Skip to main content

Mastering Functional Safety Automation for Industrial Leadership

$199.00
When you get access:
Course access is prepared after purchase and delivered via email
How you learn:
Self-paced • Lifetime updates
Your guarantee:
30-day money-back guarantee — no questions asked
Who trusts this:
Trusted by professionals in 160+ countries
Toolkit Included:
Includes a practical, ready-to-use toolkit with implementation templates, worksheets, checklists, and decision-support materials so you can apply what you learn immediately - no additional setup required.
Adding to cart… The item has been added

Mastering Functional Safety Automation for Industrial Leadership

You're leading teams through complex industrial operations, but safety gaps keep surfacing-near misses, compliance delays, system vulnerabilities that could have been caught earlier. The pressure is real. Investors demand reliability. Regulators demand proof. Your team looks to you for certainty in an environment where failure is not an option.

Every day without a robust functional safety framework is a day of unquantified risk. And yet, most training leaves you with theory, not tools. Abstract standards without actionable implementation. Paperwork without power.

Mastering Functional Safety Automation for Industrial Leadership closes that gap. This is not awareness training. This is the exact methodology used by top-tier plant managers, automation leads, and safety architects to build fail-safe systems, eliminate hazardous failure modes, and deliver compliance with confidence.

Imagine going from reactive safety reviews to proactive automation design-to having a board-ready functional safety architecture mapped, validated, and documented in under 30 days. That’s the outcome. One graduate, Maria T., Lead Automation Engineer at a Tier-1 chemical processing facility, implemented the course blueprint and reduced logic solver design time by 68% while achieving full IEC 61511 alignment for her entire site.

This course transforms uncertainty into authority. It provides the structure, tools, and decision frameworks that turn functional safety from a compliance cost into a strategic advantage. You’ll gain recognition not just as a technician, but as a leader who delivers resilient, verifiable, and intelligent safety automation.

Here’s how this course is structured to help you get there.



Course Format & Delivery Details

Fully Self-Paced, On-Demand, and Designed for Real-World Application

The Mastering Functional Safety Automation for Industrial Leadership course is delivered entirely online, with immediate enrollment access. There are no fixed schedules, no set start dates, and no time zone dependencies. You progress at your own pace, on your own terms, from any location in the world.

Most learners complete the core framework in 40–50 hours and begin applying key modules within the first week. You can see tangible progress-such as Safety Requirement Specifications (SRS) templates, SIL determination matrices, or automated test plans-within days of starting.

Lifetime Access, Continuous Updates, and Global Readiness

  • You receive lifetime access to all course materials, including any and all future updates at no additional cost
  • Course content is optimized for 24/7 access across devices-fully mobile-friendly and built for engineers reviewing systems on-site or during shift changes
  • All materials are printable, downloadable, and structured to integrate directly into your existing safety documentation workflows
  • You earn a formal Certificate of Completion issued by The Art of Service, a globally recognised provider of industrial and engineering certification frameworks with over 150,000 professionals trained worldwide

Expert-Led Guidance Without the Gatekeeping

You are not left to figure it out alone. Each module includes direct access to subject-matter experts via structured inquiry channels. You can submit technical queries, request form reviews, or seek implementation feedback-all responses are delivered within 48 business hours with real engineering rationale and documented references.

Transparent Pricing, No Hidden Fees, Full Risk Reversal

Pricing is straightforward and inclusive. There are no hidden fees, add-ons, or subscription traps. One payment unlocks full access, all materials, and the certification process.

We accept major payment methods including Visa, Mastercard, and PayPal.

If you complete the course and find it does not deliver measurable value to your functional safety practice, submit your completed work for review and, if unsatisfied, you will be granted a full refund. No questions, no hoops.

You’ll Get Immediate Confirmation and Structured Onboarding

Upon enrollment, you’ll receive an email confirmation. Shortly after, a separate access notification will be sent with detailed instructions for entering the learning environment, step-by-step navigation guides, and your first action checklist.

