
Explain the hazid methodology and tor, guiding hazard identification through nodes, checklists, causes, consequences, and safeguards, with action plans and reporting.
presents a hemp process methodology for qra, with bow-tie analysis, alarp demonstration, and sce identification, detailing common steps for qra, pra, and dra using hazid or hazop.
Explore consequence analysis and DRA for HAZID/HAZOP and dispersion modeling with ALOHA, covering pool and jet fires, vapor cloud dispersion, BLEVE, plus input setup and limitations.
Learn to perform PRA, DRA, and QRA within an hse case, using event tree analysis, LSIR and F-N curves, Bow-Tie barriers, and ALARP demonstration to identify SCE and manage risk.
Identify and manage SIMOP hazards through a lifecycle approach, defining roles, risk assessment, mitigation, permit to work (ptw), and interface documents to safely coordinate multiple operators and activities.
The objective of this E-Course is:
· Compliance with all applicable Health, Safety and Environmental for development of HSE case
· Identify all potential hazards and assess their consequences and probabilities
· Develop prevention, control and mitigation measures to eliminate or minimize hazards to people, asset and environment
· Minimize the risk associated with operation of the plant by reducing risk to a level which i s “As Low As Reasonably Practicable” in compliance with project risk acceptance criteria
The Following subjects will be discussed:
· HAZID methodology and Terms of Reference as an input to Risk Assessment
· Failure cases definition’ which shall identify isolatable process sections based on ESDVs, SDVs.
· Fire & Explosion consequence modelling
· Preliminary Risk Assessment (PRA) based on COMPANY Risk Matrix
· Detailed Risk Assessment (DRA) Based on COMPANY Risk matrix
· Quantitative Risk Assessment (QRA) to define IRRA and PLL and FN curves
· Risk Reduction Workshop (RRW)
· ALARP demonstration
· HSE Case development
· SIMOP hazard identification
Dispersion simulations will be discussed to determine realistic potential flammable cloud sizes for the subsequent explosion simulations considering the leak location and direction, the stream characteristics, the leak rate and the wind characteristics. Scenarios to be studied for dispersion simulation shall be based on the review of the existing failure cases and the new failure cases as part of the Fire & Explosion consequence modelling.