline engineers.
Description:
The objective of this course is to understand the process hazards and process safety barriers. The following subjects will be discussed:
- How to find the information about the Hazardous material; CAMEO a useful tool for the Material Safety Data Sheet (MSDS)
- How to choose the best process hazard identification method; HAZOP, FMCEA, What if?
- Inherently safe design
- Layer protection and SIL assessment concept
- Primary & Secondary protection for the Major accident scenarios; application of API 14C and SAFE chart
- Typical PSD and ESD cause & effect
- Pressure Relief & Blowdown requirements; API 521 and IP Guidelines for Jet fire scenarios
- Process Safeguarding Memorandum
- Case studies
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Skills:
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Course Duration:
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Client:
SIL Assessment Methodology & Case Study
- 114
- 15 July 2015
- Dr. Fabienne Salimi
Target Trainee:
Plant managers, Safety supervisors, Process Engineers, Instrument engineers, Safety engineers and discipline engineers.
Description:
The objective of this course is to train the SIL chairmen and attendees to think and assess in a systematic manner the required SIL assessment and verification according to IEC61508 and IEC61511. Attendance of HAZOP course is recommended. The following subjects will be covered:
- Basic definitions; tolerable risk, probability of failure on demand, layer protection, safety integrity, etc
- Qualitative SIL assessment with which using the risk graphs and calibration tables during the brainstorming sessions the required SIL is assigned to the safety systems
- Quantitative SIL assessment using combination of Event tree and Fault tree analysis
- SIL verification; practical options to achieve the required SIL
- Case studies
- Application of ADEPP Monitor for Action Tracking and Follow Up
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Skills:
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Course Duration:
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Client:
Fire, Explosion and Toxic Release Consequence Modelling & Design
- 114
- 15 July 2015
- Dr. Fabienne Salimi
Target Trainee:
This program is well suited to Process and/or Safety Engineers.
Description:
The objective of this course is to understand how the consequence modelling of Fire, Explosion and Toxic release is used in the design of the safety and process safety systems. The following subjects will be discussed:
- Fundamental of Fire, Explosion and Toxic Release Consequence Modelling
- Governing Scenarios; Consequence Analysis Criteria
- Gas dispersion & Hazardous Area Classification
- Fire Zones
- Basis to Determine the Restricted Areas
- Basis to Determine the Passive Fire Protection Zones
- Basis to Determine the Active Fire Protection Zones
- Blast Zones
- Basis to Determine the Blast Protection Zones
- Thermal & Blast effect on Equipment
- Thermal & Blast effect on People
- Safety Barrier Management; Optimisation Between the Preventive and Mitigation Measures
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Skills:
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Course Duration:
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Client:
Fundamental of the Risk Assessment & Case Study
- 114
- 15 September 2015
- Frederic Salimi
Target Trainee:
Plant managers, Safety Supervisors, Process Engineers, Safety Engineers and Engineers.
Description:
The objective of this course is to give a practical understanding of the methodologies that may be used to identify, quantify and evaluate the risks of their operations involving hazardous materials and processes. Attendance of HAZOP course is recommended. The following subjects will be discussed:
- Why QRA?
- Methodology of QRA
- Failure Case Definition
- Consequence Assessment
- Frequency Analysis
- Risk Calculation
- Risk Analysis
- ALARP Justification
- Risk Based Design
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Skills:
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Course Duration:
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Client:
Identification of Safety Critical Elements for the Hazardous Projects
- 114
- 15 October 2015
- Frederic Salimi
Target Trainee:
This program is well suited to Process safety Engineers, Plant managers, Safety supervisors, Process Engineers, Safety Engineers and discipline Engineers.
Description:
The objective of this course is to give a practical understanding of the methodologies that may be used to identify Safety Critical Systems, Subsystem and Elements. The following subjects will be discussed:
- Major Accident Hazard; definition, examples, compliance with regulations such as SEVESOII (COMAH) and PFEER.
- Qualitative method for determination of the SCE including:- Brainstorming session methodology and example- Safety Criticality Criteria- Required supporting documents and evidences- Action tracking, follow up- ADEPP monitor application ensure to traceability & audibility.
- Quantitative method for determination of the SCE including: Risk models; how QRA should be simplified for to be used for determination of the SCEs, Safety Criticality Criteria, Safety Criticality test for failure on demand and time of test/repair, ADEPP HSE Toolkit application, Combined Event tree, Fault tree Analysis.
