TechnoS Centre of Excellence

This course offers an in-depth understanding of the heart of every EV — its battery. This course explores how modern lithium-ion and emerging battery technologies power electric mobility. Learners will discover how batteries are designed, managed, and maintained for optimal performance, safety, and longevity. Through practical insights and real-world examples, the course builds skills in battery chemistry, Battery Management Systems (BMS), charging mechanisms, and thermal management — empowering students to become future-ready professionals in the growing EV industry.

Course Fees
3500
2000 (incl. GST)
  •  
43% off

About this course

Battery Systems Course provides an overview of energy storage technologies with a focus on batteries used in electric vehicles and renewable energy applications. The course covers battery chemistry, cell design, modules, and packs, along with charging methods, thermal management, safety, and lifecycle performance. Students will gain practical insights into battery integration, maintenance, and emerging innovations in sustainable energy storage.

This course provides essential knowledge and practical training to build industry-relevant skills.

Fees: ₹3500, ₹2000 (incl. GST) (Excluding tools & equipment cost)

Certification: TCoE

Duration: 72 Hours (2 hours/day x 6 days/week x 6 weeks) OR at your own pace

What you'll learn

After this course you will be able to:

Course Content

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  • This module introduces learners to the fundamentals of batteries used in electric systems, focusing on their types, construction, capacity, voltage, and performance characteristics.
  • It covers how batteries store and deliver energy to motors and controllers, as well as key considerations such as efficiency, safety, and lifespan.
  • Understanding battery fundamentals equips students with the knowledge to select, operate, and maintain power sources for motor-controller systems effectively.
  • This module provides an overview of the global and regional battery markets, with a focus on applications in electric vehicles and motor-controller systems.
  • It covers market trends, key battery technologies, major manufacturers, and emerging innovations.
  • Learners will gain insights into the demand for different battery types, pricing factors, and future opportunities, helping them understand the commercial and technological landscape that drives motor and controller development.
  • This module familiarizes learners with the essential tools and equipment required for working with motors, controllers, and their associated electrical systems.
  • It covers hand tools, multimeters, oscilloscopes, power analyzers, torque meters, soldering tools, and safety equipment.
  • Students will learn proper handling, usage, and maintenance of these tools, building a strong foundation for hands-on assembly, testing, and troubleshooting of motor-controller systems.
  • This module introduces learners to the fundamental concepts of electrochemical cells, the building blocks of batteries used in motor-controller systems.
  • It covers cell types, construction, voltage, capacity, energy density, and charging-discharging principles.
  • Understanding cell fundamentals equips students with the knowledge to design, select, and integrate battery cells effectively for powering motors and controllers in various applications.
  • This module introduces learners to the principles of designing battery packs for motor-controller systems.
  • It covers series and parallel cell configurations, voltage and capacity calculations, thermal management, and safety considerations.
  • Students will learn how to assemble efficient and reliable battery packs that provide the required power and energy for motors, ensuring optimal performance and longevity of motor-controller applications.
  • This module guides learners through the practical process of assembling battery packs for motor-controller systems.
  • It covers arranging cells in series and parallel, connecting battery management systems (BMS), ensuring secure wiring, and applying safety precautions during assembly.
  • Emphasis is placed on accuracy, reliability, and testing, enabling students to build functional battery packs that safely deliver power to motors and controllers.
  • This module focuses on evaluating the performance and reliability of battery packs used in motor-controller systems.
  • Learners will explore methods to test voltage, current, capacity, and overall functionality, as well as identify common faults such as cell imbalance, short circuits, and connectivity issues.
  • Emphasis is placed on systematic testing, safety precautions, and troubleshooting techniques, enabling students to maintain, diagnose, and repair battery packs effectively.
  • This module focuses on diagnosing and repairing faults in battery packs used for motor-controller systems.
  • Learners will explore techniques to identify damaged cells, faulty connections, and BMS issues, along with safe repair methods and preventive maintenance practices.
  • Emphasis is placed on safety, accuracy, and restoring battery packs to reliable operation, equipping students with the skills to extend battery life and ensure optimal performance in motor-controller applications.

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See what our students have to say

With over a decade of experience, our mission is to produce future-ready skilled resources.

Before taking this course, I understood battery basics, but this training made me confident in designing battery packs and working with a Battery Management System. The hands-on labs and real case studies bridged the gap between theory and industry practice.
Archita
The modules on battery chemistry and thermal management were eye-opening. Using diagnostic tools to detect faults and optimize performance has completely changed how I view EV battery systems.
Rajeev K.
I joined to upgrade my skills. Learning about how lithium-ion cells age, how to measure State of Health (SOH), and how to apply cell balancing in battery pack design has been immensely helpful. It has already started reflecting in my project outcomes.
Anamika K.
What I appreciated most was the way instructors explained real-world challenges — safety standards, BMS failures, and thermal runaway scenarios. The course made complex topics accessible, and I feel equipped to join the EV sector with confidence.
Kanishk K.

Battery Management System (BMS)

The Battery Management System (BMS) is the brain of an electric vehicle’s battery pack. This topic focuses on how the BMS monitors and controls critical parameters like voltage, current, temperature, and state of charge (SoC) to ensure safe and efficient battery operation. Learners will explore how the BMS balances cells, prevents overcharging or deep discharging, detects faults, and communicates with other EV systems. Mastering this topic helps students understand how to maintain battery health, extend lifespan, and ensure vehicle safety — a vital skill for anyone entering the EV industry.

Job Opportunities

Here are some interesting job opportunities after completing the Battery Systems course:

  1. Battery Design Engineer – Work on designing and developing advanced lithium-ion and solid-state battery packs for electric vehicles.

  2. Battery Testing & Validation Engineer – Conduct performance, durability, and safety tests to ensure batteries meet EV industry standards.

  3. Battery Management System (BMS) Engineer – Develop and optimize BMS algorithms for monitoring, protection, and energy balancing within battery packs.

  4. Thermal Management Engineer – Design systems that regulate battery temperature, ensuring efficiency and preventing overheating or thermal runaway.

  5. Battery Maintenance & Diagnostics Technician – Diagnose, repair, and maintain EV battery systems in service centers or fleet maintenance facilities.

  6. Energy Storage System Engineer – Apply EV battery expertise to design and manage stationary energy storage systems for renewable energy integration.

  7. R&D Engineer – Battery Materials – Research new electrode materials, electrolytes, and technologies to improve energy density and battery life.

  8. Production & Quality Control Engineer – Supervise battery pack assembly, quality assurance, and safety compliance in EV manufacturing plants.

Frequently asked questions

This course provides a complete understanding of how batteries — the heart of electric vehicles — are designed, managed, and maintained. It covers everything from battery chemistry and pack design to Battery Management Systems (BMS), charging, and safety protocols.

Anyone passionate about electric vehicles! It’s perfect for engineering and diploma students, technicians, EV enthusiasts, and professionals looking to upskill in EV technology.

You’ll learn how to analyze battery performance, test and diagnose faults, understand BMS operation, and explore the latest technologies in EV batteries and charging systems.

Not necessarily. The course starts with the basics and gradually builds to advanced topics — making it suitable for beginners as well as professionals.

As the EV market rapidly expands, there’s a growing demand for skilled professionals in battery technology. Completing this course opens doors to roles like Battery Engineer, BMS Specialist, and Testing Engineer.