This book provides a comprehensive exploration of contact electrification across solid-solid, solid-liquid, and gas-solid interfaces. It looks into the underlying physics mechanisms, offering theoretical models and experimental methods to quantify and understand this ubiquitous yet complex phenomenon.

Covering fundamental concepts such as triboelectricity, energy band models, and tribovoltaic effects, the book discusses the interactions and charge transfer processes that occur at various interfaces. Special attention is given to the role of material properties, electron transfer dynamics, and external factors such as surface roughness and environmental conditions. Each chapter builds upon foundational principles to provide a cohesive framework for understanding both the beneficial applications and potential drawbacks of contact electrification.

In addition to theoretical insights, this book highlights cutting-edge technological applications related to contact-electrification, including triboelectric nanogenerators (TENGs), self-powered sensors, and contact-electro-catalysis. Practical implementations span fields such as sustainable energy harvesting, biomedical applications, environmental sensing, and advanced materials design.

Written and edited by experts in the field, this book serves as an essential resource for researchers, engineers, and advanced students in materials science, physics, chemistry, and electrical engineering. With its rigorous treatment of the subject and focus on both foundational science and applied technologies, this book is poised to set the standard for research in contact electrification for years to come.

Explores cutting-edge applications in triboelectric nanogenerators, energy harvesting, and self-powered sensors Discusses the physical mechanisms behind contact electrification across interfaces, from solids to liquids and gases Empowers researchers with strategies for optimizing materials and technologies driven by contact electrification

Autorentext

Dr. Zhong Lin Wang is Director of the Beijing Institute of Nanoenergy and Nanosystems, Director, and Regents' Professor and Hightower Chair at Georgia Institute of Technology (Emeritus). Dr. Wang pioneered the nanogenerators field for distributed energy, self-powered sensors, and large-scale blue energy. He coined the fields of piezotronics and piezo-phototronics for the third-generation semiconductors.

Dr. Wang has received the Global Energy Prize (2023); The Albert Einstein World Award of Science (2019); Diels-Planck lecture award (2019); ENI award in Energy Frontiers (2018); The James C. McGroddy Prize in New Materials from American Physical Society (2014); and MRS Medal from Materials Research Soci. (2011). Dr. Wang was elected as Fellow of the US National Academy of Inventors, Foreign Member of the Chinese Academy of Sciences, Member of European Academy of Sciences, Member of European Academy of Engineering, Foreign Member of Korea Academy of Science and Technology; Academician of Academia of Sinica, and International Fellow of Canadian Academy of Engineering. Dr. Wang was Founding Editor of an international journal nano energy.

Inhalt

Part1.Fundamental science of contact-electrification.- 1.Introduction about contact-electrification (triboelectrification).- 2.Methods for quantifying contact-electrification.- 3.Quantum Theory of Triboelectricity and Related Phenomena.- 4.Contact-electrification at metal-insulator interfaces.- 5.Contact-electrification at insulator-insulator interface.- 6.Contact Electrification at Semiconductor Interface-the Tribovoltaic Effect.- 7.Contact Electrification at Liquid-Solid Interfaces.- 8.Contact-electro-catalysis (CEC).- Part2.Applications of contact-electrification.-.9.Triboelectric nanogenerator using solid-solid contact electrification.- 10.Triboelectric nanogenerator using liquid-solid CE.- 11.Tribovoltaic Nanogenerator.- 12.Applications of contact-electro-catalysis.