HIGH-FREQUENCY INDUCTIVE ENERGY TRANSFER LINK ENHANCEMENT THROUGH COUPLING MODIFICATION /

A paucity of broad methodologies for designing inductive energy transfer links has led to the utilization of proprietary and non-interoperable link performance enhancements. The original contribution of this book is the development of general coupling-based design methods to improve the energy trans...

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Main Authors: Akaa Agbaeze Eteng, 1978- author 602918, Shahrul Kamal Abdul Rahim author 217450, Siti Fatimah Ausordin, 1986- author 548279
格式: text
语言:eng
出版: Johor Bahru, Johor : PENERBIT UTM PRESS, 2022
主题:
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author Akaa Agbaeze Eteng, 1978- author 602918
Shahrul Kamal Abdul Rahim author 217450
Siti Fatimah Ausordin, 1986- author 548279
author_facet Akaa Agbaeze Eteng, 1978- author 602918
Shahrul Kamal Abdul Rahim author 217450
Siti Fatimah Ausordin, 1986- author 548279
author_sort Akaa Agbaeze Eteng, 1978- author 602918
collection OCEAN
description A paucity of broad methodologies for designing inductive energy transfer links has led to the utilization of proprietary and non-interoperable link performance enhancements. The original contribution of this book is the development of general coupling-based design methods to improve the energy transfer performance of high-frequency inductive links. First, the book develops a general procedure to improve the transfer efficiency of symmetric inductive links established using axially-aligned printed spiral coils (PSCs), which are externally constrained by an upper-quality factor bound. The procedure compensates for low PSC quality factors by geometrically improving PSC coupling potentials. The application of the method in a test scenario led to the enhancement of the link transfer efficiency and augmented the link fractional bandwidth without altering the PSC quality factors. Secondly, the book proposes an unobtrusive method for ensuring uniform link transfer efficiency under various degrees of partial lateral misalignment between coupled PSC terminals. The method functions by ensuring that the link operates within an over-coupled regime, irrespective of the alignment conditions. Testing the developed procedure in a design scenario led to a reduction in the range of transfer efficiency values. Finally, a PSC-design technique to enable fixed-matched inductive links to maintain a near constant performance level for distances within a designated operational range. The method is based on seeking to maintain link critical coupling despite having PSC separation distances closer than the designated link range.
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institution Universiti Teknologi Malaysia - OCEAN
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spelling KOHA-OAI-TEST:6064742024-12-04T08:19:13ZHIGH-FREQUENCY INDUCTIVE ENERGY TRANSFER LINK ENHANCEMENT THROUGH COUPLING MODIFICATION / Akaa Agbaeze Eteng, 1978- author 602918 Shahrul Kamal Abdul Rahim author 217450 Siti Fatimah Ausordin, 1986- author 548279 textJohor Bahru, Johor : PENERBIT UTM PRESS,2022©2022engA paucity of broad methodologies for designing inductive energy transfer links has led to the utilization of proprietary and non-interoperable link performance enhancements. The original contribution of this book is the development of general coupling-based design methods to improve the energy transfer performance of high-frequency inductive links. First, the book develops a general procedure to improve the transfer efficiency of symmetric inductive links established using axially-aligned printed spiral coils (PSCs), which are externally constrained by an upper-quality factor bound. The procedure compensates for low PSC quality factors by geometrically improving PSC coupling potentials. The application of the method in a test scenario led to the enhancement of the link transfer efficiency and augmented the link fractional bandwidth without altering the PSC quality factors. Secondly, the book proposes an unobtrusive method for ensuring uniform link transfer efficiency under various degrees of partial lateral misalignment between coupled PSC terminals. The method functions by ensuring that the link operates within an over-coupled regime, irrespective of the alignment conditions. Testing the developed procedure in a design scenario led to a reduction in the range of transfer efficiency values. Finally, a PSC-design technique to enable fixed-matched inductive links to maintain a near constant performance level for distances within a designated operational range. The method is based on seeking to maintain link critical coupling despite having PSC separation distances closer than the designated link range.Includes bibliographical references and index.A paucity of broad methodologies for designing inductive energy transfer links has led to the utilization of proprietary and non-interoperable link performance enhancements. The original contribution of this book is the development of general coupling-based design methods to improve the energy transfer performance of high-frequency inductive links. First, the book develops a general procedure to improve the transfer efficiency of symmetric inductive links established using axially-aligned printed spiral coils (PSCs), which are externally constrained by an upper-quality factor bound. The procedure compensates for low PSC quality factors by geometrically improving PSC coupling potentials. The application of the method in a test scenario led to the enhancement of the link transfer efficiency and augmented the link fractional bandwidth without altering the PSC quality factors. Secondly, the book proposes an unobtrusive method for ensuring uniform link transfer efficiency under various degrees of partial lateral misalignment between coupled PSC terminals. The method functions by ensuring that the link operates within an over-coupled regime, irrespective of the alignment conditions. Testing the developed procedure in a design scenario led to a reduction in the range of transfer efficiency values. Finally, a PSC-design technique to enable fixed-matched inductive links to maintain a near constant performance level for distances within a designated operational range. The method is based on seeking to maintain link critical coupling despite having PSC separation distances closer than the designated link range.KK-PENERBIT_UTMPRZSLWireless power transmission Energy transferCouplingsURN:ISBN:9789835219092
spellingShingle Wireless power transmission
Energy transfer
Couplings
Akaa Agbaeze Eteng, 1978- author 602918
Shahrul Kamal Abdul Rahim author 217450
Siti Fatimah Ausordin, 1986- author 548279
HIGH-FREQUENCY INDUCTIVE ENERGY TRANSFER LINK ENHANCEMENT THROUGH COUPLING MODIFICATION /
title HIGH-FREQUENCY INDUCTIVE ENERGY TRANSFER LINK ENHANCEMENT THROUGH COUPLING MODIFICATION /
title_full HIGH-FREQUENCY INDUCTIVE ENERGY TRANSFER LINK ENHANCEMENT THROUGH COUPLING MODIFICATION /
title_fullStr HIGH-FREQUENCY INDUCTIVE ENERGY TRANSFER LINK ENHANCEMENT THROUGH COUPLING MODIFICATION /
title_full_unstemmed HIGH-FREQUENCY INDUCTIVE ENERGY TRANSFER LINK ENHANCEMENT THROUGH COUPLING MODIFICATION /
title_short HIGH-FREQUENCY INDUCTIVE ENERGY TRANSFER LINK ENHANCEMENT THROUGH COUPLING MODIFICATION /
title_sort high frequency inductive energy transfer link enhancement through coupling modification
topic Wireless power transmission
Energy transfer
Couplings
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AT shahrulkamalabdulrahimauthor217450 highfrequencyinductiveenergytransferlinkenhancementthroughcouplingmodification
AT sitifatimahausordin1986author548279 highfrequencyinductiveenergytransferlinkenhancementthroughcouplingmodification