⚡ IISE • Technical Partner: CERT

Mobility Lithium Ion Battery Training Course

Build Practical Expertise in Lithium-Ion Battery Technology, EV Battery Systems and Battery Management.

Develop industry-relevant knowledge of lithium-ion battery technology through structured online learning, technical demonstrations, practical training components and industrial case studies.

  • 3-Month Comprehensive Technical Training Programme
  • Online Live Classes + Recorded Lecture Archives
  • Practical Learning Components & Technical Demonstrations
  • Joint IISE + CERT Certificate of Completion
  • Eligibility: 10+2, ITI, Diploma, Graduates, Engineers & Working Professionals
Special Admission Offer 40% Discount • Save ₹8,000
Regular: ₹19,999 ₹11,999
Application Fee: ₹999 • Balance Payment: ₹11,000 • EMI Facility Available
Balance payable according to the admission payment schedule.
Apply Now — Pay ₹999 Application Fee
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Lithium Ion Battery Training Course
Institutional Details
Organisation: Indian Institute of Solar Energy (IISE)
A Unit of CERMS India Foundation
Technical Partner: Centre for Energy Research and Training (CERT)
Enrolment: Online Admission Open • Batches Available

Course Quick Facts - Lithium Ion Battery Training Course

Essential programme specifications at a glance

Programme Duration
3 Months
Weekend & evening schedules
Learning Mode
Online Live Classes
Interactive + recorded archives
Practical Learning
Technical Demonstrations
Guided practical components & case studies
Certification
IISE + CERT Joint Certificate
Unit of CERMS India Foundation
Course Fee
₹11,999 Offer Price
Regular: ₹19,999 (40% discount / Save ₹8,000)
Application Fee
₹999 to Lock Seat
Balance ₹11,000 via admission schedule
Candidate Eligibility
10+2, ITI, Diploma, Degree
Engineers & working professionals
Programme Category
EV Battery & Energy Storage
Mobility, BMS & battery technology

About the Programme

Understanding the critical importance of lithium-ion battery technology in modern mobility

The Vital Role of Lithium-Ion Batteries in Modern Mobility

Lithium-ion batteries are the foundational power source for the global transition toward electric transportation and clean energy storage. Across India, the electrification of road transport is expanding at an unprecedented rate across multiple segments:

  • Electric Two-Wheelers: High-density portable and fixed battery packs for daily urban commuting.
  • Electric Three-Wheelers: High-cycle passenger e-rickshaws and cargo loaders powering last-mile logistics.
  • Electric Cars & Passenger Vehicles: High-voltage liquid-cooled modular battery packs engineered for range and high-rate fast charging.
  • Commercial Electric Vehicles & Buses: Large-format heavy-duty energy storage systems for urban public transport.
  • Battery Swapping Networks: Standardized swappable battery architectures requiring rigorous automated testing and lifecycle tracking.
  • Stationary Battery Energy Storage Systems (BESS): Grid-tied and solar-integrated energy storage systems for microgrids and commercial backup.

As battery technology advances, industrial manufacturers, fleet operators, and service centers require qualified professionals who understand the electrochemical, electrical, and thermal behavior of lithium-ion systems.

Why Battery Professionals Need Core Technical Mastery

Working with high-energy lithium-ion battery packs requires strict scientific discipline, safety adherence, and multi-disciplinary engineering insight:

✔ Cell Chemistry Selection: NMC, LFP, and LTO trade-offs for Indian operating climates.
✔ Electrical Architecture: Series & parallel string matching, busbar sizing, and voltage grouping.
✔ BMS Architecture: Real-time voltage, current, and temperature monitoring with safety cut-offs.
✔ Thermal Management: Preventing thermal runaway and ensuring uniform cell cooling.
✔ Diagnostics & Testing: Evaluating State of Charge (SOC), State of Health (SOH), and capacity degradation.
✔ Indian Compliance Standards: Understanding AIS 156 and AIS 038 homologation requirements.

Why Choose This Course?

