Electric Vehicle Battery Management System

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Electric Vehicle Battery Management System

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Overview of Electric Vehicle Battery Management System

Electric Vehicle Battery Management System course provides in-depth knowledge of Battery Management System for Electric Vehicles, focusing on Battery Monitoring, Energy Storage, and Battery Safety. Learners understand State of Charge estimation, Power Efficiency, and Charging Control fundamentals. This course builds strong foundation for modern electric mobility systems and reliable battery-powered transportation solutions.

Comprehensive curriculum covers Passive Cell Balancing, Voltage Measurement, Current Measurement, and Temperature Measurement in Battery Management System design. It also explains Coulomb Counting, Lithium-ion Battery Cell Modeling, and accurate Battery Monitoring techniques. Students gain practical insights into State of Charge calculation, Power Efficiency improvement, and advanced Battery Safety strategies for Electric Vehicles.

The course also explores MCU for BMS, BMS IC Selection, Power Management, and Charging Control systems. Learners study UART, I2C, SPI, and CAN Communication protocols essential for Battery Management System integration. It concludes with practical BMS Design for 12V application, enabling efficient Energy Storage control and reliable Electric Vehicles performance optimization.

The course was audited and updated on: 11th June, 2026

Learning Outcomes of Electric Vehicle Battery Management System

Certification

one education Certificate

After completing the Electric Vehicle Battery Management System course assessment, you will be eligible to receive a CPD-accredited certificate worth £9 from One Education to demonstrate your achievement.

The certificate is also available as a printed hard copy delivered by post for £15.

Why Study This Electric Vehicle Battery Management System Course?

Electric Vehicle Battery Management System is essential in the rapidly growing electric mobility industry, where efficient energy storage and battery safety are critical for vehicle performance and reliability. This course helps learners understand how battery systems in electric vehicles are monitored and controlled.

Studying this course develops skills in energy management, system diagnostics, and battery performance optimization. It prepares professionals to oversee battery health, improve efficiency, and ensure safe and reliable operation of electric vehicle power systems.

Course Duration

The Electric Vehicle Battery Management System course has a total study time of 8 hours, 53 minutes. Learners can work through the material at a flexible pace, enabling them to complete the programme conveniently while developing practical knowledge of EV battery systems, energy management, and battery performance optimization technologies.

Requirements

The Electric Vehicle Battery Management System course is suitable for learners with a basic understanding of electrical engineering, automotive systems, or renewable energy technologies. Strong analytical thinking, technical curiosity, and problem-solving skills are recommended. The course is fully online and accessible from any internet-enabled device, allowing flexible study at your own pace and convenience.

Career Path

Frequently Asked Questions

It focuses on how EV battery systems are monitored and controlled, including battery performance, charging/discharging management, thermal control, safety systems, and battery life optimisation.

Yes, a background in electrical engineering, electronics, automotive engineering, or related technical fields is usually recommended.

It is usually delivered online through technical modules, system simulations, and case studies in electric vehicle technology.

Yes, most courses include technical quizzes, system analysis tasks, and EV battery design exercises.

You will receive a certificate of completion in Electric Vehicle Battery Management System.

You can work as an EV Systems Engineer, Battery Engineer, Automotive Engineer, Energy Storage Technician, or R&D Assistant in electric mobility companies.

