Electric Vehicle Charging Course

Lesson 1 • How Electric Vehicles Work

Covers EV drivetrain components, motor types, and energy conversion. Establishes the technical baseline needed for all subsequent charging concepts.

Lesson 2 • Electrical Safety Fundamentals

Introduces high-voltage hazards, personal protective equipment, and lockout procedures. Safe work practices underpin every hands-on charging task.

Lesson 3 • Battery Pack Architecture

Examines cell chemistry, pack construction, and thermal management. Understanding pack design is essential for grasping charging behaviour and limits.

Lesson 1 • Charging Level Classifications

Defines Level 1, Level 2, and DC fast charging by power range and use case. Provides the framework for comparing all charger types discussed later.

Lesson 2 • Communication Protocols Between EV and Charger

Explains pilot signal, PLC-based, and wireless communication methods. Protocol knowledge is required for diagnosing charging faults and configuring smart chargers.

Lesson 3 • Regulatory and Standards Bodies

Identifies the organisations that publish EV charging standards and how standards evolve. Awareness of standards bodies helps practitioners stay current with compliance requirements.

Lesson 1 • On-Board Charger Operation

Explains how the vehicle's on-board charger converts AC grid power to DC for the battery. OBC limits determine maximum AC charging speed for any vehicle.

Lesson 2 • Three-Phase Commercial AC Charging

Addresses three-phase power delivery, load balancing, and multi-port station design. Commercial AC stations serve workplaces, parking facilities, and fleet depots.

Lesson 3 • EVSE Commissioning and Testing

Details the steps to commission, verify, and document an AC EVSE installation. Proper commissioning ensures safety, performance, and warranty compliance.

Lesson 1 • DCFC Power Electronics Architecture

Examines rectifier stages, power modules, and output filtering in fast chargers. Understanding internal architecture enables accurate fault diagnosis and component replacement.

Lesson 2 • High-Power Charging Infrastructure

Covers 150 kW to 350 kW station design, cable cooling, and grid connection requirements. High-power sites demand specialised civil, electrical, and thermal engineering.

Lesson 3 • DCFC Maintenance and Fault Diagnosis

Provides systematic procedures for preventive maintenance and fault isolation on DCFC units. Structured diagnostics reduce downtime and extend equipment service life.

Lesson 1 • Grid Fundamentals for Charging Professionals

Reviews distribution grid topology, voltage levels, and power quality parameters relevant to EVSE. Grid literacy is prerequisite to designing compliant and stable charging sites.

Lesson 2 • Demand Charge and Tariff Structures

Explains peak demand charges, time-of-use rates, and their financial impact on charging operations. Tariff understanding drives smart scheduling and cost optimisation decisions.

Lesson 3 • Smart Charging and Load Management

Covers dynamic load balancing, scheduled charging, and OCPP-based control. Smart charging maximises available capacity without costly grid upgrades.

Lesson 4 • Renewable Energy and Charging Sites

Integrates solar PV and wind generation with EV charging infrastructure. Renewable coupling reduces operating costs and supports sustainability goals.

Lesson 1 • Network Monitoring and Reporting

Teaches dashboard interpretation, alert configuration, and KPI reporting for charging networks. Continuous monitoring enables proactive maintenance and business performance tracking.

Lesson 2 • OCPP Protocol Deep Dive

Examines OCPP message types, transaction flows, and version differences. Mastery of OCPP enables precise configuration and rapid fault isolation on networked chargers.

Lesson 3 • Charging Network Architecture

Maps the relationships among charge points, central systems, and back-end platforms. Network architecture knowledge is foundational for configuration and troubleshooting tasks.

Lesson 4 • Firmware Updates and Remote Management

Details over-the-air firmware update procedures, rollback strategies, and remote diagnostics. Remote management reduces truck rolls and keeps chargers secure and current.

Lesson 1 • Fleet Charging Needs Assessment

Guides data collection on vehicle duty cycles, dwell times, and energy requirements. Accurate needs assessment prevents under- or over-investment in depot infrastructure.

Lesson 2 • Fleet Energy Management Systems

Introduces fleet-level energy management software for scheduling, prioritisation, and cost control. Automated scheduling minimises demand charges while ensuring vehicles depart fully charged.

Lesson 3 • Charger Selection and Layout Planning

Matches charger power levels and quantities to fleet operational requirements and site constraints. Layout planning ensures safe vehicle access, cable reach, and maintenance clearance.

Lesson 4 • Depot Project Execution and Commissioning

Outlines the project phases from permitting through commissioning and handover for depot builds. Structured execution reduces delays and ensures all systems are verified before fleet operation.

Lesson 1 • Ultra-Fast and Megawatt Charging

Addresses megawatt charging system design for heavy-duty trucks and high-power passenger vehicles. MCS infrastructure requires advanced grid, thermal, and safety engineering.

Lesson 2 • Artificial Intelligence in Charging Operations

Applies machine learning to predictive maintenance, demand forecasting, and dynamic pricing. AI-driven operations improve uptime, reduce costs, and enhance user experience.

Lesson 3 • Evaluating Emerging Charging Technologies

Provides a framework for assessing technology maturity, standards readiness, and business viability. Structured evaluation prevents premature adoption of unproven technologies.

Lesson 4 • Wireless and Inductive Charging

Covers magnetic resonance and inductive power transfer principles for stationary and dynamic charging. Wireless charging eliminates connectors and enables autonomous vehicle charging scenarios.