Master Functional Safety: Sis Design And Sil Calculations
Published 7/2025
MP4 | Video: h264, 1920x1080 | Audio: AAC, 44.1 KHz
Language: English | Size: 5.83 GB | Duration: 6h 30m
Published 7/2025
MP4 | Video: h264, 1920x1080 | Audio: AAC, 44.1 KHz
Language: English | Size: 5.83 GB | Duration: 6h 30m
Become an expert in Functional Safety SIL Assessment and SIS design -Prepare CFSE certification with real-world examples
What you'll learn
Master IEC 61508 and IEC 61511 standards - Understand fundamental principles, safety lifecycle implementation, and compliance requirements for SIS
Master SIS system architectures and configurations
Understand 1oo1, 1oo2, 2oo2, and 2oo3 configurations and select the optimal architecture for specific safety requirements and SIL targets
Perform accurate SIL calculations and assessments - Calculate SIL levels using quantitative methods, PFDavg calculations, and system architecture
Design robust Safety Instrumented System - Apply system architectures, understand common cause factors, hardware fault tolerance, and safe failure fractions
Implement comprehensive protection strategies - Master the 10-layer protection model from BPCS to emergency response including prevention and mitigation layers
Apply valve testing strategies in SIS - Understand Partial Stroke Testing (PST) and Full Stroke Testing (FST) effects on system performance and SIL achievement
Prepare for CFSE certification - Gain the advanced knowledge and practical skills for the prestigious Certified Functional Safety Engineer certification
Requirements
Basic engineering background - Undergraduate degree in engineering (chemical, electrical, mechanical, or related field) or equivalent industrial experience
Fundamental process knowledge - Understanding of industrial processes, control systems, and instrumentation concepts
No specialized software required - All calculations demonstrated using standard methods and principles applicable to any SIL calculation tool
Recommended but not required - Basic familiarity with reliability engineering concepts (MTTR, MTTF, failure rates) will enhance learning experience
Commitment to learning - Willingness to complete quizzes and practice calculations to master the material thoroughly
Description
Master the critical skills of functional safety engineering with this comprehensive course designed by a Certified Functional Safety Engineer (CFSE) and Certified Process Safety Professional (CCPSC) with extensive hands-on experience in hazard identification, risk analysis, and SIL determination according to IEC 61508 and IEC 61511 standards.This industry-leading course provides over 6 hours of expert instruction across 7 specialized modules, covering everything from fundamental safety concepts to advanced SIL calculations. You'll gain practical expertise in Safety Instrumented Systems (SIS) design, system architectures, and real-world application through multiple calculation examples including hydrogen compressor, air measurement, oxygen measurement, level measurement, and temperature monitoring systems.Starting with essential foundation concepts, you'll explore the complete 10-layer protection strategy for hazardous events, from basic process control systems to emergency response plans. The course thoroughly covers reliability engineering principles, including MTTF, MTTR, failure rates, and common cause failures that are crucial for accurate SIL assessments.Deep-dive into Safety Instrumented Systems architecture with detailed coverage of 1oo1, 1oo2, 2oo2, and 2oo3 configurations, understanding how each impacts system performance and SIL achievement. Learn advanced concepts including Hardware Fault Tolerance (HFT), Safe Failure Fraction (SFF), and PFDavg calculations that form the backbone of functional safety engineering.The course includes specialized training on valve testing strategies, covering Partial Stroke Testing (PST) and Full Stroke Testing (FST) and their effects on system reliability. Master the IEC 61508 fundamental concepts including safety lifecycle implementation, quantitative SIL determination methods, and compliance requirements.Each section includes comprehensive knowledge-testing quizzes (165 questions total) to reinforce learning and ensure mastery of critical concepts. The course culminates with hands-on SIL calculation practice sessions that mirror real industrial scenarios, preparing you for professional certification and immediate workplace application.Whether you're pursuing CFSE certification or advancing your career in process safety, this course provides the authoritative training needed to excel in functional safety engineering roles across oil & gas, chemical processing, pharmaceutical, and other high-risk industries.Master the Standards. Achieve Certification. Protect LivesWR Training - Your trusted learning providerSpread the wings of your knowledge