Technical depth, industry relevance, and comprehensive battery systems knowledge

Growing Relevance of Battery Technology
India’s electric mobility and renewable energy storage ecosystem is expanding rapidly, creating continuous industrial demand for trained battery technicians and engineers.
Structured Technical Pedagogy
Curriculum structured logically from electrochemical fundamentals and cell selection to advanced BMS integration, thermal safety, and complete pack assembly concepts.
Comprehensive EV Battery Systems
Study real-world EV battery architecture: cylindrical (18650/21700), prismatic, and pouch cell modules, busbars, wiring harnesses, and enclosure design.
Rigorous BMS Engineering
Deep focus on Battery Management Systems: voltage, current, and temperature monitoring, active and passive balancing, SOC/SOH estimation, and CAN communication.
Testing, Diagnostics & Safety
Learn standard diagnostic procedures, internal resistance measurement, capacity testing, fault isolation, thermal runaway mitigation, and safe handling practices.
Entrepreneurship & Business Insights
Understand the battery industry value chain, battery service center setups, diagnostics clinics, pack assembly operations, and regulatory compliance considerations.

Learning Outcomes

Technical capabilities and core proficiencies developed through this programme

1
Understand fundamental electrochemistry, intercalation, and working principles of lithium-ion cells.
2
Evaluate and compare key battery chemistries: NMC, LFP, NCA, and LTO for specific mobility applications.
3
Interpret cell datasheets, cut-off voltages, nominal ratings, continuous C-rates, and energy densities.
4
Calculate voltage, capacity, and energy for series and parallel cell configurations (e.g., 48V, 60V, 72V packs).
5
Analyse EV battery pack mechanical architecture, modular layouts, busbars, insulation, and enclosures.
6
Master Battery Management System (BMS) architecture, master-slave topologies, and sensor wiring.
7
Understand cell balancing methods (passive bleeding vs active shuttling) and protection cut-offs.
8
Analyse CC-CV charging principles, fast-charging thermal limitations, and charger integration.
9
Measure and evaluate open-circuit voltage, internal resistance (AC/DC IR), and real discharge capacity.
10
Identify battery faults, cell degradation mechanisms, unbalanced strings, and insulation leakage.
11
Implement thermal management strategies, cooling concepts, and thermal runaway emergency SOPs.
12
Apply relevant standards (AIS-156, AIS-038, UN 38.3) and commercial pack sizing workflows.

Eligibility Criteria

Accessible educational criteria for technicians, students, engineers, and professionals

✔ 10+2 Pass Candidates
Candidates who have completed 10+2 with a science, mathematics or technical orientation and wish to pursue a career in electric mobility and battery technology.
✔ ITI Certificate Holders
Technicians holding ITI certificates in trades such as Electrician, Wireman, Motor Mechanic, Electronics Mechanic, Fitter, or related vocational disciplines.
✔ Diploma Engineers
Diploma holders in Electrical, Electronics, Mechanical, Automobile, Mechatronics, or Instrumentation Engineering looking to specialize in EV battery systems.
✔ Graduates & Engineers
Graduates in B.E. / B.Tech (Electrical, Mechanical, Automobile, EEE, ECE) and B.Sc / M.Sc Physics or Electronics seeking domain-specific battery competencies.
✔ Working Professionals
Engineers, supervisors, and technicians working in automotive, solar energy, power electronics, or manufacturing seeking formal lithium-ion battery upskilling.
✔ Aspiring Entrepreneurs
Founders, business owners, and investors planning to establish battery service centers, diagnostics clinics, pack assembly businesses, or distribution setups.
Admissions Note: Candidates from electrical, electronics, mechanical, and automobile backgrounds will find the syllabus directly relevant. Basic curiosity in electrical systems and energy storage is recommended.

