Exploitation of redox mediators for high-energy-density and high-efficiency lithium-oxygen batteries / Youngmin Ko.
2021
TK2945.L58 K6 2021
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Title
Exploitation of redox mediators for high-energy-density and high-efficiency lithium-oxygen batteries / Youngmin Ko.
Author
ISBN
9789811625329 (electronic bk.)
9811625328 (electronic bk.)
9789811625312
981162531X
9811625328 (electronic bk.)
9789811625312
981162531X
Published
Singapore : Springer, [2021]
Copyright
©2021
Language
English
Description
1 online resource : illustrations (chiefly color)
Item Number
10.1007/978-981-16-2532-9 doi
Call Number
TK2945.L58 K6 2021
Dewey Decimal Classification
621.31/2424
Summary
This thesis addresses the introduction of redox mediator into lithium-oxygen batteries to improve their electrochemical performance especially in terms of practical energy density and round-trip efficiency. In chapter 1, basic electrochemistry regarding lithium-oxygen batteries and redox mediators are introduced. In chapter 2 to 4, comprehensive researches including the discovery of a new redox mediator inspired by biological system, the investigation on kinetic property of redox mediator, and the prevention of shuttle phenomenon are introduced, followed by chapter 5 summarizing the contents. This thesis is targeted to students and researchers interested in electrochemistry and energy storage systems.
Note
"Doctoral thesis accepted by Seoul National University, Seoul, South Korea."
Bibliography, etc. Note
Includes bibliographical references.
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Access limited to authorized users.
Source of Description
Online resource; title from PDF title page (SpringerLink, viewed June 21, 2021).
Series
Springer theses. 2190-5053
Available in Other Form
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Table of Contents
Introduction
Exploring a Novel Redox Mediator Inspired By Biological System
Investigation on the Kinetic Property of Redox
Addressing Shuttle Phenomena: Anchored Redox Mediator for Sustainable Redox Mediation
Conclusion.
Exploring a Novel Redox Mediator Inspired By Biological System
Investigation on the Kinetic Property of Redox
Addressing Shuttle Phenomena: Anchored Redox Mediator for Sustainable Redox Mediation
Conclusion.