Abstract

The project focuses on the development and evaluation of an innovative magnetic coupler designed for in-wheel wireless charging systems in electric vehicles (EVs). This technology aims to enhance the efficiency and convenience of EV charging by integrating the charging mechanism directly into the vehicle's wheels. The magnetic coupler utilizes principles of wireless power transfer (WPT) through magnetic induction and resonance, allowing for effective energy transfer even with misalignment and varying distances between the transmitter and receiver coils.

The project will involve the design of the magnetic coupler, optimization of coil configurations, and performance testing under various operational conditions. The anticipated outcome is a robust and efficient wireless charging solution that can significantly reduce charging times and improve user experience.

Instructions:

Project Instructions :

Literature Review: Investigate current wireless power transfer technologies and magnetic couplers in electric vehicles.
Design: Develop specifications for the magnetic coupler, focusing on coil configurations.
Simulation: Optimize the design using 3D finite element method (FEM) simulations for efficiency.
Prototype Development: Create a prototype of the magnetic coupler for in-wheel integration.
Testing: Assess the prototype's performance under various conditions, including alignment and load.
Data Analysis: Analyze the performance data to evaluate efficiency and power transfer rates.
Documentation: Prepare a report summarizing the design process, testing results, and future recommendations.

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Development and Evaluation of an Innovative Magnetic Coupler for In-Wheel Wireless Charging Systems in Electric Vehicles

Abstract

Project Instructions :

Dataset Files

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