
Safety Engineer Course
The Safety Engineer Course gives you the technical skills and practical frameworks to manage risk, prevent incidents, and lead safety programs in any industry. From hazard identification to process safety and SMS auditing, every module is built for real-world application. This is the comprehensive training safety professionals need to advance their careers and protect the people they work with.
What you will learn:
You will master hazard identification techniques including HAZOP, FMEA, and fault tree analysis, then apply qualitative and quantitative risk assessment methods to justify control decisions. You will learn to design and evaluate controls using the hierarchy of controls framework and manage complete safety management systems from policy to audit. The course covers incident investigation, root cause analysis, and corrective action planning. You will also gain competency in process safety, industrial hygiene, fire safety engineering, and construction safety. Advanced modules address safety leadership, risk communication, and data analytics tools used by modern safety engineers.
How you study in practice Safety Engineer Course
How you practice Safety Engineer Course
For companies that want to train their team
With Dedika for Business, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 41 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Safety Engineering
Foundations of Safety Engineering
Lesson 1 • Safety Culture and Organizational Factors
Examines how organizational culture, leadership commitment, and human factors shape safety outcomes. Connects cultural concepts to measurable safety performance indicators.
Lesson 2 • Defining Safety Engineering
Establishes what safety engineering is, its objectives, and how it differs from general quality or reliability work. Provides the vocabulary needed for all subsequent chapters.
Lesson 3 • The Safety Engineer's Role
Maps the professional responsibilities, authority, and stakeholder relationships of a safety engineer. Clarifies how the role integrates with operations, design, and management.
Lesson 4 • Regulatory and Standards Landscape
Surveys the types of regulations, consensus standards, and industry codes that govern safety practice. Students learn to navigate and apply normative documents without memorizing jurisdiction-specific codes.
Lesson 5 • Introduction to the Safety Management System
Introduces the plan-do-check-act framework underlying modern safety management systems. Sets the structural context for risk assessment and control topics covered later.
Chapter 2HideHide detailsSee detailsHazard Identification Techniques
Hazard Identification Techniques
Lesson 1 • Walkthrough and Inspection Methods
Covers structured workplace inspections, safety tours, and pre-task surveys as frontline identification tools. Students practice developing checklists and documenting findings systematically.
Lesson 2 • Hazard and Operability Study
Introduces HAZOP methodology for systematic deviation analysis of process systems. Students learn to lead HAZOP sessions, assign guide words, and record action items.
Lesson 3 • What-If and Checklist Analysis
Applies structured what-if questioning and standardized checklists to process and equipment review. Teaches facilitation skills needed to extract hazard information from subject-matter experts.
Lesson 4 • Hazard Register Development
Consolidates outputs from multiple identification methods into a unified, prioritized hazard register. Establishes the living document that feeds risk assessment in the next chapter.
Lesson 5 • Hazard Classification and Taxonomy
Categorizes hazards by energy type, agent, and consequence pathway to enable consistent identification. Provides the classification framework used in all subsequent identification methods.
Chapter 3HideHide detailsSee detailsRisk Assessment and Analysis
Risk Assessment and Analysis
Lesson 1 • Risk Tolerability and Decision-Making
Applies ALARP and similar tolerability frameworks to translate risk assessment results into control decisions. Prepares students to document and defend risk acceptance rationale.
Lesson 2 • Failure Mode and Effects Analysis
Applies FMEA to identify failure modes, their effects, and criticality at the component and system level. Students complete FMEA worksheets and calculate risk priority numbers.
Lesson 3 • Fault Tree and Event Tree Analysis
Builds fault trees and event trees to model causal pathways and outcome probabilities for complex scenarios. Connects probabilistic results to risk tolerability criteria.
Lesson 4 • Quantitative Risk Assessment Fundamentals
Introduces frequency estimation, consequence modeling, and individual and societal risk metrics. Students interpret QRA outputs and communicate uncertainty to decision-makers.
Lesson 5 • Risk Concepts and Terminology
Defines risk, likelihood, consequence, and tolerability in precise engineering terms. Establishes the conceptual foundation for selecting and applying assessment methods.
Lesson 6 • Qualitative Risk Assessment
Covers risk matrix construction, semi-quantitative scoring, and bow-tie analysis for rapid risk evaluation. Students learn to apply and defend qualitative judgments consistently.
Chapter 4HideHide detailsSee detailsHazard Control and Hierarchy of Controls
Hazard Control and Hierarchy of Controls
Lesson 1 • Hierarchy of Controls Framework
Explains the five-level hierarchy from elimination to personal protective equipment and the rationale for its order. Establishes the decision logic used throughout the chapter.
Lesson 2 • Administrative Controls and Safe Work Practices
Develops procedures, permits, training programs, and job rotation as administrative risk reduction tools. Addresses the limitations of administrative controls and conditions for their use.
Lesson 3 • Personal Protective Equipment Selection
Guides selection, specification, and management of PPE programs based on hazard type and exposure level. Covers fit testing, maintenance, and program auditing.
