Electrospun Nanofibrous Separator for Enhancing Capacity of Lithium-ion Batteries - Li, Yifu
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This book offers an in-depth exploration of battery separators, a critical component in Lithium-ion batteries (LIBs). Serving as insulators between electrodes to prevent internal short circuits, these separators play a crucial role in retaining liquid electrolyte and facilitating the migration of lithium ions during battery cycling.
In the face of increasing demand for high-performance LIBs across diverse applications, the development of superior separators is imperative. Among the various advancements in battery separator research, electrospun nanofibrous separators have gained significant…mehr

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Produktbeschreibung
This book offers an in-depth exploration of battery separators, a critical component in Lithium-ion batteries (LIBs). Serving as insulators between electrodes to prevent internal short circuits, these separators play a crucial role in retaining liquid electrolyte and facilitating the migration of lithium ions during battery cycling.

In the face of increasing demand for high-performance LIBs across diverse applications, the development of superior separators is imperative. Among the various advancements in battery separator research, electrospun nanofibrous separators have gained significant attention. These separators exhibit compelling characteristics, including large pore size (typically above 500 nm), high porosity (typically above 70%), and an interconnected porous structure, all of which enhance ion transportation efficiency and battery cycling performance.

However, a notable focus in previous studies has been on electrochemical inert materials as battery separators, which do not contribute to the battery's capacity. This book presents a comprehensive study that introduces a novel concept: the development of a redox-active separator based on electrospun polypyrrole (PPy) composite nanofibers to significantly enhance battery capacity.

The book begins by exploring the effects of separators on battery performance, providing valuable insights and guidance for separator design. Then, a detailed investigation into the kinetics of in-situ polymerization of PPy with electrospun fibrous membranes as templates follows, shedding light on the mechanisms behind fabricating the proposed separator. Finally, this book presents the fabrication and characterization of the proposed separator, showcasing potential of the separator for enhancing battery capacity.

This book is intended for researchers, engineers, and professionals in the field of battery technology, materials science, and electrochemistry. It is also a valuable resource for graduate students and academics seeking advanced insights into the development of high-performance lithium-ion batteries and innovative separator technologies.
Autorenporträt
Dr. Yifu Li is a tenure-track Assistant Professor of Mechanical Engineering at Kettering University in Flint, Michigan. He holds a PhD in Mechanical Engineering from the University of Waterloo, Canada (2021) and another PhD in Environmental Science and Engineering from Chongqing University, China (2019). Dr. Li's research focuses on Sustainable Energy Innovations, including biogas upgrading, low-carbon power generation, and nanofibrous energy storage materials. He has published 10+ influential research articles as first/corresponding author in high-impact journals; A full publication list is attached below. Additionally, he also serves as a reviewer for several scientific journals. Dr. Li's previous research experience closely aligns with the content of the proposed book. He successfully developed a novel redox-active material for lithium-ion batteries, significantly boosting the battery capacity. This research encompassed various aspects, including battery simulation,preparation of redox-active nanofibers, and comprehensive battery testing. The outcomes of this research have led to the publication of several peer-reviewed papers in esteemed journals, including the Journal of Power Sources, Chemical Engineering Journal, Chemical Engineering Science, and Energy & Fuels.