Design of high electromagnetic compatibility wireless power transfer system for wireless motors

Featuring on characteristics over wired charging, such as convenience and minimizing losses, wireless power transfer (WPT) for wireless motors is a critical technology for autonomous driving. As WPT technology for electric vehicle motors progresses towards higher frequencies, issues such as increase...

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Main Author: Zhang, Xiongce
Other Authors: Christopher H. T. Lee
Format: Thesis-Master by Coursework
Language:English
Published: Nanyang Technological University 2024
Subjects:
Online Access:https://hdl.handle.net/10356/179857
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-1798572024-08-30T15:44:00Z Design of high electromagnetic compatibility wireless power transfer system for wireless motors Zhang, Xiongce Christopher H. T. Lee School of Electrical and Electronic Engineering chtlee@ntu.edu.sg Engineering Electric vehicle motor Wireless power transfer Magnetic coupling system Coupling coefficient Featuring on characteristics over wired charging, such as convenience and minimizing losses, wireless power transfer (WPT) for wireless motors is a critical technology for autonomous driving. As WPT technology for electric vehicle motors progresses towards higher frequencies, issues such as increased high-frequency losses in coupling coils need to be addressed. This thesis researches and constructs the coupling coils structure of high-frequency wireless charging systems for wireless motors. The main research content includes: 1. Based on regarding the present state of research, the compensation circuit topologies and magnetic coupling structures are theoretically analyzed. Mathematical calculations are performed on four basic compensation circuit topology models, ultimately selecting the SS-type compensation circuit topology for further parameter study. Coupled Mode Theory and mutual inductance model theory, as well as Proximity and Skin Effect, are analyzed to lay the foundation for the study of wireless charging systems. 2. Coupling coils are designed using SolidWorks, and the magnetic coupling system is modeled in ANSYS HFSS to test the impact of changing the position of the coil on the coupling coefficient. Subsequently, amounts of turns, pitch, and material of the coils are varied to test their impact on the coupling coefficient. Suitable coil parameters are selected to enhance system transmission efficiency. Master's degree 2024-08-28T02:13:39Z 2024-08-28T02:13:39Z 2024 Thesis-Master by Coursework Zhang, X. (2024). Design of high electromagnetic compatibility wireless power transfer system for wireless motors. Master's thesis, Nanyang Technological University, Singapore. https://hdl.handle.net/10356/179857 https://hdl.handle.net/10356/179857 en application/pdf Nanyang Technological University
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic Engineering
Electric vehicle motor
Wireless power transfer
Magnetic coupling system
Coupling coefficient
spellingShingle Engineering
Electric vehicle motor
Wireless power transfer
Magnetic coupling system
Coupling coefficient
Zhang, Xiongce
Design of high electromagnetic compatibility wireless power transfer system for wireless motors
description Featuring on characteristics over wired charging, such as convenience and minimizing losses, wireless power transfer (WPT) for wireless motors is a critical technology for autonomous driving. As WPT technology for electric vehicle motors progresses towards higher frequencies, issues such as increased high-frequency losses in coupling coils need to be addressed. This thesis researches and constructs the coupling coils structure of high-frequency wireless charging systems for wireless motors. The main research content includes: 1. Based on regarding the present state of research, the compensation circuit topologies and magnetic coupling structures are theoretically analyzed. Mathematical calculations are performed on four basic compensation circuit topology models, ultimately selecting the SS-type compensation circuit topology for further parameter study. Coupled Mode Theory and mutual inductance model theory, as well as Proximity and Skin Effect, are analyzed to lay the foundation for the study of wireless charging systems. 2. Coupling coils are designed using SolidWorks, and the magnetic coupling system is modeled in ANSYS HFSS to test the impact of changing the position of the coil on the coupling coefficient. Subsequently, amounts of turns, pitch, and material of the coils are varied to test their impact on the coupling coefficient. Suitable coil parameters are selected to enhance system transmission efficiency.
author2 Christopher H. T. Lee
author_facet Christopher H. T. Lee
Zhang, Xiongce
format Thesis-Master by Coursework
author Zhang, Xiongce
author_sort Zhang, Xiongce
title Design of high electromagnetic compatibility wireless power transfer system for wireless motors
title_short Design of high electromagnetic compatibility wireless power transfer system for wireless motors
title_full Design of high electromagnetic compatibility wireless power transfer system for wireless motors
title_fullStr Design of high electromagnetic compatibility wireless power transfer system for wireless motors
title_full_unstemmed Design of high electromagnetic compatibility wireless power transfer system for wireless motors
title_sort design of high electromagnetic compatibility wireless power transfer system for wireless motors
publisher Nanyang Technological University
publishDate 2024
url https://hdl.handle.net/10356/179857
_version_ 1814047205835669504