This Works Even If…

  • You’re not a certified functional safety expert yet-but want to become one
  • You work in oil and gas, chemical processing, power generation, or advanced manufacturing and face complex automation environments
  • Your previous training was too generic, too theoretical, or failed to translate IEC 61511 or IEC 61508 into actual system designs
  • You’ve been tasked with upgrading legacy safety instrumented systems (SIS) but lack a structured methodology
  • You need to lead audits, justify SIL ratings, or defend architecture decisions to compliance boards
Dr. Arjun Patel, Plant Integrity Manager at a major LNG facility in Southeast Asia, used this course to overhaul his site’s emergency shutdown validation protocol. Within six weeks of completion, his team passed an unannounced API audit with zero non-conformances-the first time in five years.

This is not just learning. It’s engineering leverage. You gain clarity, confidence, and credibility-all backed by a risk-free guarantee.



Extensive and Detailed Course Curriculum



Module 1: Foundations of Functional Safety in Industrial Systems

  • Defining functional safety vs. general safety in automated environments
  • Understanding the role of Safety Instrumented Systems (SIS) in risk reduction
  • Key terminology: hazard, risk, demand, safe state, fail-safe design
  • Differentiating between process safety and functional safety
  • The evolution of safety standards: IEC 61508, IEC 61511, ISA 84.01
  • Overview of Safety Lifecycle phases from concept to decommissioning
  • Understanding the ALARP principle and tolerable risk thresholds
  • Role of functional safety in Industry 4.0 and digital transformation
  • Safety culture and leadership accountability in automation design
  • Real-world case studies of catastrophic failures due to SIS design flaws


Module 2: Risk Assessment and Hazard Analysis Techniques

  • Conducting HAZOP studies with functional safety focus
  • LOPA (Layer of Protection Analysis) for SIL determination
  • Selecting and applying risk graphs for preliminary SIL assignment
  • Creating cause-and-effect matrices for automated shutdown logic
  • Integrating FMEA into functional safety planning
  • Using bow-tie diagrams to visualize hazard escalation paths
  • Data sources for failure rate estimation in safety systems
  • Working with site-specific risk tolerance criteria
  • Documenting risk assessment outcomes for audit readiness
  • Common pitfalls in hazard identification and how to avoid them


Module 3: Safety Integrity Levels (SIL) and Verification Methodology

  • Understanding the four SIL levels and their reliability targets
  • Calculating PFDavg (Average Probability of Failure on Demand)
  • Selecting appropriate architectures: 1oo1, 1oo2, 2oo3, etc.
  • Using Markov models for complex system reliability analysis
  • Applying simplified equations for PFD calculation in real projects
  • Determining diagnostic coverage and proof test effectiveness
  • Selecting proof test intervals aligned with operational constraints
  • Modifying SIL assignments based on operational data
  • Generating SIL verification reports for certification bodies
  • Using spreadsheets to automate SIL calculations with traceable logic


Module 4: Designing Safety Instrumented Functions (SIFs)

  • Defining a SIF: inputs, logic solvers, final elements
  • Specifying response time requirements for emergency actions
  • Designing voting architectures for redundancy and fault tolerance
  • Specifying failure modes and safe state behavior for each component
  • Using functional block diagrams for SIF clarity
  • Designing common cause failure (CCF) mitigation strategies
  • Selecting appropriate sensors for pressure, level, temperature, flow
  • Choosing final elements: emergency shutdown valves, trip relays, actuators
  • Integrating mechanical interlocks with SIS logic
  • Documenting SIF performance requirements in technical specifications


Module 5: Safety Requirement Specification (SRS) Development

  • Creating a comprehensive Safety Requirement Specification document
  • Structuring SRS sections: scope, definitions, SIF descriptions, architecture
  • Specifying SIL targets and PFD requirements for each SIF
  • Defining system response time and shutdown sequence requirements
  • Documenting bypass and permit-to-work procedures
  • Specifying diagnostics, alarms, and operator interface requirements
  • Detailing proof test procedures and interval requirements
  • Specifying environmental, power, and installation conditions
  • Linking SRS content to procurement and vendor documentation
  • Version control and revision tracking for audit compliance