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Skills:
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Course Duration:
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Client:
Development of the Performance Standards for the Hazardous Projects
- 114
- 15 October 2015
- Frederic Salimi
Target Trainee:
This program is well suited to Process Safety Engineers, Plant Managers, Safety Supervisors, Process Engineers, Safety Engineers and discipline Engineers.
Description:
The objective of this course is to give a practical understanding of the methodologies that may be used to develop performance standards for Safety Critical Systems, Subsystem and Elements. Attendance of safety Critical Elements identification course is recommended. The following subjects will be discussed:
- Methodology of identification of Safety Critical Elements (SCE)
- Compliance with Regulation such as SEVESOII (COMAH) and PFEER
- Scope and Boundaries of the Performance Standards
- Definition of functionality for SCEs
- Definition of Reliability/ Availability for SCEs
- Definition of Survivability
- Definition of SCEs Interactions
- Assurance & Verification Scheme
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Skills:
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Course Duration:
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Client:
Applications of Dynamic Simulation in Process Safety Design
- 114
- 15 October 2015
- Dr. Fabienne Salimi
Target Trainee:
Plant Managers, Safety Supervisors, Process Engineers, Instrument Engineers, Safety Engineers and Discipline Engineers.
Description:
The objective of this course is to understand the how dynamic simulation help to identify the process hazards, measure the extent and duration of the consequences and the effect and efficiency of the safety barriers. With dynamic simulation could be optimised with greater accuracy. This save a significant effort, time and cost for the project. The following subjects will be discussed:
- What is dynamic simulation?
- Application of dynamic simulation in:
- HAZOP & SIL assessment
- Alarm Management
- Fire & Explosion Study
- When Dynamic Simulation should be used?
- DynamicSimulation Tools
- Workshop & Case Studies
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Skills:
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Course Duration:
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Client:
Simultaneous Operation (SIMOP)
- 114
- 15 July 2015
- Frederic Salimi
Target Trainee:
Plant managers, Safety supervisors, Process Engineers, Safety engineers and engineers.
Description:
The objective of this course is to give a practical understanding of the methodologies that may be used to identify, quantify, and evaluate the risks of SIMOP. The following subjects will be discussed:
- SIMOP Methodology
- Consequence Assessment
- Frequency Analysis
- Risk Calculation
- Risk Analysis
- SIMOP Work Permit
- SIMOP Records and Action Tracking by ADEPP Monitor
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Skills:
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Course Duration:
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Client:
ADEPP Workshop List
Our workshop list contains most of the courses and workshop we offer for your industry. Please click on each topic to view a detailed list. If you do not see the course or workshop you are interested in taking close this window and use the Training Request link to sumbit your request.
Proficiency Level | Awareness | Knowledge | Skill | Mastery | |||||||||
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Training Program WS: Workshop DT: Distant Training EC: e-Course UC: Under Construction | WS | DT | EC | WS | DT | EC | WS | DT | EC | WS | DT | EC | |
E1 | Leadership, commitment and responsibility | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E2 | Identification and compliance with legislation and industry standards | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E3 | Employee selection, placement and competency, and health assurance | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E4 | Workforce involvement | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E5 | Communication with stakeholders | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E6 | Hazard identification and risk assessment | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E7 | Documentation, records and knowledge management | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E8 | Operating manuals and procedures | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E9 | Process and operational status monitoring, and handover | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E10 | Management of operational interfaces | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E11 | Standards and practices | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E12 | Management of change and project management | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E13 | Operational readiness and process start-up | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E14 | Emergency preparedness | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E15 | Inspection and maintenance | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E16 | Management of safety critical devices | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E17 | Work control, permit to work and task risk management | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E18 | Contractor and supplier, selection and management | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E19 | Incident reporting and investigation | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
E20 | Audit, assurance, management review and intervention | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
Proficiency Level | Awareness | Knowledge | Skill | Mastery | |||||||||
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Training Program WS: Workshop DT: Distant Training EC: e-Course UC: Under Construction | WS | DT | EC | WS | DT | EC | WS | DT | EC | WS | DT | EC | |