Detailed Course Curriculum

A structured 12-module technical syllabus engineered by industry specialists

Module 1 Introduction to Battery Technology
7 Core Topics
  • Evolution of battery technology from lead-acid to advanced lithium chemistries
  • Primary (non-rechargeable) vs secondary (rechargeable) battery classifications
  • Electrochemical fundamentals: anode, cathode, electrolyte, and oxidation-reduction reactions
  • Battery terminology: nominal voltage, cut-off voltage, open-circuit voltage (OCV), and capacity (Ah)
  • Gravimetric energy density (Wh/kg) and volumetric energy density (Wh/L)
  • Power density (W/kg) vs energy density trade-offs across applications
  • Global and Indian battery storage landscape for mobility and stationary applications
Module 2 Lithium-Ion Cell Chemistry
8 Core Topics
  • Lithium-ion intercalation and de-intercalation working principles during charge and discharge
  • Anode materials: synthetic graphite, natural graphite, silicon-doped anodes, and LTO
  • Cathode materials: Nickel Manganese Cobalt (NMC), Lithium Iron Phosphate (LFP), NCA, and LMO
  • Electrolytes: liquid organic carbonates, lithium salts (LiPF6), and solid-state trends
  • Separator technologies: microporous polyolefin films, ceramic coatings, and thermal shutdown
  • In-depth comparative analysis: NMC vs LFP (cost, cycle life, thermal safety, energy density)
  • Lithium Titanate (LTO) chemistry for ultra-high cycle life and extreme temperature operation
  • Cell degradation mechanisms: SEI layer growth, lithium plating, capacity fade, and impedance rise
Module 3 Battery Cell Types and Configurations
8 Core Topics
  • Cell form factors: Cylindrical (18650, 21700, 4680), Prismatic, and Pouch cells
  • Mechanical construction, venting mechanisms, and terminal layouts of cell form factors
  • Cell datasheet interpretation: nominal ratings, standard charging current, pulse discharge C-ratings
  • Cell grading, sorting, and matching based on capacity, internal resistance (IR), and open-circuit voltage
  • Series configurations for voltage multiplication (e.g., 13S, 14S, 16S, 20S configurations)
  • Parallel configurations for capacity and current multiplication (e.g., 4P, 6P, 8P strings)
  • Mathematical pack calculations: total nominal voltage, total capacity (Ah), stored energy (kWh)
  • Module design principles and structural grouping fundamentals
Module 4 EV Battery Architecture
8 Core Topics
  • EV battery pack architectural hierarchy: cell level, module level, pack level, and vehicle integration
  • Modular pack design, inter-module busbars, cell holders, and mechanical spacing
  • Busbar engineering: copper vs aluminium busbars, cross-sectional sizing, resistance minimization
  • High-voltage and low-voltage electrical connectors, terminal studs, and wire harness routing
  • Enclosure considerations: sheet metal, aluminium extrusion, composite enclosures, and IP67/IP68 ingress sealing
  • Thermal interface materials (TIM): thermal pads, gap fillers, and structural adhesives
  • High-voltage safety components: manual service disconnect (MSD), contactors, pre-charge circuits, fuses
  • Battery pack sizing methodology based on vehicle range, motor power, and payload requirements
Module 5 Battery Management System (BMS)
10 Core Topics
  • Role and mission-critical importance of Battery Management Systems in lithium-ion packs
  • BMS architectural topologies: centralized, modular, and master-slave distributed architectures
  • Cell voltage monitoring: sampling precision, analog front-end (AFE) ICs, and voltage sensing lines
  • Current sensing techniques: precision low-side shunts and Hall-effect current transducers
  • Temperature monitoring: NTC thermistor placement, multi-point sensing, and thermal mapping
  • State of Charge (SOC) estimation: Coulomb counting method and OCV-SOC look-up correlation
  • State of Health (SOH) and State of Power (SOP) calculation principles
  • Cell balancing: passive resistive bleeding vs active capacitive/inductive charge shuttling
  • Multi-tier protection thresholds: overvoltage, undervoltage, overcurrent (charge/discharge), short circuit, over/under temperature
  • BMS communication protocols: UART, Bluetooth, and Controller Area Network (CAN 2.0B / CAN-FD) basics
Module 6 Battery Pack Assembly
9 Core Topics
  • Comprehensive battery pack assembly workflow from raw cell inspection to end-of-line testing
  • Incoming cell inspection: dimensional check, OCV measurement, 1kHz AC IR sorting and grouping
  • Cell arrangement in modular structural holders, polarity alternation, and orientation checks
  • Interconnection methods: spot welding (resistance welding) principles, nickel strip selection, laser welding concepts
  • Electrical insulation barriers: barley paper, Kapton polyimide tape, epoxy glass fiber (FR4) sheets
  • BMS voltage sense harness routing, soldering/crimping practices, and NTC thermistor bonding
  • Main positive and negative power terminal routing, fuse integration, and MSD placement
  • Pack closure, silicone gasket sealing, pressure vent placement, and quality assurance checkpoints