Overview
Section 1: Presentation of IEC 61508 and IEC 61511
Lecture 1 Introduction
Lecture 2 Scope of IEC 61508
Lecture 3 Safety
Lecture 4 IEC 61508 - Brief description
Lecture 5 Other safety related standards
Lecture 6 Before to proceed to the next section
Section 2: Prevention and mitigation layers for hazardous events
Lecture 7 Introduction
Lecture 8 Prevention Layer #1 - Plant and processes
Lecture 9 Prevention Layer #2 - Basic Process Control Systems (BPCS)
Lecture 10 Prevention Layer #3 - Alarm systems
Lecture 11 Prevention Layer #4 - Safety Instrumented Systems (SIS)
Lecture 12 Prevention Layer #5 - Physical protection
Lecture 13 Mitigation Layer #6 - Physical containment
Lecture 14 Mitigation Layer #7 - Scrubbers and flares
Lecture 15 Mitigation Layer #8 - Fire and gas systems
Lecture 16 Mitigation Layer #9 - Internal emergency plan
Lecture 17 Mitigation Layer #10 - External emergency plan
Lecture 18 Considerations on protection levels
Lecture 19 Before to proceed to the next section
Section 3: Basic concepts of safety standards
Lecture 20 Introduction
Lecture 21 Reliability
Lecture 22 Unreliability
Lecture 23 Availability and unavailability
Lecture 24 More about "availability"
Lecture 25 Achievable availability
Lecture 26 Operational availability
Lecture 27 MTTF, MTTR, MTBF and their relations
Lecture 28 Failure rate
Lecture 29 Components with constant failure rate
Lecture 30 Failure rate categories
Lecture 31 Common cause failures
Lecture 32 Safety analysis with SIL selection
Lecture 33 Before to proceed to the next section
Section 4: Safety Instrumented Systems (SIS)
Lecture 34 Introduction to SIS
Lecture 35 Safety requirements
Lecture 36 Safety Integrity Levels (SIL)
Lecture 37 System architectures
Lecture 38 System architectures - 1oo1
Lecture 39 System architectures - 1oo2
Lecture 40 System architectures - 2oo2
Lecture 41 System architectures - 2oo3 and 1oo2D
Lecture 42 Common cause factor (β) and PFDavg for redundant architectures
Lecture 43 More on 1oo1 system architectures
Lecture 44 Effect of manual periodic tests on PFDavg calculation for 1oo1 architectures
Lecture 45 Effect of manual test duration on PFDavg calculation for 1oo1 architectures
Lecture 46 PFDavg interpretation
Lecture 47 More on 1oo2 system architectures
Lecture 48 1oo2 architecture for final element only
Lecture 49 More on 2oo3 system architectures
Lecture 50 Comparison between system architectures
Lecture 51 Practical example #1
Lecture 52 Practical example #2
Lecture 53 Practical example #3
Lecture 54 Before to proceed to the next section
Section 5: Use of valves in Safety Instrumented Systems
Lecture 55 Bypass examples
Lecture 56 Partial Stroke Test (PST) for valves
Lecture 57 More on Partial Stroke Tests (PST)
Lecture 58 Full Stroke Test (FST) for valves
Lecture 59 Effects of PST and FST on PFDavg and SIL
Lecture 60 Before to proceed to the next section
Section 6: SIS conceptual design
Lecture 61 Design requirements
Lecture 62 Before to proceed to the next section
Section 7: IEC 61508 - Fundamental concepts
Lecture 63 Safety lifecycle
Lecture 64 Safety Integrity Levels (SIL)
Lecture 65 Hardware Fault Tolerance (HFT)
Lecture 66 More on HFT
Lecture 67 Safe Failure Fraction (SFF)
Lecture 68 Quantitative method for SIL determination
Lecture 69 Before to proceed to the next section
Section 8: Practice session - SIL calculations
Lecture 70 Quick review of the SIL calculation method
Lecture 71 Example #1 - Hydrogen compressor
Lecture 72 Example #2 - Air measurement
Lecture 73 Example #3 - Oxygen measurement
Lecture 74 Example #4 - Level measurement
Lecture 75 Example #5 - Temperature monitoring
Section 9: Downloadable resources
Lecture 76 Watch me
Process Safety Engineers seeking comprehensive SIS and functional safety expertise for career advancement and CFSE certification preparation,Instrumentation and Control Engineers working with safety systems who need to understand SIL requirements and system design principles,Project Engineers and Managers overseeing safety-critical projects in oil & gas, chemical, pharmaceutical, and manufacturing industries,Safety Professionals expanding their expertise into functional safety and Safety Instrumented Systems design and assessment,Engineering Consultants requiring authoritative knowledge of IEC 61508/61511 standards for client projects and regulatory compliance,Experienced Engineers preparing for the Certified Functional Safety Engineer (CFSE) examination and seeking structured, comprehensive training,Technical Professionals in high-risk industries who need to understand, specify, or verify Safety Instrumented Systems performance