MS1 | Operating Management System | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS2 | Quality Management System | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS3 | Environmental Management System | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS4 | Occupational Health & Safety Management System | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS5 | Asset Integrity Management System | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS6 | Competency Management System | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7 | Aging Plant Management & Life Extension | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.1 | Aging Plant issues | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.1.1 | Corrosion | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.1.2 | Erosion | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.1.3 | Obsolescence | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.1.4 | Structure | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.2 | Aging plant detections | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.2.1 | Audit | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.2.2 | Safety study | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.2.3 | Gap analysis | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.2.4 | Financial analysis | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.3 | Aging Plant management | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.3.1 | Awareness of the aging | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.3.2 | Getting organized for managing | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.3.3 | Identifying the aging | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.3.4 | Addressing the aging | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.4 | Asset Integrity | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.4.1 | E&I | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.4.2 | Fire and explosion | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.4.3 | Human and organization factors | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.4.4 | Mechanical integrity | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.4.5 | Process integrity | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.4.6 | Structural integrity | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.5 | Life Extension | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.5.1 | Risk base inspection | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.5.2 | E&I systems replacement | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.5.3 | Rotary machinery system | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
MS7.5.4 | Continues development | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
Proficiency Level | Awareness | Knowledge | Skill | Mastery | |||||||||
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Training Program WS: Workshop DT: Distant Training EC: e-Course UC: Under Construction | WS | DT | EC | WS | DT | EC | WS | DT | EC | WS | DT | EC | |
H1 | HAZID (Hazard Identification) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H2 | HAZOP (Hazard & Operability) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H3 | LOPA (Layer of Protection Analysis) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H4 | Alarm management | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H5 | SIL Assessment (Safety Integrity Level) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H6 | SIL Verification | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H7 | RAM Studies | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H8 | FERA (Fire & Explosion Risk Analysis) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H9 | QRA (Quantitative Risk Analysis) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H10 | EIA (Environmental Impact Assessment) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H11 | EER Analysis | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H12 | Bow-Tie Analysis | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
H13 | SAFOP (Safe Operation) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
Proficiency Level | Awareness | Knowledge | Skill | Mastery | |||||||||
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Training Program WS: Workshop DT: Distant Training EC: e-Course UC: Under Construction | WS | DT | EC | WS | DT | EC | WS | DT | EC | WS | DT | EC | |
SCE1 | Determination of Safety Critical Elements | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
SCE2 | Determination of Safety Critical Tasks | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
SCE3 | Design Performance Standards | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
SCE4 | Operating Performance Standards | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
SCE5 | Verification Schemes | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
SCE6 | Determination of the KPIs (Key Performance Indicators) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
Proficiency Level | Awareness | Knowledge | Skill | Mastery | |||||||||
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Training Program WS: Workshop DT: Distant Training EC: e-Course UC: Under Construction | WS | DT | EC | WS | DT | EC | WS | DT | EC | WS | DT | EC | |
HSE1 | Inherently Safer Design | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
HSE2 | Layout & Safety Distances | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
HSE3 | Structural Integrity | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
HSE4 | Process Containment | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
HSE5 | Ignition Control | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
HSE6 | Process Safeguarding | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
HSE7 | F&G Detection System | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
HSE8 | Emergency Shutdown and Emergency Depressurisation Systems | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
HSE9 | Active & Passive Fire Protection | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
HSE10 | Escape, Evacuation and Rescue | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
Proficiency Level | Awareness | Knowledge | Skill | Mastery | |||||||||
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Training Program WS: Workshop DT: Distant Training EC: e-Course UC: Under Construction | WS | DT | EC | WS | DT | EC | WS | DT | EC | WS | DT | EC | |
ST1 | Process Steady state simulation & optimisation | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST2 | Dynamic Simulation & OTS | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST3 | 3D modelling & simulation | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST4 | PLM Concept and Applications | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
Proficiency Level | Awareness | Knowledge | Skill | Mastery | |||||||||
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Training Program WS: Workshop DT: Distant Training EC: e-Course UC: Under Construction | WS | DT | EC | WS | DT | EC | WS | DT | EC | WS | DT | EC | |