  • Note: Practical demonstrations and workflows are presented conceptually; hands-on physical assembly is subject to confirmed IISE delivery arrangements
Module 7 Battery Charging Systems
8 Core Topics
  • Lithium-ion charging physics and constant-current constant-voltage (CC-CV) charging profile
  • Constant Current (CC) phase: high-efficiency bulk charging and voltage ramping
  • Constant Voltage (CV) phase: cell saturation, current tapering, and termination thresholds
  • Multi-stage charging algorithms and temperature-compensated charging curves
  • Onboard chargers (OBC) vs offboard DC fast chargers in electric mobility applications
  • Charger-to-BMS communication handshakes and charging enable/disable safety interlocks
  • Common charging faults: over-temperature cut-off, reverse polarity, ground fault, and cell overvoltage
  • Safe charging protocols, ventilation requirements, and fire prevention guidelines
Module 8 Battery Testing and Diagnostics
8 Core Topics
  • Open-circuit voltage (OCV) measurement and voltage stabilization assessment
  • Discharge capacity testing: constant-current discharge testing using programmable DC electronic loads
  • Internal resistance (IR) measurement: 1kHz AC milliohm testing vs DC pulse resistance methods
  • Cell balancing verification: identifying weak cells, divergent delta voltage, and self-discharge rates
  • Battery degradation and cycle life assessment: tracking Ah capacity fade and impedance rise
  • Diagnostic troubleshooting: tracing high resistance joints, blown fuses, open sense leads, and faulty BMS FETs
  • Instrument usage: digital multimeters, AC IR testers, multi-channel battery cyclers, and thermal cameras
  • Test report documentation, baseline logging, and health certificate generation
Module 9 Battery Thermal Management and Safety
8 Core Topics
  • Internal heat generation mechanisms in lithium-ion cells: Joule heating and entropic electrochemical heat
  • Thermal management strategies: natural air cooling, forced air cooling, and liquid cold-plate cooling systems
  • Thermal runaway fundamentals: SEI decomposition, separator melting, electrolyte ignition, and exothermic chain reaction
  • Thermal propagation prevention: cell-to-cell barriers, aerogel insulation, and phase change materials
  • Fire, explosion, and electrical shock hazards associated with high-voltage battery packs
  • Battery handling safety: insulated tools, ESD protection, PPE, and non-conductive workbenches
  • Storage and transportation safety: state of charge limits for transit, UN 38.3 compliance, and dedicated battery warehousing
  • Emergency response procedures: Class D and lithium fire extinguishing protocols, emergency immersion, and toxic gas evacuation
Module 10 Industrial Applications and Case Studies
7 Core Topics
  • Electric Two-Wheeler Case Study: 48V/60V/72V NMC and LFP pack design, swappable vs fixed architecture
  • Electric Three-Wheeler Case Study: 48V/51.2V LFP heavy-duty cycle battery packs for commercial e-rickshaws
  • Electric Passenger Cars: 350V–400V high-voltage modular architectures with active liquid thermal loops
  • Commercial Fleets: Heavy commercial vehicle battery systems and high-current fast charging requirements
  • Battery Swapping Station Architecture: Swapping dock mechanics, automated thermal monitoring, and cloud-linked SOC management
  • Stationary Battery Energy Storage Systems (BESS): Solar-plus-storage integration, peak shaving, and microgrids
  • Battery Lifecycle Analysis: First-life mobility service, second-life stationary repurposing, and end-of-life recycling supply chains
Module 11 Battery Business and Entrepreneurship
8 Core Topics
  • Overview of the Indian battery ecosystem: raw materials, cell imports, pack assembly, and downstream services
  • Business model: Setting up an EV Battery Diagnostics & Health Testing Clinic
  • Business model: Independent EV Battery Servicing, Maintenance & Cell Rebalancing Center
  • Business model: Custom Light-EV Battery Pack Assembly and Prototyping Workshop
  • Capital expenditure (CapEx) and operational expenditure (OpEx) planning for battery service setups
  • Equipment procurement: sourcing certified test benches, spot welders, electronic loads, and safety systems
  • Regulatory compliance: Indian battery waste management rules, local industrial safety, and pollution control clearances
  • Customer acquisition, service level agreements (SLAs), and commercial warranty management
Module 12 Industrial Project and Assessment
7 Core Topics
  • Comprehensive Engineering Case Study: Analyzing real-world battery pack failure modes and root causes
  • Pack Sizing Exercise: Calculating cell count, series-parallel matrix, and BMS requirements for a specific EV vehicle duty cycle
  • BMS Parameter Configuration Exercise: Setting precise overvoltage, undervoltage, and thermal thresholds for an LFP/NMC pack
  • Diagnostic Troubleshooting Scenario: Evaluating live telemetry logs to locate unbalanced cell groups and high IR connections
  • Technical Project Documentation: Compiling a structured engineering test report following industrial standards
  • Final Objective & Descriptive Assessment covering all 12 curriculum modules
  • Joint IISE + CERT Certification Evaluation and Award

