Industrial Safety Engineering Course

Lesson 1 • Safety Culture and Human Factors Basics

Introduces how organisational culture and human behaviour influence accident rates. Establishes the link between culture, human error, and engineering controls.

Lesson 2 • Core Safety Concepts and Terminology

Defines hazard, risk, incident, near-miss, and related terms used throughout the field. Precise vocabulary enables consistent communication across engineering and management teams.

Lesson 3 • Regulatory and Standards Landscape

Surveys the types of regulatory bodies, voluntary standards organisations, and compliance obligations relevant to industrial facilities. Connects regulatory intent to engineering decision-making.

Lesson 4 • History and Evolution of Industrial Safety

Traces safety engineering from early industrial accidents to modern risk-based frameworks. Provides context for why current standards exist and how they shaped engineering practice.

Lesson 1 • Types of Industrial Hazards

Classifies physical, chemical, biological, ergonomic, and psychosocial hazards found in industrial settings. Builds a mental model for comprehensive hazard recognition during site surveys.

Lesson 2 • Process Hazard Analysis Methods

Introduces HAZOP, What-If analysis, and failure mode identification for process-intensive environments. Connects systematic analysis to early-stage engineering design decisions.

Lesson 3 • Hazard Identification Techniques

Covers walkthrough surveys, job safety analysis, and structured checklists as primary identification tools. Each technique is matched to specific operational contexts for maximum effectiveness.

Lesson 4 • Recognising Emerging and Hidden Hazards

Addresses latent hazards, process changes, and new technology introductions that create unrecognised risks. Prepares engineers to apply management-of-change protocols proactively.

Lesson 1 • Risk Matrices and Scoring Systems

Demonstrates construction and use of risk matrices for ranking hazards by severity and probability. Students learn to calibrate matrices to organisational risk tolerance levels.

Lesson 2 • Risk Assessment Fundamentals

Defines risk as a function of likelihood and consequence and introduces the risk assessment process cycle. Establishes the analytical foundation for all subsequent quantification methods.

Lesson 3 • Fault Tree and Event Tree Analysis

Applies deductive and inductive logic diagrams to model accident sequences and calculate failure probabilities. Builds analytical rigour for complex system risk evaluation.

Lesson 4 • Risk Communication and Reporting

Translates technical risk findings into clear reports for management, regulators, and workers. Effective communication ensures risk decisions are understood and acted upon.

Lesson 1 • Machine Guarding and Mechanical Safety

Covers fixed, interlocked, and adjustable guards for rotating equipment, presses, and conveyors. Proper guarding design prevents contact injuries and meets equipment safety standards.

Lesson 2 • Safety Instrumented Systems

Introduces safety instrumented functions, safety integrity levels, and the safety lifecycle for automated protection. SIS design ensures process plants achieve target risk reduction.

Lesson 3 • Hierarchy of Controls in Practice

Applies elimination, substitution, engineering controls, administrative controls, and PPE to real scenarios. Reinforces priority-based decision-making for maximum risk reduction.

Lesson 4 • Pressure Systems and Mechanical Integrity

Examines design, inspection, and testing requirements for pressure vessels, piping, and relief systems. Mechanical integrity programs prevent catastrophic failures in process industries.

Lesson 1 • Noise, Vibration, and Radiation Control

Addresses noise dose measurement, hearing conservation programmes, whole-body vibration, and ionising and non-ionising radiation controls. Engineering and administrative controls are prioritised over PPE.

Lesson 2 • Ergonomics and Musculoskeletal Hazard Control

Applies ergonomic principles to workstation design, manual handling, and repetitive task analysis. Reducing musculoskeletal disorder risk improves productivity and reduces injury costs.

Lesson 3 • Ventilation System Design and Evaluation

Teaches local exhaust ventilation and dilution ventilation principles for contaminant control. Proper design calculations ensure systems achieve required capture velocities and dilution rates.

Lesson 4 • Air Monitoring and Sampling Strategies

Covers personal, area, and source sampling methods for gases, vapours, dusts, and fumes. Sampling strategy design ensures statistically valid exposure assessments.

Lesson 1 • Fire Science and Combustion Fundamentals

Covers the fire triangle, flammability limits, ignition sources, and fire behaviour in industrial settings. Understanding combustion chemistry underpins all fire prevention engineering decisions.

Lesson 2 • Chemical Hazard Communication and SDS

Teaches globally harmonised hazard classification, labelling, and safety data sheet interpretation. Effective hazard communication ensures workers understand chemical risks before exposure.

Lesson 3 • Fire Detection, Suppression, and Egress

Designs fire detection systems, selects suppression agents, and evaluates emergency egress routes. Integrated fire protection systems minimise life safety and property loss.

Lesson 4 • Explosion Hazard Analysis and Prevention

Examines deflagration, detonation, dust explosions, and vapour cloud explosions with prevention strategies. Explosion prevention requires both design controls and operational discipline.

Lesson 1 • Safety Performance Measurement

Distinguishes leading and lagging indicators and builds a balanced safety performance measurement system. Data-driven measurement enables proactive intervention before incidents occur.

Lesson 2 • Incident Investigation and Root Cause Analysis

Applies systematic investigation methods including causal factor charting and root cause analysis to incidents and near-misses. Findings drive corrective actions that prevent recurrence.

Lesson 3 • Contractor and Supply Chain Safety Management

Establishes pre-qualification, on-site oversight, and performance evaluation processes for contractors. Managing contractor safety reduces incident rates and shared liability exposure.

Lesson 4 • Safety Management System Frameworks

Compares plan-do-check-act based SMS frameworks and their core elements including policy, planning, and review. Understanding framework structure enables tailored implementation for any industrial sector.

Lesson 1 • Evacuation and Shelter-in-Place Design

Applies egress engineering, assembly point selection, and shelter-in-place criteria to facility layouts. Effective evacuation design accounts for mobility limitations and toxic release scenarios.

Lesson 2 • Alarm, Notification, and Communication Systems

Designs alarm systems, notification trees, and communication protocols for internal and external emergency response. Reliable communication systems prevent confusion during high-stress incidents.

Lesson 3 • Emergency Planning Fundamentals

Covers hazard-based scenario development, resource inventories, and emergency plan structure for industrial sites. A well-structured plan reduces response time and limits consequence escalation.

Lesson 4 • Emergency Response Team Organisation

Structures incident command, first responder roles, and mutual aid agreements for industrial emergencies. Clear command structures prevent freelancing and improve coordinated response.