
Battery Safety Course
This Battery Safety Course gives technicians, safety officers, and engineers the practical knowledge to work confidently with battery systems of all types. You'll master hazard identification, emergency response, regulatory compliance, and safe handling from the ground up. Whether you work with electric vehicles, industrial equipment, or stationary storage, this course prepares you to protect people, assets, and the environment.
What you'll learn:
You will build a solid foundation in battery chemistry, cell types, and pack architecture before moving into hands-on safety topics. The course covers how to identify electrical, chemical, and thermal hazards, select the right PPE, and apply the hierarchy of controls to battery work. You will learn safe storage, handling, and charging procedures, plus how to read and apply relevant regulations and international standards. Emergency response modules train you to manage battery fires, electrolyte spills, and electrical injuries step by step. You will also gain skills in battery inspection, diagnostic testing, and end-of-life decommissioning. Advanced topics include emerging chemistries, risk assessment methodologies, and sustainability considerations for battery operations.
How you study in practice Battery Safety Course
How you practise Battery Safety Course
For businesses looking to train their team
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 38 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Battery Technology
Foundations of Battery Technology
Lesson 1 • Electrochemical Principles of Batteries
Covers oxidation-reduction reactions, ion transfer, and voltage generation inside a cell. Provides the chemical foundation needed for all subsequent safety analysis.
Lesson 2 • Battery Pack Architecture
Explains how individual cells are arranged in series and parallel configurations to form packs. Links pack design to voltage, capacity, and thermal behaviour.
Lesson 3 • Battery Cell Types and Chemistries
Surveys lead-acid, nickel-based, lithium-ion, and solid-state chemistries. Distinguishes performance and risk profiles across each type.
Lesson 4 • Key Performance Parameters
Defines state of charge, state of health, depth of discharge, and cycle life. Establishes measurable benchmarks used throughout the course.
Chapter 2HideHide detailsSee detailsBattery Hazard Identification
Battery Hazard Identification
Lesson 1 • Electrical Hazards in Battery Systems
Covers shock, arc flash, and short-circuit risks from high-voltage and high-current sources. Connects voltage thresholds to injury severity levels.
Lesson 2 • Thermal Runaway Mechanisms
Explains the self-reinforcing heat cycle that leads to thermal runaway in lithium-ion cells. Identifies trigger events and propagation pathways within a pack.
Lesson 3 • Hazard Severity and Likelihood Assessment
Introduces risk matrices and qualitative scoring to prioritise battery hazards. Prepares students to rank risks before selecting controls.
Lesson 4 • Mechanical and Physical Hazards
Addresses crush, puncture, vibration, and drop hazards that can compromise cell integrity. Links physical damage to downstream electrical and thermal risks.
Lesson 5 • Chemical Hazards and Toxic Exposure
Identifies electrolyte solvents, heavy metals, and off-gas compounds released during normal and fault conditions. Establishes exposure limits and routes of entry.
Chapter 3HideHide detailsSee detailsRegulatory and Standards Framework
Regulatory and Standards Framework
Lesson 1 • Transport and Shipping Regulations
Covers dangerous goods classifications, packaging requirements, and documentation for air, sea, and ground transport. Emphasises state-of-charge limits and labelling obligations.
Lesson 2 • International Safety Standards Overview
Surveys globally recognised battery safety standards for cells, packs, and systems. Explains how standards bodies develop and update requirements.
Lesson 3 • Workplace Safety Regulations
Addresses employer obligations for hazard communication, exposure limits, and safe work procedures. Connects regulatory duties to daily operational decisions.
Lesson 4 • Product Safety and Certification
Explains third-party testing, certification marks, and market surveillance for battery products. Helps students verify compliance status of equipment they handle.
Chapter 4HideHide detailsSee detailsPersonal Protective Equipment and Controls
Personal Protective Equipment and Controls
Lesson 1 • Engineering Controls and Ventilation
Describes local exhaust ventilation, interlocks, and isolation barriers used in battery work areas. Connects control design to specific chemical and thermal hazards.
Lesson 2 • Electrical PPE Selection and Use
Covers insulated gloves, face shields, arc-rated clothing, and dielectric footwear for high-voltage battery tasks. Links PPE class ratings to voltage exposure levels.
Lesson 3 • Hierarchy of Controls for Battery Work
Applies elimination, substitution, engineering, administrative, and PPE controls to battery hazards. Establishes the priority order for selecting protective measures.
Lesson 4 • Chemical PPE and Respiratory Protection
Identifies appropriate gloves, aprons, goggles, and respirators for electrolyte and off-gas exposure. Explains fit testing and cartridge selection for respiratory hazards.
Lesson 5 • PPE Inspection, Maintenance, and Disposal
Establishes pre-use inspection criteria, storage requirements, and end-of-life disposal for battery PPE. Prevents use of degraded equipment that provides false protection.