Practical Learning & Technical Demonstrations

Bridging theoretical science with real-world technical demonstrations and analytical workflows

Cell Identification & Voltage Measurement
Hands-on methodology for identifying cell markings, verifying OCV stability, and calculating standard deviation across cell batches.
Battery Pack Configuration Sizing
Practical sizing models: computing required series-parallel matrix, voltage thresholds, Ah capacity, and kWh energy for target vehicle duty cycles.
Battery Pack Assembly Conceptual Workflows
Understanding cell arrangement in structural matrices, busbar placement, insulation layering, and spot welding process parameters.
BMS Wiring, Telemetry & Protection Testing
Inspecting BMS balance leads, temperature sensor placement, current shunt wiring, and verifying overvoltage/undervoltage cut-off triggers.
Battery Diagnostics & IR Testing
Utilizing 1kHz AC milliohm meters and DC load pulses to identify high-resistance cells, internal degradation, and weak connections.
Cell Balancing Evaluation
Measuring cell delta voltages under rest, charge, and load conditions; assessing passive bleeding and active balancing equalization times.
Charger Integration & Fault Simulation
Configuring CC-CV charging cut-offs, inspecting charge termination behavior, and troubleshooting charger communication errors.
Safety Inspection & Emergency Procedures
Conducting insulation resistance tests, checking thermal barriers, PPE verification, and reviewing thermal runaway containment SOPs.
Notice on Practical Delivery: Practical learning is delivered through structured technical demonstrations, instructor-led simulations, guided engineering calculations, and case studies. Hands-on physical sessions are subject to confirmed equipment and practical delivery arrangements by IISE.

Tools & Equipment Studied

Familiarisation with modern test benches, diagnostic instruments, and assembly tools

Digital Multimeters & Clamp Meters
Precision True-RMS multimeters for high-accuracy voltage measurement and non-contact DC clamp meters for charging/discharging current verification.
Battery Internal Resistance (IR) Testers
Specialized 1kHz AC milliohm meters designed for precision cell sorting, contact resistance validation, and health profiling.
Multi-Channel Battery Analysers / Cyclers
Automated charge-discharge test equipment used to measure exact Ah capacity, energy efficiency, and cycling degradation.
BMS Test Benches & Interface Adapters
Hardware-in-the-loop test benches with UART, Bluetooth, and CAN interface adapters for telemetry logging and parameter configuration.
Regulated DC Power Supplies & Electronic Loads
Programmable bench power supplies and electronic loads to simulate motor acceleration loads, regeneration, and charger profiles.
Intelligent CC-CV Programmable Chargers
Multi-chemistry chargers equipped with adjustable current/voltage cut-offs and thermal cut-off probes for safe laboratory charging.
Thermal Imaging Infrared Cameras
Infrared cameras and contact thermocouple data loggers for locating localized hot spots, thermal imbalances, and busbar overheating.
High-Voltage Insulation Megohmmeters
500V/1000V insulation resistance testers to verify dielectric isolation between the battery core and external metallic enclosures.
Note: Equipment listed represents professional industry instruments studied and demonstrated during the course, not student-issued physical equipment kits.

