Design and Analysis of Battery Management System for Electric Vehicles

A system for managing batteries is required for electric cars and other systems that use rechargeable batteries (BMS). To ensure the longevity and safety of batteries, a BMS's main job is to supervise, control, and optimise the charging and discharge procedures. A well-designed BMS can prolong the battery's life, improve performance and dependability, and reduce the risk of catastrophic failures like fire or explosion. Therefore, a BMS is essential to the long-term growth of energy storage and electric vehicles. By addressing heat-related problems, the suggested method improves battery efficiency and provides a financially viable alternative for battery management. The BMS is also very economical and dependable. The foundation for figuring out the battery's charging and discharging properties is the MATLAB/Simulink technique used in this project. It makes it easier to browse through requirements, generated software, tests, and projects. It also makes it easier to annotate diagrams with relevant needs. The algorithm also helps with building drag-and-drop links and researching requirements and traceability. It is essential for identifying modifications to associated tests, diagrams, and specifications. In compliance with the standards, it also computes the performance or verification status. In order to accurately represent the electrical system, Simulink and the simulation technique are needed.

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