Safety Instrumented System (SIS) Principles Comprehensive & Understanding Training

DEVELOP Training Center menyelenggarakan TrainingSafety Instrumented System (SIS) Principles ComprehensiveUnderstanding yang sangat berguna untuk mendapatkan skill tentangSafety Instrumented System (SIS) Design, Analisis dan Report pada ProjectPlant Operation.

Materi Training di DEVELOP Training Center dirancang khusus oleh para praktisi engineer dan designer disesuaikan dengan kebutuhan project. Anda akan mendapat sharing ilmu langsung dari para praktisi yang berpengalaman bertahun-tahun.

DEVELOP menerapkan Syllabus Training Safety Instrumented System (SIS) Principles Comprehensive Understanding dengan tahap-tahap pembelajaran berkualitas sbb :

Sesi 1-2 Safety Life Cycle,Functional Safety,Safety Instrument System,Hazard Identification, SIL determination IEC 61511-3,LOPA Safety Requirement Specification/SRS

Skill Focus :

• Safety life cycle (Design,Constructionas built Changes after Commissioning)
  • Accident Causes in Industry
  • Failure Prevention
• Functional SafetySafety Instrument System/SIS Standard-Code : IEC 61511 IEC 61508-4
  • Safety Instrument System/SIS to build safer system,more cost effective systemframework for consistent Functional Safety design
  • Process Safety,BPCSProtection Layers
  • Functional Safety Assessment/Audit,Safety Lifecycle StructurePlanning
  • HazardRisk Assessment,Allocation of Safety Functions to protection layers
  • Safety Requirement to Safety Instrument System/SIS
  • DesignEngineering of Safety Instrument System/SIS
  • DesignDevelopment for Risk Reduction
  • InstallationCommissioning Validation
  • Operation-Maintenance,ModificationDecommissioning
  • Safety Instrument System/SIS Verification
  • Safety Instrument Function/SIF (Sensors,Logic Solver,Final Elements)
  • Safety Integrity Level/SIL Levels 1-2-34 (Demand Mode of Operation,Failure Probability,Target Risk Reduction)
  • CCPS Hazard CCPS (harm to people,property,or environment)
• Hazard identification
  • Hazard Deviation,Causes,Consequences,SafeguardsRecommendation
  • Process Risk Criteria
  • Quantitative Hazard Identification Method
  • Identify Potential Hazard-operational problemsconsequences, with StructuredSystematic Examination
  • Management Commitment,Knowledge Experience,Information PID-PFD-SOP
  • Multidiscipline HAZOP Team Review (Design Purpose,Deviation,ConsequencesAction Safeguards)
  • HAZOP Case Study
• SIL determination comply with IEC 61511-3
  • Residual Risk,Tolerable RiskProcess Risk
  • Mitigation (Plant Emergency Response Layers,Passive Protection Layers,Relief Valve-Rupture Disk Active Protection Layers)
  • Prevention (Emergency Shutdown Safety Layers,Process Shutdown,Process AlarmProcess Value/Basic Process Control System)
• LOPA for SIL determination
  • LOPA OverviewHow LOPA Works (Scenarios,event frequency,IPL,risk decision,consequence and severity)
  • LOPA Scenario Initiating Event,Enabling eventconsequences (over-pressuring the system, release of toxic or flammable, fatality etc)
  • LOPA Conditional Modifier (Probability of ignition,person present,fatal injuryfinancial loss)
  • Information Net Used in LOPA (Independent Protection Layers/IPLs,Probability of Failure on Demand/PFD,SeverityFrequency,Risk ToleranceSafe Result/Outcome)
  • IPL Rules (Effective,IndependentAuditable)
• LOPA Case Study
  • Control Loop Failure,Seal Failure,Gasket Failure,Rotating Equipment Trip,Fixed Equipment Failure,Loss of Power,Utility Failure
  • Process Safety Valve,Flame Arrestor,Independent Control Loop,CRO with alarm
  • Human Errors
  • Probability of failure on demand average (PFDavg)
  • Hazard and Risk Assessment
  • Determining RRF to have SIL
  • Failure Rate for Process Components (Controller,Control Valve,Flow Measurement Fluids-Solids,Flow Switch,Gas-Liquid Chomarograph,Level Measurement Fluids-Solids,Oxygen Analyzer,Solenoid Valve etc)
• Safety Requirement Specification (SRS)

Sesi 3-4 HFT vs Voting,SIS Design Engineering,Logic Solver,IO,EWS/OWS/SOE,Safety Shutdown System Architecture,Final ElementsSIL Verification

Skill Focus :

• HFT Vs Voting (Architecture,Voting,HFTRedundancy)
• SIS Design Engineering
  • Safety Reliability Data (Safe Detected/Undetected, Dangerous Detected/Undetected Detail Errors)
  • Test Interval (PFD Test Period,Interval of Operation,Time Interval,Proof Test Interval in years,Voting,PFDavg,Architecture)
  • Sensor (Certified IEC61508,Reliability Data,Transmitter,SwitchDiagnostic NAMUR NE43)
• Logic Solver (Certified IEC61508 latest,Safety Reliability,Controller,Communication,Power,I/OSIL capability)
  • Controller Design,Communication ModulePower Supply Module
• Input Output
  • Redundant or simplex IO,Galvanic isolated/optically isolated/electrical isolated
  • Analog modules HART pass thruNAMUR 43
  • Digital modules AC-DC
  • Interposing relay SIL 2 certified
  • Input output with SIL-2SIL-3 Surge Protection
  • System Diagnostic
• EWS, OWS, SOE, Operator Interface
  • programmingconfiguration in EWS
  • Partial Stroke Test
  • logic programmed using Function Block
  • SOE c/w event reporting facility
  • Controller response time
  • MaintenanceOperation Override by hard key switches/Soft programmed HMI Human Machine Interface
• Safety Shutdown System Architecture (Ews-Ows-Soe,Safety Network,Fire Gas System/FGS Control Panel,Hardwire,ModbusDCS Control Panel)
• Final Elements
  • IEC 61508 comply
  • Safety Reliability Data
  • Shutdown ValvesBlow Down Valves (Ball Valves)
  • Stroking Time
  • TSO
  • Diagnostictest device (Partial Stroke Test Device, Position Limit Switches etc)
• SIL Verification
  • Results from LOPA and SRS
  • Final Verification and Recommendation for the Evaluated SIF
• Case Study

Materi Training di DEVELOP Training Center dirancang khusus oleh para praktisi engineer dan designer disesuaikan dengan kebutuhan project. Anda akan mendapat sharing ilmu langsung dari para praktisi yang berpengalaman bertahun-tahun.

Pembahasan materi mengetengahkan contoh-contoh latihan dalam konteks dunia proyek konstruksi sehingga lebih familier dengan aktivitas proyek sehari-hari.Selama training, instruktur kami akan menggunakan kombinasi teori serta praktek langsung dengan studi kasus yang telah dipersiapkan yang menyerupai Proyek nyata.

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