Industry Applications

Where lithium-ion battery technology drives India’s clean energy and mobility transition

Electric Two-Wheelers
Powering e-scooters and electric motorcycles with 48V, 60V, and 72V portable or fixed packs requiring compact energy density and vibration resistance.
Electric Three-Wheelers
Passenger e-rickshaws and cargo loaders operating in demanding commercial cycles, requiring robust LFP chemistry and rapid daily turnaround.
Electric Passenger Cars
High-voltage (350V–400V+) liquid-cooled modular battery packs engineered for extended driving range, high acceleration, and DC fast charging.
Commercial Electric Buses & Trucks
Large-scale heavy-duty energy storage systems demanding multi-tier safety redundancies, liquid thermal loops, and fleet telematics.
Battery Swapping Infrastructure
Standardized automated swapping stations featuring rapid docking interfaces, integrated battery diagnostics, and thermal monitoring cabinets.
Stationary Energy Storage Systems (BESS)
Grid-connected and solar-coupled energy storage systems for commercial peak shaving, industrial backup power, and rural microgrids.

Career Pathways & Opportunities

Professional technical roles across the electric vehicle and energy storage ecosystem

EV Battery Technician
Assembly, testing, wiring harness integration, and routine maintenance of EV battery packs.
Battery Testing & QA Technician
Performing incoming cell inspection, OCV/IR verification, capacity testing, and quality control documentation.
Battery Service & Repair Technician
Diagnosing field failures, replacing faulty cells/modules, re-balancing packs, and servicing BMS harnesses.
Battery Pack Assembly Technician
Executing spot welding, cell matrix layout, busbar fastening, insulation placement, and enclosure assembly.
BMS Support Technician
Configuring BMS parameters, troubleshooting CAN communication faults, and monitoring sensor telemetry.
Battery Diagnostics Assistant
Assisting in automated cycler testing, data analysis, cycle-life degradation studies, and test reports.
EV Fleet Service Professional
Maintaining commercial electric vehicle battery fleets, monitoring state of health, and managing swap operations.
Battery Business Entrepreneur
Launching an independent battery diagnostics clinic, servicing franchise, or custom battery pack assembly unit.
Professional Notice: Career opportunities and hiring outcomes depend on individual qualifications, prior technical background, practical competence, and specific employer hiring criteria. IISE provides technical education and does not offer guaranteed employment or salary promises.

Battery Business & Entrepreneurship

High-potential commercial ventures in India’s booming battery and electric mobility sector

Battery Diagnostic & Health Testing Clinic
Establish an independent diagnostic lab testing battery health (SOH/SOC), internal resistance, and capacity for used EVs and commercial fleets.
EV Battery Servicing & Maintenance Center
Provide cell rebalancing, BMS replacement, harness repair, and preventative maintenance for electric two-wheelers and three-wheelers.
Custom Battery Pack Assembly Workshop
Build customized battery packs for light electric vehicles, agricultural equipment, e-cycles, and specialized mobility applications.
BMS & Battery Accessories Distribution
Distribute smart BMS units, cell holders, nickel strips, insulation materials, and battery test equipment to regional workshops.
Battery Swapping Point Operator
Operate commercial battery swapping hubs for last-mile delivery fleets and local electric three-wheeler operators.
Battery Refurbishment & Recycling Aggregation
Collect, evaluate, and repurpose second-life lithium cells for low-speed or stationary applications, subject to safety and regulatory standards.

