What you'll learn

Define energy storage and its role in electric vehicles.
Explain the working principles of lithium-ion, solid-state, and other EV batteries.
Describe the structure of an EV battery pack, including cells, modules, and cooling systems.
Understand charge/discharge cycles, C-rate, state of charge (SoC), and depth of discharge (DoD).

Course content

8 sections • 40 lectures • 2h 36m total length

Lecture 1.1 Course Overview-What You Will Learn3:21
Lecture 1.2 Why Energy Storage is Important for EVs3:15
Lecture 1.3 Types of Energy Storage – Batteries vs. Other Technologies3:42
Compare batteries with other energy storage methods to understand their advantages and challenges in electric vehicles, including lithium-ion, solid-state, lead-acid, supercapacitors, hydrogen fuel cells, and future multi-technology approaches.
Lecture 1.4 Basics of How Batteries Work3:41
Lecture 1.5 Evolution of Energy Storage in Electric Vehicles4:30

Lecture 2.1 Understanding Voltage, Capacity, and Energy Density4:20
Understand voltage, capacity, and energy density in EV batteries, and how higher voltage boosts power and charging speed, while greater capacity and energy density improve range and efficiency.
Lecture 2.2 How Batteries Store and Release Energy3:47
Lecture 2.3 Different Types of EV Batteries (Lithium-ion, Solid-state, etc.)5:45
Lecture 2.4 Key Battery Components – Anode, Cathode, Electrolyte3:51
Learn how the anode stores lithium ions and the cathode receives them. Understand how the electrolyte enables ion movement between components and supports safe, efficient EV energy.
Lecture 2.5 How Battery Performance is Measured4:43

Lecture 3.1 Why Lithium-Ion is the Preferred Choice for EVs4:24
Lecture 3.2 Battery Chemistry – NMC vs. LFP vs. Other Chemistries4:16
Compare lithium-ion chemistries—NMC, NCA, and lithium iron phosphate—examining energy density, safety, lifespan, and costs to determine best fits for long-range, safe, affordable EVs.
Lecture 3.3 Battery Charging and Discharging Process3:41
Lecture 3.4 Thermal Management in Lithium-ion Batteries(1)4:16
Lecture 3.5 Safety Considerations for Lithium-ion Batteries4:09

Lecture 4.1 Introduction to Solid-State Batteries4:23
Lecture 4.2 Supercapacitors and Their Role in EVs3:58
Lecture 4.3 Hydrogen Fuel Cells vs. Batteries3:49
Explore how hydrogen fuel cells generate electricity from hydrogen and compare them to lithium-ion batteries in energy storage, range, refueling, efficiency, and cost for electric vehicles.
Lecture 4.4 Hybrid Energy Storage Systems4:38
Explore hybrid energy storage systems that combine batteries, supercapacitors, and fuel cells to boost EV performance, efficiency, charging speed, and battery life.
Lecture 4.5 Future Trends in Energy Storage Technologies(1)4:42

Lecture 5.1 What is a Battery Management System (BMS)5:08
Understand how the battery management system, or BMS, acts as the brain of an EV battery by monitoring health. It balances cells and prevents overheating and overcharge to improve safety.
Lecture 5.2 Monitoring Battery Health and Safety4:40
Lecture 5.3 Balancing Cells for Longer Battery Life4:18
Lecture 5.4 Thermal and Voltage Management in BMS4:16
Explore how the BMS controls thermal and voltage to keep batteries safe, preventing overheating and overcharging with temperature sensors, cooling systems, and cell balancing.
Lecture 5.5 How BMS Helps Prevent Battery Failures4:14

Lecture 6.1 Understanding Fast Charging vs. Slow Charging3:35
Lecture 6.2 Charging Infrastructure and How It Works3:26
Lecture 6.3 Factors That Affect Battery Life3:02
Explore factors that affect electric vehicle battery life, including charging habits, depth of discharge, temperature, driving style, and maintenance, with practical tips to extend range and lifespan.
Lecture 6.4 Battery Degradation and How to Minimize It3:53
Understand battery degradation, what causes it, and how it reduces EV range. Minimize wear with slow charging, avoid high temperatures and fast charging, keep 20–80%, drive smoothly, and update software.
Lecture 6.5 Second Life of EV Batteries & Recycling3:40
Explore how EV batteries gain a second life through reuse in home energy storage, backup power, and charging stations, and how recycling recovers materials.