Lesson 4 • Control Effectiveness Verification
Establishes methods for testing, monitoring, and verifying that installed controls perform as intended. Links verification results back to the hazard register and risk assessment.
Lesson 5 • Engineering Controls Design
Covers guarding, interlocks, ventilation, and inherently safer design principles as primary engineering controls. Students evaluate control effectiveness and specify design requirements.
Chapter 5HideHide detailsSee detailsIncident Investigation and Root Cause Analysis
Incident Investigation and Root Cause Analysis
Lesson 1 • Causal Analysis Methods
Applies cause-and-effect diagrams, the five-whys technique, and barrier analysis to identify direct and root causes. Students practice selecting the appropriate method for incident complexity.
Lesson 2 • Incident Classification and Reporting
Defines incident types, near-misses, and severity classifications and establishes reporting thresholds. Accurate classification drives appropriate investigation depth and regulatory notification.
Lesson 3 • Human Factors in Incident Causation
Examines human error types, cognitive biases, and systemic factors that contribute to incidents. Moves analysis beyond individual blame toward systemic corrective action.
Lesson 4 • Scene Preservation and Evidence Collection
Covers immediate response actions, scene security, and systematic evidence gathering techniques. Proper preservation prevents loss of physical and documentary evidence critical to analysis.
Lesson 5 • Corrective Action and Follow-Up
Develops corrective action plans, assigns ownership, and establishes verification timelines to close investigation findings. Integrates lessons learned into the safety management system.
Chapter 6HideHide detailsSee detailsSafety Management Systems and Auditing
Safety Management Systems and Auditing
Lesson 1 • Audit Reporting and Corrective Action
Produces clear audit reports, communicates findings to management, and tracks corrective action closure. Closes the SMS improvement loop initiated by audit findings.
Lesson 2 • SMS Framework and Architecture
Maps the structural elements of a safety management system including policy, planning, implementation, and review. Connects each element to practical outputs and accountabilities.
Lesson 3 • Internal Audit Planning and Execution
Covers audit program design, audit plan development, evidence gathering, and nonconformance classification. Students practice conducting structured interviews and document reviews.
Lesson 4 • Legal and Regulatory Compliance Management
Establishes processes for identifying applicable requirements, tracking compliance status, and managing regulatory change. Builds the compliance register as a core SMS document.
Lesson 5 • Safety Performance Measurement
Distinguishes leading and lagging indicators, develops KPIs, and establishes data collection and reporting processes. Metrics are linked to SMS objectives to enable evidence-based decisions.
Chapter 7HideHide detailsSee detailsProcess Safety and Major Hazard Management
Process Safety and Major Hazard Management
Lesson 1 • Emergency Planning for Major Hazards
Develops on-site emergency response plans for major accident scenarios including toxic release, fire, and explosion. Integrates emergency planning with community and regulatory requirements.
Lesson 2 • Process Safety Fundamentals
Distinguishes process safety from occupational safety and introduces the bow-tie model as the central process safety framework. Establishes the concept of major accident hazards.
Lesson 3 • Layer of Protection Analysis
Applies LOPA to quantify risk reduction provided by independent protection layers and identify gaps. Students calculate order-of-magnitude risk reduction and specify additional safeguards.
Lesson 4 • Safety Instrumented Systems
Introduces safety integrity levels, SIS design principles, and the safety lifecycle for instrumented protective functions. Connects SIS requirements to LOPA outputs.
Lesson 5 • Hazardous Materials and Energy Management
Covers inventory management, material compatibility, and energy isolation as foundational process safety controls. Students apply these concepts to realistic process scenarios.
Chapter 8HideHide detailsSee detailsAdvanced Risk Communication and Safety Leadership
Advanced Risk Communication and Safety Leadership
Lesson 1 • Managing Change and Safety Transformation
Applies change management models to safety culture initiatives and system redesign projects. Addresses resistance, stakeholder alignment, and sustaining gains over time.
Lesson 2 • Engaging Workers in Safety
Designs worker participation programs, safety committees, and behavioral observation systems that build ownership. Links worker engagement to measurable reductions in incident rates.
Lesson 3 • Risk Communication Principles
Applies communication theory to convey risk information accurately to technical and non-technical audiences. Addresses cognitive biases that distort risk perception in receivers.
Lesson 4 • Strategic Safety Planning
Develops multi-year safety improvement plans aligned with organizational strategy, risk profile, and resource constraints. Covers business case development for safety investments.
Lesson 5 • Safety Leadership Competencies
Identifies the leadership behaviors, communication styles, and decision-making approaches that drive safety culture improvement. Students assess their own leadership profile and develop growth plans.
Your valid completion certificate
This course is for you:
Safety officer: ready to move from compliance tasks into engineering-level risk work.
Mechanical or industrial engineer: expanding professional scope to include formal safety responsibilities.
Construction site supervisor: seeking structured methods to manage hazards beyond daily intuition.
Career changer: transitioning from military, emergency services, or operations into civilian safety roles.
EHS coordinator: building the technical foundation needed to pursue a senior safety position.
Risk analyst: adding hands-on safety engineering methods to a primarily quantitative background.
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