Professional Certification

An authoritative credential validating your expertise in lithium-ion battery technology

IISE + CERT Certificate

Upon successful completion of the programme requirements and assessment, participants are awarded the joint professional certificate:

Indian Institute of Solar Energy (IISE)
A Unit of CERMS India Foundation
Centre for Energy Research and Training (CERT)
Technical Partner

The certificate validates core technical competency in lithium-ion cell chemistry, EV battery pack design, Battery Management Systems (BMS), testing, diagnostics, and safety engineering.

Institutional Clarification: This is a professional certificate of completion and technical competence issued by IISE and CERT. It is not a university degree, UGC-approved qualification, or government licence.

Credential Verification & Recognition
✔ Joint Validation: Certified jointly by IISE academic council and CERT research cell.
✔ Unique Verification ID: Tamper-proof serial registration number assigned to each graduate.
✔ 12-Module Evaluation: Awarded upon rigorous assessment across all core technical domains.
✔ Industry Relevance: Recognized by leading EV OEMs, battery startups, and clean-tech workshops.
✔ Permanent Digital Record: Online credential repository for employer verification.

Course Fees and Admission Offer

Subsidized, transparent pricing for the upcoming cohort

Mobility Li-ion Battery Training Course
Course Fee & Admission Offer
40% Discount • Save ₹8,000
Regular Fee: ₹19,999
₹11,999
Application Fee (Payable Now): ₹999
Balance Payment: ₹11,000
Total Payment (Offer Price): ₹11,999
EMI Facility Available: Balance is payable according to the confirmed admission payment schedule.
✔ 3-Month Online Access • ✔ Comprehensive 12 Modules • ✔ IISE + CERT Certificate • ✔ Batch Flexibility

Admission Process

A clear, transparent 7-step journey from application to joining your batch

1 Submit Enquiry or Application
Complete the online application form or connect with the IISE admissions desk via WhatsApp or phone.
2 Speak with Admissions Team
Discuss your educational background, career goals, course curriculum details, and batch schedules with an academic advisor.
3 Confirm Programme Eligibility
The admissions advisory team confirms your eligibility (10+2, ITI, Diploma, Graduate, or Professional).
4 Complete Application Payment
Pay the ₹999 application fee to lock your admission seat for the upcoming batch.
5 Receive Payment Schedule
Receive your formal admission confirmation letter and balance payment schedule from the administration office.
6 Pay Remaining Balance
Pay the remaining balance of ₹11,000 according to the confirmed admission payment schedule or opted EMI facility.
7 Receive Programme Access
Receive your student login credentials, digital courseware materials, lecture timetable, and live class links.
Note: Final batch enrolment is subject to seat availability and payment confirmation per IISE institutional guidelines.

Student Support & Learning Experience

Dedicated academic and technical support throughout your 3-month programme

Interactive Live Doubt Sessions
Direct technical doubt resolution during live weekend and evening sessions with experienced battery domain instructors.
Recorded Lecture Archives
Continuous 24/7 access to all class recordings for revision, self-paced review, and flexible study schedules.
Technical Worksheets & Sizing Models
Downloadable calculation sheets, cell chemistry comparison matrices, and mathematical pack sizing templates.
Industry-Experienced Faculty
Learn directly from engineers actively involved in battery testing, BMS implementation, and electric mobility projects.
Standards & Regulatory Briefings
Comprehensive coverage of Indian homologation standards including AIS 156, AIS 038, and central safety compliance norms.
Dedicated Helpdesk Support
Responsive student administration support for class schedules, technical access, and certificate processing.

Frequently Asked Questions

Clear answers to common questions regarding course content, fees, schedules, and certification

The Mobility Li-ion Battery Training Course is a specialized 3-month technical training program developed by the Indian Institute of Solar Energy (IISE) in technical partnership with the Centre for Energy Research and Training (CERT). It covers lithium-ion cell chemistry, EV battery pack design, Battery Management Systems (BMS), testing, diagnostics, thermal safety, and industrial applications.

The programme duration is 3 months, structured with weekend and evening online interactive sessions to accommodate both students and working professionals.