Chapter 5HideHide detailsSee detailsSafe Handling and Storage Procedures
Safe Handling and Storage Procedures
Lesson 1 • Battery Storage Area Requirements
Specifies temperature ranges, segregation distances, fire-rated storage, and signage for battery storage areas. Aligns physical layout with hazard control principles.
Lesson 2 • Internal Transport and Staging
Addresses cart selection, securing methods, and route planning for moving batteries within a facility. Minimises mechanical damage and electrical hazard exposure during transit.
Lesson 3 • Receiving and Incoming Inspection
Defines inspection steps for verifying packaging integrity, labelling, and visible damage upon delivery. Prevents damaged or non-compliant batteries from entering service.
Lesson 4 • State-of-Charge Management in Storage
Explains optimal storage charge levels, periodic maintenance charging, and monitoring schedules. Prevents capacity loss, lithium plating, and over-discharge damage.
Lesson 5 • Manual Handling and Lifting Techniques
Covers ergonomic lifting, mechanical aids, and team-lift protocols for heavy battery packs. Reduces musculoskeletal injury and drop-related damage risk.
Chapter 6HideHide detailsSee detailsCharging Safety and Battery Management Systems
Charging Safety and Battery Management Systems
Lesson 1 • Battery Management System Functions
Explains cell balancing, overvoltage, undervoltage, overcurrent, and temperature protection functions of a BMS. Connects BMS operation to hazard prevention during charge and discharge.
Lesson 2 • Recognising Charging Faults and Anomalies
Trains recognition of overcharge symptoms, abnormal heat, swelling, and error codes during charging. Enables early intervention before a fault escalates to a thermal event.
Lesson 3 • Charging Environment Safety
Specifies ventilation, fire suppression, and clearance requirements for dedicated charging areas. Reduces ignition risk from off-gassing and thermal events during charging.
Lesson 4 • Charger Selection and Compatibility
Identifies compatibility criteria between chargers and battery chemistries, voltages, and capacities. Prevents mismatched charging that causes overcharge or thermal events.
Lesson 5 • Charging Methods and Protocols
Compares constant-current, constant-voltage, and multi-stage charging algorithms. Explains how protocol selection affects safety and battery longevity.
Chapter 7HideHide detailsSee detailsEmergency Response to Battery Incidents
Emergency Response to Battery Incidents
Lesson 1 • Battery Fire Suppression Techniques
Explains extinguishing agent selection, cooling water application, and suppression limitations for lithium battery fires. Addresses re-ignition risk and extended cooling requirements.
Lesson 2 • Electrolyte Spill Response
Details decontamination steps, neutralisation agents, and waste disposal for acid and lithium-salt electrolyte spills. Prevents secondary chemical exposure during cleanup.
Lesson 3 • Post-Incident Procedures and Reporting
Establishes scene preservation, incident documentation, and regulatory notification steps after a battery event. Feeds data into root-cause analysis and corrective action processes.
Lesson 4 • Electrical Injury First Aid
Covers safe victim rescue from energised sources, shock first aid, and arc burn treatment priorities. Emphasises scene safety before any contact with an injured person.
Lesson 5 • Incident Recognition and Initial Assessment
Covers early warning signs of thermal runaway, fire, and chemical release in battery systems. Trains rapid scene assessment before committing to a response action.
Chapter 8HideHide detailsSee detailsBattery Inspection, Testing, and End-of-Life Management
Battery Inspection, Testing, and End-of-Life Management
Lesson 1 • Routine Visual and Physical Inspection
Defines inspection intervals, checklist items, and pass/fail criteria for battery visual assessments. Establishes a baseline for detecting degradation before it becomes a hazard.
Lesson 2 • Thermal Imaging and Advanced Diagnostics
Applies infrared thermography and ultrasonic testing to detect hot spots and internal defects. Extends diagnostic capability beyond what visual and electrical tests reveal.
Lesson 3 • Recycling, Disposal, and Second-Life Options
Covers hazardous waste classification, approved recycling pathways, and second-life repurposing criteria for spent batteries. Ensures environmental compliance and resource recovery.
Lesson 4 • Electrical Diagnostic Testing
Covers voltage measurement, impedance spectroscopy, capacity testing, and insulation resistance checks. Links test results to actionable maintenance or replacement decisions.
Lesson 5 • Determining End-of-Life and Decommissioning
Establishes capacity fade thresholds, safety criteria, and decommissioning procedures for retiring batteries. Prevents continued use of batteries that pose unacceptable risk.
Your valid completion certificate
This course is for you:
Maintenance technician: regularly services equipment powered by battery systems.
Workplace safety coordinator: needs structured battery hazard knowledge for compliance duties.
EV service apprentice: entering a field where high-voltage battery work is routine.
Warehouse or logistics supervisor: oversees battery-powered forklifts and charging operations daily.
Career changer: moving into clean energy or electrification roles from an unrelated field.
Facilities manager: responsible for stationary storage systems installed at a commercial site.
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