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Self-paced Advanced

Chemical Safety and Process Risk Management

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7 enrolled
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FREE
1986 min
Anytime
English
927 views
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Why enroll

Upon completion, students will be able to identify and mitigate hazards, assess risks, and implement safety measures to ensure a safe and compliant chemical process operation.

Is this course for you?

You should take this if

  • You work in Pharmaceutical & Healthcare
  • You're a Chemical & Process / Health, Safety & Environmental professional
  • You have 3+ years of hands-on experience in this field
  • You prefer self-paced learning you can revisit

You should skip if

  • You're new to this field with no prior experience
  • You need a different specialisation outside Chemical & Process
  • You need live interaction with an instructor

Course details

This comprehensive online course covers the principles and best practices of chemical safety and process risk management. Students will learn to identify and mitigate hazards, assess risks, and implement safety measures to prevent accidents and ensure compliance with regulations.

Source: NPTEL (Prof. Shishir Sinha Department of Chemical Engineering IIT Roorkee) Youtube Channel - IIT Roorkee

Course suitable for

Key topics covered

1. Hazard identification and risk assessment

2. Process safety management and risk mitigation

3. Chemical handling and storage best practices

4. Emergency preparedness and response planning

5. Regulatory compliance and industry standards

6. Case studies and real-world examples

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

61 lectures33 hr 6 min
  1. Introduction
    5 min
  2. Safety and Accident Loss Statistics
    36 min
  3. Risk Management and Hazardous Substance Rules
    34 min
  4. Nature of Accident and major disasters
    24 min
  5. Fundamental Principles: Scale up and Runaway Reactions
    28 min
  6. Problems related to Safety and Accident Loss Statistics
    27 min
  7. Toxicology: Introduction, Routes & Exposure
    35 min
  8. Toxicology: Elimination, Responses, Treatment
    25 min
  9. Dose Response Relationship
    35 min
  10. Dose Response and Threshold Dose: Predictive models and Extrapolation
    26 min
  11. Industrial Hygiene: Regulations and Identification
    33 min
  12. Material Safety Data Sheet I
    31 min
  13. Material Safety Data Sheet II
    36 min
  14. Industrial Hygiene: Evaluation
    36 min
  15. Noise, vibration and Radiation
    29 min
  16. Industrial Hygiene: Control
    38 min
  17. Introduction to Source Models
    48 min
  18. Source Models for Gas
    41 min
  19. Source Models for Pool Boiling
    22 min
  20. Source Model Problems
    30 min
  21. Fire and Explosions: Introduction
    33 min
  22. Fire and Explosion: Flammability Characteristics
    33 min
  23. Explosion & its Classification I
    32 min
  24. Explosion & its Classification II
    20 min
  25. Fire Extinguishers I
    25 min
  26. Fire Extinguishers II
    25 min
  27. Problems related to Fire and Explosion
    37 min
  28. Designs to prevent Fire and Explosion: Inerting and Purging
    27 min
  29. Designs to prevent Fire and Explosion: Static Electricity
    28 min
  30. General Design Methods to prevent Fire
    32 min
  31. Sprinklers I
    28 min
  32. Sprinklers II
    28 min
  33. Introduction to Reliefs
    32 min
  34. Type of Reliefs
    29 min
  35. Relief Scenario
    25 min
  36. Relief Sizing
    33 min
  37. Hazard & Hazard Identification: Introduction
    37 min
  38. Hazard Identification Methods & HAZOP
    40 min
  39. Safety Reviews & Risk Assessment I
    33 min
  40. Risk Assessment II
    29 min
  41. Review of Probability Theory
    34 min
  42. Fault Trees: Quantitative Risk Analysis
    41 min
  43. Cause Consequence Analysis & Layer of Protection Analysis
    30 min
  44. Bow-Tie Analysis
    32 min
  45. Accident Research: Introduction
    32 min
  46. Accident Causation Theories
    46 min
  47. Accident Investigation Procedure - 1
    35 min
  48. Accident Investigation Procedure - 2
    26 min
  49. Jaipur Terminal Fire, India
    39 min
  50. The Flixborough, UK, Cyclohexane Disaster
    38 min
  51. Seveso Accident
    27 min
  52. The Chernobyl Nuclear Disaster
    34 min
  53. Bhopal Gas Tragedy
    44 min
  54. Bhopal Gas Tragedy - Investigation
    38 min
  55. Nuclear Radiation
    29 min
  56. Process Safety Management
    34 min
  57. Personal Protective Equipments
    53 min
  58. Safety: Laws and Regulations
    42 min
  59. Nuclear Disaster : Earthquake
    35 min
  60. Event Trees: Quantitative Risk Analysis
    36 min
  61. Event Trees: Quantitative Risk Analysis
    36 min

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Questions and Answers

A: The 12% duty step is the trigger. That amount is enough to push vapor velocity toward the flooding limit on the lower trays, even if overhead purity looks stable. Higher vapor traffic degrades efficiency first, not viscosity. Cutting reflux is a first-instinct move that worsens separation. The safe response is checking hydraulic margin before touching setpoints.

A: The hard boundary is sub-atmospheric pressure. PSVs are sized for overpressure cases like fire and thermal expansion, not vacuum. A stuck-closed blanket with pump-out creates inward buckling risk, and the PSV does nothing there.

A: The 30 K rise is the catch. 2,500 × 2.1 × 30 gives 157,500 kJ, or 157.5 MJ. The other answers all come from dropped temperature span, wrong participating mass, or a unit slip.

A: The tag prefix is the boundary. LT versus LG changes whether the signal is used in control logic. A mismatch between P&ID and instrument list is a classic as-built gap and must be resolved before claiming the CAPA eliminated the cause.