Candidates with 10+2 (with science/technical subjects), ITI certificate holders (Electrician, Wireman, Motor Mechanic, Electronics), Diploma engineers, Graduates (B.Sc, B.E., B.Tech), and working professionals seeking to specialize in battery technology are eligible.

No. An engineering degree is not mandatory. 10+2 pass candidates with a technical interest, ITI holders, and Diploma holders can enrol alongside engineers. The course starts with fundamental concepts before progressing to advanced topics.

Yes. The course is delivered entirely online through interactive live lectures, digital demonstration sessions, and downloadable study materials.

Yes. Live interactive classes are conducted by experienced instructors, allowing students to ask questions and participate in technical discussions in real time.

Yes. All live sessions are recorded and made available in the student portal, allowing you to review lectures at any time throughout the programme duration.

Yes. You will learn the complete battery pack assembly workflow, including cell inspection, IR sorting, series/parallel configuration, busbar selection, insulation, BMS wiring, and quality checks. Note that hands-on physical assembly is subject to confirmed delivery arrangements by IISE.

A Battery Management System is an electronic system that manages a rechargeable battery pack. It monitors cell voltage, current, and temperature, calculates State of Charge (SOC) and State of Health (SOH), controls cell balancing, and protects the battery from overcharge, over-discharge, overcurrent, and thermal runaway.

Yes. The curriculum includes BMS architecture, sensor input verification, protection cut-off testing, active and passive balancing assessment, and CAN communication basics.

Yes. You will study diagnostic methods for identifying cell capacity degradation, internal resistance rise, weak cells in series strings, BMS sensor faults, and wiring issues using professional diagnostic instruments.

The curriculum thoroughly covers Nickel Manganese Cobalt (NMC), Lithium Iron Phosphate (LFP), Nickel Cobalt Aluminium (NCA), and Lithium Titanate (LTO) chemistries, with detailed comparative analysis of safety, cycle life, energy density, and cost.

The regular course fee for the Mobility Li-ion Battery Training Course is ₹19,999.

Under the current admission offer, the course fee is ₹11,999, providing a 40% discount and a total saving of ₹8,000 off the regular fee of ₹19,999.

The application fee is ₹999, payable at the time of application to reserve your seat in the upcoming cohort.

After paying the ₹999 application fee, the remaining balance payable is ₹11,000 (₹999 application fee + ₹11,000 balance = ₹11,999 total offer price).

Yes. An EMI facility is available for the balance payment. You can enquire with the admissions team about available instalment options.

The balance payment of ₹11,000 is payable according to the formal admission payment schedule confirmed with the IISE admissions team upon completing your application.

Successful students receive the joint IISE + CERT Certificate of Completion, issued by the Indian Institute of Solar Energy (a Unit of CERMS India Foundation) and technical partner Centre for Energy Research and Training (CERT).

Graduates can explore roles such as EV Battery Technician, Battery Testing Technician, Battery Service Technician, Assembly Technician, BMS Support Assistant, and Battery Diagnostics Specialist. Career outcomes depend on your academic background, experience, and employer hiring criteria.

Yes. The programme is specifically scheduled on weekends and evenings, with recorded lecture archives available 24/7, making it accessible for full-time working professionals.

Yes. The course starts with basic electrochemical and electrical principles, enabling candidates with foundational science or vocational backgrounds to comfortably progress into advanced battery engineering.

You can apply by clicking the “Apply Now” button on this page, paying the ₹999 application fee, or contacting the IISE admissions team directly via WhatsApp (+91 8850902306) or phone (+91 9819225503).

Build Your Expertise in Lithium-Ion Battery Technology.
Develop your understanding of EV battery systems, battery pack architecture, BMS, testing, diagnostics and industrial battery applications.
• Programme: 3-Month Mobility Li-ion Battery Training Course
• Delivery: Online Live Interactive Classes + Recorded Lectures
• Certification: Joint IISE + CERT Certificate of Completion
• Offer Price: ₹11,999 (Regular ₹19,999 • 40% Discount • Save ₹8,000)
• Application Fee: ₹999 to secure admission • Balance: ₹11,000 (EMI Facility Available)