IC1 | ATEX Compliance | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC1.1 | Hazardous Area Classification in Compliance with EI 15 | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC1.2 | Hazardous area classification (Zoning) IEC 60079 | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC1.3 | Site survey and improvement suggestion in base of ATEX 95/135 | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC1.4 | Instrument and valve selection due to ATEX recommendations | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC1.5 | Wiring diagram/ Junction boxes and grounding (Earthing) survey | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC1.6 | Intrinsically Safe (IS) loop calculation | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC1.7 | Equipment Notified Body certification check | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC2 | Compressor/Turbine Control and safety system (Brown Field) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC2.1 | Investigate the existing control and safety system | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC2.2 | HAZOP/SIL study | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC2.3 | Define the Control and Safety System Requirements (Such as but not limited to) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.1 | Sequence Control | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.2 | Load Sharing | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.3 | Anti-Surge Control | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.4 | High Speed Protection | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC2.4 | Instrument and Valve Selection | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC2.5 | Control and Safety System Selection | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC2.6 | Instrumentation and control system upgrade | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3 | Security | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.1 | Network and security | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.1.1 | Introduction to computer network | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.1.2 | Network layers (OSI and IP model) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.1.3 | Network Elements (Hub, Switch and Router) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.1.4 | Cyber threat and security | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.2 | Integrated Control and Safety System (ICSS) cyber security | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.2.1 | ICSS architecture | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.2.2 | ICSS layers and applications | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.2.3 | ICSS network cyber threats and security | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.3 | Physical security | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.3.1 | Access Control | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.3.2 | Closed Circuit Television (CCTV) system | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.3.3 | Intrusion detection systems | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC3.3.4 | Personal telecommunication systems | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4 | Oil and Gas Telecommunication Requirements | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.1 | HAZID study for telecommunication and the Telecommunication requirement identification in base of HAZID findings and operation needs | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.2 | Offshore/Vessels specific communication systems requirements | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.2.1 | Global Maritime Distress and Safety System (GMDSS) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.2.2 | Emergency position-indicating radibeacon (EPIRB) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.2.3 | NAVTEX | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.2.4 | Search and Rescue Locating devices | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.2.5 | Digital Selective Calling | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.2.6 | High Frequency | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3 | Drilling communication systems requirements | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.1 | Drill crew communication | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.2 | Alarms | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.1 | Radicoverage for voice/data communication | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.2 | General Telecommunication specification for but not limited the following equipment | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.1 | Public Address and General Alarm (PAGA) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.2 | PABX and telephony systems | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.1 | Personal raditrunk | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.2 | CCTV system | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.3 | VSAT communication | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.4 | Microwave/VHF/UHF communication systems | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.5 | VSAT communication | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.6 | Microwave/VHF/UHF communication systems | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.7 | Wide and Local area networking | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
IC4.3.8 | Fibre optic communication | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
Proficiency Level | Awareness | Knowledge | Skill | Mastery | |||||||||
---|---|---|---|---|---|---|---|---|---|---|---|---|---|
Training Program WS: Workshop DT: Distant Training EC: e-Course UC: Under Construction | WS | DT | EC | WS | DT | EC | WS | DT | EC | WS | DT | EC | |
ST1 | API 14J Recommended Practice for Design and Hazards Analysis for Offshore Production Facilities | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST2 | API 14C - ISO 10418 Analysis, Design, Installation, and Testing of Basic Surface Safety Systems for Offshore Production Platforms | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST3 | EI 15- API 500- API 505 Hazardous Area Classification | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST3.1 | API 520/521 Sizing, Selection, and Installation of Pressure-relieving Devices | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST4 | API 754 -HSG 254 -OGP 456 Measuring Process Safety | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST5 | API 2218 Fireproofing Practices in Petroleum and Petrochemical Processing Plants | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST6 | API RP 2030 Application of Fixed Water Spray Systems for Fire Protection in the Petroleum and Petrochemical Industries, Fourth Edition | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST7 | API 580 Risk-Based Inspection | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST8 | API 581 Risk-Based Inspection Technology | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST9 | API 584 Integrity Operating Windows | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST10 | API 579-1/AMSME FFS-1 Fitness-for-Service | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST11 | IEC61508 Functional Safety of Electrical/Electronic/Programmable Electronic Safety-related Systems (E/E/PE, or E/E/PES) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST12 | IEC61511 Functional safety - Safety instrumented systems for the process industry sector | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST13 | ISO 13702:2015 Petroleum and natural gas industries -- Control and mitigation of fires and explosions on offshore production installations -- Requirements and guidelines | X | X | UC | X | X | UC | X | X | UC | X | X | UC |
ST14 | ISO 17776:2000 Petroleum and natural gas industries - Offshore production installations - Guidelines on tools and techniques (For hazard identification and risk assessment) | X | X | UC | X | X | UC | X | X | UC | X | X | UC |