Course Curriculum

Section 01 - Introduction
Introduction 00:03:00
Section 02 - Passive Cell Balancing
Passive Cell Balancing: Working Principle 00:09:00
Passive Cell Balancing: Hardware Circuit Design 00:06:00
Passive Cell Balancing: Balancing Current deciding factor 00:06:00
Passive Cell Balancing: Calculations 00:08:00
Passive Cell Balancing: Assignment 00:02:00
Section 03 - Voltage Measurement
Voltage Measurement in Battery management system 00:02:00
Voltage Measurement: Hardware circuit design 00:04:00
Voltage Measurement: Component selection techniques 00:06:00
Section 04 - Current Measurement
Current Measurement: Battery Pack 00:05:00
Current Measurement: Current Sense Resistor-based Hardware Circuit 00:09:00
Current Measurement: Assignment 00:02:00
Current Measurement: Sense Resistor and External amplifier 00:08:00
Current Measurement with Sense Resistor and External Amplifier: Assignment 00:02:00
Current Measurement: Hall Effect sensor 00:07:00
Current Measurement: Datasheet understanding 00:10:00
Current Measurement: Calculations 00:06:00
Current Measurement using Hall Sensor: Assignment 00:02:00
Section 05 - Temperature Measurement
Temperature Measurement: In BMS 00:10:00
Temperature Measurement: Thermistor Calculation 00:13:00
Temperature Measurement: Assignment 00:02:00
Section 06 - Coulomb Counting
Coulomb Counting – SoC Estimation 00:05:00
Coulomb counting: Calculation 00:03:00
Coulomb counting: Assignment 00:07:00
Section 07 - BMS IC Selection
What parameters are taken to select your right BMS IC? 00:13:00
A tour to Texas Instrumentsfor BMS IC selection 00:09:00
A tour to Texas Instruments: Battery Protectors 00:10:00
A tour to Texas Instruments: Battery Monitors and Balancers 00:09:00
A tour to Texas Instruments: Fuel Gauge IC 00:13:00
Section 08 - MCU for BMS
MCU for BMS: Basics 00:04:00
MCU for BMS: Selection Technique 00:07:00
MCU for BMS: Assignment 00:02:00
Section 09 - Lithium-ion Battery Cell Modeling
Cell Modeling 1 00:02:00
Cell Modeling 2 00:02:00
Cell Modeling 3 00:09:00
Cell Modeling 4 00:08:00
Cell Modeling 5 00:14:00
Section 10 - UART Communication
Communication Protocol 1 00:05:00
Communication Protocol 2.1 00:10:00
Communication Protocol 2.2 00:07:00
Communication Protocol 2.3 00:07:00
Communication Protocol 2.4 00:06:00
UART Demo 1 00:12:00
UART Demo 2 00:07:00
Section 11 - I2C Communication
I2C communication protocol 1 00:06:00
I2C communication protocol 2 00:04:00
I2C communication protocol 3 00:06:00
I2C communication protocol 4 00:12:00
I2C communication protocol 5 00:04:00
I2C communication protocol 6 00:05:00
I2C communication protocol 7 00:14:00
I2C Demo 2 00:15:00
Section 12 - SPI Communication
SPI Communication 1 00:06:00
SPI Communication 2 00:07:00
SPI Communication 3 00:06:00
Section 13 - CAN Communication
CAN Communication 1.1 00:03:00
CAN Communication 1.2 00:04:00
CAN Communication 1.3 00:06:00
CAN Communication 1.4 00:07:00
CAN Communication 1.5 00:04:00
CAN Communication 1.6 00:06:00
CAN Communication 1.8 00:05:00
Section 14 - Power Management
Power management 1 00:04:00
Power management 2 00:04:00
Power management 3 00:04:00
Power management 4 00:05:00
Section 15 - BMS Design for 12V application
BQ76925 Datasheet: Part 1 00:09:00
BQ76925 Datasheet: Part 2 00:09:00
BQ76925 Datasheet: Part 3 00:14:00
BQ76925 Datasheet: Part 4 00:13:00
BQ76925 Reference Design: 1 00:10:00
BQ76925 Reference Design: 2 00:06:00
BQ76925 Reference Design: 3 00:06:00
BQ76925 Reference Design: 4 00:15:00
BQ76925 Reference Design: 5 00:05:00
BQ76925 Reference Design: 6 00:07:00
BQ76925 Reference Design: 7 00:06:00
Section 16 - Thank you
Thank you 00:03:00
Downloadable Resources
Resource – Electric Vehicle Battery Management System 00:00:00
Order Your Certificate
Order Your Certificate Now 00:00:00
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