Module 6: Logic Solver Selection and Configuration

  • Comparing PLCs, relays, and dedicated SIS controllers
  • Evaluating safety-certified logic solvers (TÜV, exida, Lloyd’s Register)
  • Understanding safety programming languages and logic design
  • Designing fail-safe logic execution sequences
  • Configuring watchdog timers and self-diagnostics
  • Selecting appropriate communication protocols for SIS networks
  • Isolating SIS communications from basic process control systems (BPCS)
  • Designing secure access and change management protocols
  • Using modular logic design for maintainability and scalability
  • Documenting logic solver configuration for third-party verification


Module 7: Sensor and Final Element Integration

  • Selecting redundant vs. diverse sensor configurations
  • Specifying fail-safe positions for emergency shutdown valves
  • Designing partial stroke testing strategies for valves
  • Integrating positioners with diagnostics and feedback loops
  • Specifying proof test indicators and manual test buttons
  • Designing end-to-end loop checks for SIF validation
  • Ensuring compatibility between logic solvers and field devices
  • Selecting appropriate cabling, shielding, and grounding practices
  • Specifying hazardous area certifications (ATEX, IECEx, NEC)
  • Creating site-specific installation checklists and inspection forms


Module 8: Validation and Verification Testing Protocols

  • Differentiating between FAT, SAT, and loop testing phases
  • Developing test plans for SIFs based on SRS requirements
  • Creating test scripts with pass/fail criteria and traceability
  • Performing functional testing of emergency shutdown sequences
  • Validating proof test functionality and diagnostics
  • Testing manual bypass and override safety protocols
  • Verifying safe state behavior under power loss
  • Documenting test results with time stamps, signatures, and witness logs
  • Generating test deviation reports and corrective actions
  • Archiving test documentation for regulatory compliance


Module 9: Functional Safety Management (FSM) Systems

  • Establishing a Functional Safety Management plan
  • Defining roles: Functional Safety Manager, SIS Engineer, Operations Lead
  • Implementing change management for SIS modifications
  • Developing audit and review schedules for ongoing compliance
  • Managing competence and training records for staff
  • Tracking functional safety KPIs and performance indicators
  • Integrating FSM with existing quality and risk management systems
  • Documenting management of functional safety across departments
  • Conducting periodic effectiveness reviews of SIS performance
  • Creating a functional safety policy aligned with corporate governance


Module 10: SIL Determination Using LOPA

  • Prerequisites for conducting LOPA studies
  • Developing initiating event scenarios with frequency data
  • Selecting independent protection layers (IPLs)
  • Applying credit for IPLs only when criteria are met
  • Calculating risk reduction required for each scenario
  • Converting risk reduction factors to SIL levels
  • Addressing common errors in LOPA: double counting, non-IPLs
  • Using LOPA output to justify SIL assignments in SRS
  • Facilitating cross-functional LOPA workshops
  • Documenting LOPA assumptions, data sources, and conclusions


Module 11: Advanced Diagnostics and Prognostics in SIS

  • Designing online diagnostics for continuous health monitoring
  • Implementing predictive maintenance based on diagnostic trends
  • Using field device diagnostics (HART, Foundation Fieldbus)
  • Integrating diagnostic data with asset performance management (APM) systems
  • Creating alarm hierarchies for diagnostic warnings
  • Reducing nuisance trips through intelligent diagnostics
  • Using health indicators to extend proof test intervals
  • Setting up automated reporting for degradation detection
  • Linking diagnostic data to risk-based inspection planning
  • Documenting diagnostic system performance in safety files


Module 12: Cybersecurity and Functional Safety Integration

  • Identifying cyber threats to safety systems
  • Differentiating safety and security failure modes
  • Applying IEC 62443 principles to SIS architecture
  • Designing secure access controls for safety logic solvers
  • Implementing network segmentation and firewalls for SIS
  • Using encrypted communication for safety-critical data
  • Specifying secure firmware updates and change logs
  • Conducting cybersecurity risk assessments for SIFs
  • Creating incident response plans for safety system compromises
  • Linking cybersecurity controls to functional safety documentation