Lecture 8.1 Innovations in Battery Technology3:21
Lecture 8.2 The Role of AI and Smart Energy Storage3:19
Lecture 8.3 Solid-State Batteries – A Game Changer2:42
Lecture 8.4 How EV Batteries Will Shape the Future of Transportation4:20
Lecture 8.5 Final Thoughts and Course Wrap-Up3:12
Explore the essentials of energy storage for electric vehicles, including battery types, BMS, charging strategies, and recycling, and preview the future of safer, higher density, faster charging EV batteries.

Requirements

Familiarity with EV components like motors, batteries, and inverters is useful but not mandatory.
A basic grasp of electricity concepts like current, voltage, power, and energy will help in understanding battery systems.
No prior experience required, just curiosity about how EV batteries work and evolve.
Ability to understand simple equations and units related to energy, efficiency, and power.
This course focuses on concepts and applications, not coding or simulation tools (unless specified in advanced modules).

Description

Electric vehicles (EVs) are transforming the transportation industry, and at the heart of every EV lies a powerful and intelligent energy storage system. This course, "Energy Storage for Electric Vehicles," offers a comprehensive introduction to the technologies, components, and principles behind energy storage systems used in modern EVs.

Whether you're a student, engineer, EV enthusiast, or professional entering the electric mobility space, this course is designed to provide you with practical, easy-to-understand knowledge—starting from the basics and gradually advancing to more complex topics.

In this course, you’ll dive into battery technologies such as lithium-ion, solid-state, and emerging alternatives. You’ll learn how EV batteries are structured—from individual cells to entire battery packs—and how they store and deliver energy. We will also explore critical concepts like energy density, power density, state of charge (SoC), depth of discharge (DoD), and C-rate.

A major focus of this course is understanding the Battery Management System (BMS)—the brain behind the battery pack. You’ll discover how BMS ensures safe operation, monitors health, balances charge levels, and prevents hazards like thermal runaway.

Additionally, you’ll gain valuable insights into charging technologies including Level 1, Level 2, and DC fast charging, as well as the role of supercapacitors and hybrid storage systems. We’ll also cover thermal management systems, safety standards, and recycling practices that are critical to the longevity and sustainability of EV batteries.

What You’ll Learn:

The role of energy storage in electric vehicles
Working principles of various EV battery chemistries
Battery pack architecture: cells, modules, and configuration
Key performance metrics of EV batteries
Functions and design of Battery Management Systems (BMS)
Charging methods and infrastructure
Supercapacitors and hybrid energy storage systems
Thermal management and safety systems
Future trends: solid-state, sodium-ion, and second-life batteries

Who This Course Is For:

Engineering students and graduates (electrical, electronics, mechanical, etc.)
EV enthusiasts and hobbyists
Automotive and energy industry professionals
Entrepreneurs and product developers in the EV domain
Researchers, educators, and policy-makers interested in EV technologies

No prior experience with EVs or battery systems is needed—just a curiosity and eagerness to learn! The course is structured to explain technical concepts in simple, visual, and engaging ways, with real-world examples and applications.

By the end of the course, you'll have a solid understanding of how energy storage works in electric vehicles and how it is shaping the future of clean transportation.

Enroll now and become part of the EV revolution!

Who this course is for:

Especially those in electrical, mechanical, electronics, automotive, or renewable energy streams who want to build a strong foundation in EV battery systems.
Individuals passionate about electric vehicles who want to understand how energy storage works in EVs—from battery chemistry to charging technologies.
Engineers and technical staff looking to transition into or grow within the electric mobility industry.
Those working in energy, sustainability, or electric vehicle research and development.
Founders and product developers who want a practical, technical understanding of energy storage systems to inform business decisions.
People involved in EV policy, sustainability planning, or urban mobility who want to learn the technical basics to better guide strategies and decisions.

What you'll learn

Explore related topics

Course content

Section 1 Introduction to Energy Storage in EVs5 lectures • 18min

Section 2 Fundamentals of Battery Technology5 lectures • 22min

Section 3 Lithium-ion Batteries for EVs5 lectures • 21min

Section 4 Alternative Energy Storage Technologies5 lectures • 22min

Section 5 Battery Management Systems (BMS)5 lectures • 23min

Section 6 Charging and Battery Lifecycle5 lectures • 18min

Section 7 Energy Efficiency and Environmental Impact5 lectures • 16min

Section 8 Future of Energy Storage in EVs5 lectures • 17min

Requirements

Description

Who this course is for: