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City	Date	Duration	Price	Status
ParisFrance	September 26, 2026	7 days	€4,900	Confirmed date
AmsterdamNetherlands	October 4, 2026	7 days	€4,900	Confirmed date
Kuala LumpurMalaysia	October 8, 2026	7 days	€4,800	Confirmed date
GenevaSwitzerland	October 18, 2026	7 days	€4,900	Confirmed date
LisbonPortugal	October 27, 2026	7 days	€4,800	Confirmed date
IstanbulTurkey	October 28, 2026	7 days	€4,400	Confirmed date
TunisTunis	October 31, 2026	7 days	€4,400	Confirmed date
LondonUnited Kingdom	November 10, 2026	7 days	£4,800	Confirmed date
DubaiUnited Arab Emirates	November 13, 2026	7 days	€4,400	Confirmed date

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Course Information

Duration

1 Weeks

Introduction

Safety Integrity Level (SIL) Verification is a critical discipline that ensures safety instrumented functions perform to the reliability targets required to control hazardous risks across high-consequence operations, protecting people, assets, continuity, and reputation. This course equips professionals to translate safety intent into auditable evidence by verifying that design, calculations, assumptions, testing strategies, and lifecycle practices collectively meet required risk reduction, while remaining practical for real operating environments. Leaders benefit because SIL decisions influence capital allocation, operational availability, regulatory defensibility, and organizational risk appetite; strong verification governance prevents both under-design that elevates exposure and over-design that wastes resources and increases complexity. Participants will learn how to define clear verification outcomes, establish measurable acceptance criteria, plan verification activities to meet project milestones, and implement disciplined decision-making when data quality, legacy constraints, or cross-functional misalignment create uncertainty. The program emphasizes actionable deliverables—verification plans, traceability, calculation reviews, proof test alignment, and documentation readiness—so organizations can demonstrate performance, sustain compliance expectations, and continuously strengthen safety performance without slowing execution.

Course Objectives

Define SIL verification scope, deliverables, and acceptance criteria aligned to lifecycle expectations.
Differentiate SIL verification from validation, functional safety assessment, and general QA/QC activities.
Interpret safety requirements specifications to produce measurable verification checkpoints and evidence.
Evaluate hardware reliability data, assumptions, and failure rate sources for defensible calculations.
Verify probability of failure metrics and architectural constraints to confirm required risk reduction.
Assess common cause and systematic capability considerations and document mitigation evidence.
Develop a SIL verification plan with roles, interfaces, schedules, and review gates.
Review proof test strategies and intervals to ensure alignment with performance targets and operations.
Strengthen documentation quality to support audits, handover, and long-term lifecycle sustainment.

Target Audience

Functional safety engineers, process safety specialists, instrumentation and control engineers, automation engineers, reliability engineers, maintenance and inspection leaders, project engineering managers, technical authorities, operations supervisors, QA/QC professionals, risk and assurance teams, and HSE leaders responsible for safety-related systems performance and governance.

Benefits for the Organization

Improved defensibility of safety claims through consistent, auditable verification evidence.
Reduced project and operational risk by preventing gaps in safety requirements implementation.
Better capital efficiency by avoiding unnecessary over-specification and rework.
Stronger cross-functional alignment between engineering, operations, maintenance, and assurance.
Higher availability and reliability through proof test strategies aligned to performance targets.
Enhanced readiness for reviews and audits through structured documentation and traceability.

Benefits for the Trainee

Clear capability to plan and execute SIL verification activities across the lifecycle.
Stronger competence in reviewing reliability assumptions and calculation inputs.
Practical skill in building traceability between requirements, design, and test evidence.
Improved decision-making under uncertainty with structured, measurable acceptance criteria.
Greater confidence in interfacing with stakeholders and managing verification milestones.
Career-relevant expertise in functional safety governance and performance assurance.

Course Outline

Day 1 – SIL Verification Foundations and Governance

SIL verification purpose, outcomes, and decision boundaries across the safety lifecycle
Roles, responsibilities, and competence expectations within verification governance
Key verification deliverables: plans, checklists, traceability, and evidence packs
Interfaces with hazard studies, risk decisions, and safety requirements specifications
Common verification pitfalls: ambiguity, scope gaps, and uncontrolled assumptions
Practical workshop: defining verification acceptance criteria and review gates

Day 2 – Requirements, Traceability, and Evidence Quality

Translating safety intent into verifiable requirements and measurable criteria
Building requirements traceability from safety requirements to design implementation
Verification of logic, setpoints, voting architectures, bypass management, and alarms
Documentation standards: consistency, version control, and change justification
Managing deviations and technical queries with controlled risk-based decisions
Practical workshop: creating a traceability matrix and evidence map for a safety function

Day 3 – Reliability Data and SIL Calculation Verification

Reliability inputs: failure rates, diagnostic coverage, repair times, and proof test factors
Reviewing data sources, data quality, assumptions, and suitability for the application
Verifying probability of failure performance metrics and calculation logic
Architectural constraints verification and design implications for instrumented functions
Addressing common cause considerations and documenting mitigation evidence
Practical workshop: calculation review checklist and verification findings write-up

Day 4 – Proof Testing, Maintenance Alignment, and Lifecycle Controls

Proof test objectives, coverage, interval strategy, and operational constraints
Verifying proof test procedures for completeness, realism, and recording requirements
Maintenance, repair, and bypass controls impacting achieved performance over time
Managing lifecycle changes: modifications, obsolescence, and configuration control
Performance monitoring and evidence upkeep to sustain claims after handover
Practical workshop: proof test interval justification and operational readiness checklist

Day 5 – Integration, Review Readiness, and Executive Assurance

Building an end-to-end SIL verification dossier aligned to lifecycle expectations
Preparing for assessments and audits: evidence completeness and narrative clarity
Managing multi-discipline reviews and closing verification actions effectively
Risk-informed decision-making when evidence is incomplete or constraints exist
Executive reporting: presenting verification status, residual risk, and governance controls
Capstone exercise: presenting a verification package and executive assurance summary

Course Duration

Duration: 1 Weeks

Duration: 5 days
Format: Classroom / Online / Blended

Instructor Information

“The training will be delivered by a team of experts specialized in negotiation and professional relationships. They have extensive practical experience in managing complex negotiations, as well as a strong record in delivering leadership and management development programs.”

Conclusion

This program enables organizations to treat SIL Verification as an executive assurance capability rather than a technical afterthought, ensuring that safety performance claims are built on disciplined evidence, measurable acceptance criteria, and lifecycle-ready governance. By strengthening traceability, reliability review quality, and proof test alignment, participants reduce uncertainty, prevent costly rework, and improve operational confidence while maintaining clear accountability across stakeholders. Graduates leave equipped to lead verification activities that support resilient performance, audit readiness, and sustained risk reduction without compromising delivery speed or operational practicality.

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