TE4010 Battery Thermal Management System Syllabus:
TE4010 Battery Thermal Management System Syllabus – Anna University PG Syllabus Regulation 2021
OBJECTIVES:
1. The objective of this course is to introduce learner to batteries, its parameters, modelling and charging requirements.
2. The course will help learner to develop battery management algorithms for batteries
3. To analyse the battery state of charge and its functions
4. To evaluate models using the range of simulation.
5. To Examine the design standards of a battery.
UNIT- I INTRODUCTION
Introduction to Battery Management System, Cells & Batteries, Nominal voltage and capacity, C rate, Energy and power, Cells connected in series, Cells connected in parallel, Electrochemical and lithiumion cells, Rechargeable cell, Charging and Discharging Process, Overcharge and Undercharge, Modes of Charging
UNIT-II BATTERY MANAGEMENT SYSTEM REQUIREMENT
Introduction and BMS functionality, Battery pack topology, BMS Functionality, Voltage Sensing, Temperature Sensing, Current Sensing, BMS Functionality, High-voltage contactor control, Isolation sensing, Thermal control, Protection, Communication Interface, Range estimation, State-of- charge estimation, Cell total energy and cell total power.
UNIT-III BATTERY STATE OF CHARGE AND STATE OF HEALTH ESTIMATION, CELL BALANCING
Battery state of charge estimation (SOC), voltage-based methods to estimate SOC, Modelbased state estimation, Battery Health Estimation, Lithium-ion aging: Negative electrode, Lithium-ion aging: Positive electrode, Cell Balancing, Causes of imbalance, Circuits for balancing
UNIT- IV MODELLING AND SIMULATION
Equivalent-circuit models (ECMs), Physics-based models (PBMs), Empirical modelling approach, Physics-based modelling approach, simulating an electric vehicle, Vehicle range calculations, simulating constant power and voltage, Simulating battery packs,
UNIT-V DESIGN OF BATTERY BMS
Design principles of battery BMS, Effect of distance, load, and force on battery life and BMS, energy balancing with multi-battery system
TOTAL 45 PERIODS
COURSE OUTCOMES:
After completion of this course, student will be able to
1. Interpret the role of battery management system
2. Identify the requirements of Battery Management System
3. Interpret the concept associated with battery charging / discharging process
4. Calculate the various parameters of battery and battery pack
5. Design the model of battery pack
REFERENCES:
1. Plett, Gregory L. Battery management systems, Volume I: Battery modeling. Artech House, 2015.
2. Plett, Gregory L. Battery management systems, Volume II: Equivalent-circuit methods, Artech House, 2015.
3. Bergveld, H.J., Kruijt, W.S., Notten, P.H.L “Battery Management Systems -Design by Modelling” Philips Research Book Series 2002.
4. Davide Andrea,” Battery Management Systems for Large Lithium-ion Battery Packs” Artech House, 2010
5. Pop, Valer, et al. Battery management systems: Accurate state-of-charge indication for battery powered applications. Vol. 9. Springer Science & Business Media, 2008.