Module 13: Human Factors and Operator Interface Design

  • Designing SIS operator interfaces for clarity and speed
  • Minimizing human error in emergency response
  • Specifying alarms and indications for safety systems
  • Using color coding and labeling standards (ISA 18.1)
  • Designing bypass authorization workflows
  • Training operators on emergency shutdown procedures
  • Conducting human factors reviews of safety systems
  • Documenting operator roles in SIF activation and response
  • Designing emergency procedures for high-stress scenarios
  • Integrating safety system status into central monitoring


Module 14: Maintenance, Bypass, and Operational Procedures

  • Developing safe work procedures for SIS maintenance
  • Creating permit-to-work templates for SIF isolation
  • Implementing safe bypass protocols with tracking systems
  • Managing temporary modifications to SIFs
  • Specifying time limits and approval hierarchies for bypasses
  • Designing bypass audit trails and reporting
  • Establishing shift handover procedures for active bypasses
  • Using software tools to manage bypass permissions
  • Conducting post-maintenance SIF revalidation
  • Training maintenance personnel on functional safety roles


Module 15: Audit and Compliance Readiness

  • Preparing for internal and external functional safety audits
  • Organizing the safety file: required documentation checklist
  • Responding to auditor requests with confidence
  • Conducting self-audits using IEC 61511 checklists
  • Addressing non-conformances and planning corrective actions
  • Presenting functional safety evidence to regulatory bodies
  • Using audit findings to improve FSM systems
  • Training staff on audit response protocols
  • Integrating audit schedules into operational planning
  • Creating audit-ready digital document repositories


Module 16: Global Standards and Regulatory Alignment

  • Comparing IEC 61508, IEC 61511, and ISA 84.01 requirements
  • Understanding ATEX, PED, and SEVESO implications for SIS
  • Aligning functional safety with OSHA, EPA, and local regulations
  • Translating standards into site-specific procedures
  • Working with notified bodies and certification agencies
  • Preparing for third-party certification of SIS designs
  • Applying regional differences in functional safety enforcement
  • Using conformity assessment procedures for equipment
  • Integrating functional safety into overall plant licensing
  • Responding to regulatory inspections with documented evidence


Module 17: Advanced Topics in SIL Verification

  • Using fault tree analysis (FTA) for complex system modeling
  • Performing reliability block diagram (RBD) analysis
  • Accounting for voting logic in PFD calculations
  • Modeling proof test strategies in reliability software
  • Adjusting PFD for different test coverage levels
  • Using beta factor models for common cause failures
  • Applying Markov models to multi-state systems
  • Validating calculations with third-party tools
  • Documenting assumptions and simplifications in verification
  • Presenting SIL verification results to technical reviewers


Module 18: Project Integration and Cross-Functional Leadership

  • Leading functional safety projects across engineering disciplines
  • Integrating SIS design into overall project timelines
  • Managing interfaces between mechanical, electrical, and control systems
  • Facilitating functional safety reviews with cross-functional teams
  • Communicating risk and safety requirements to non-experts
  • Presenting functional safety cases to executive leadership
  • Securing funding for safety system upgrades
  • Managing vendor selection and contract specifications
  • Overseeing functional safety deliverables from contractors
  • Ensuring functional safety alignment with project risk registers


Module 19: Real-World Implementation Projects

  • Designing a functional safety strategy for a new chemical reactor
  • Upgrading an existing boiler interlock system to SIL 2
  • Implementing partial stroke testing on emergency shutdown valves
  • Redesigning a compressor surge protection system
  • Creating a safety case for a hydrogen refueling station
  • Integrating SIS with a new DCS platform
  • Conducting LOPA for a distillation column relief scenario
  • Developing a proof test program for a subsea control system
  • Validating a fire and gas detection logic solver
  • Preparing a functional safety audit package for external review


Module 20: Certification, Career Advancement, and Next Steps

  • Preparing for the final assessment and certification process
  • Submitting a functional safety project portfolio for review
  • Understanding the certification criteria set by The Art of Service
  • Positioning your Certificate of Completion on LinkedIn and resumes
  • Using your training to pursue roles in safety engineering, integrity management, or technical leadership
  • Accessing alumni resources and industry networking groups
  • Continuing professional development in functional safety
  • Staying updated with changes in standards and best practices
  • Joining professional societies: IChemE, IEEE, SAE
  • Building a personal brand as a functional safety authority