Hyungjun Kim – författare

Introduction to Computational Electrochemistry: Modelling Methods and Applications in Interfacial Phenomena, Electrocatalysis, and Energy Storage addresses the various methodologies and intricate processes involved in electrochemical energy interconversion. Recent advancements in incorporating both the electronic responses of electrodes and the molecular dynamic responses of electrolytes are highlighted, thus enabling a deeper understanding of the physicochemical processes occurring at electrode-electrolyte interfaces. The book also introduces applications of modern computational chemistry to various electrochemical systems, including electrocatalytic systems for efficient energy conversion and energy storage systems such as batteries and supercapacitors. Emphasis is placed on state-of-the-art multiscale approaches for the advanced simulation of electrochemical interfaces.By presenting case studies that illustrate underlying mechanisms, explaining experimental observations, and guiding the design of improved systems, the book shows how computational electrochemistry increasingly interplays with experiments in the field of electrochemistry. This book aims to help pave the way for near-future developments that will unravel the atomic details of electrochemical interfaces and foster the growth of non-conventional methodological approaches.Provides a multidisciplinary resource that includes access to the field from various perspectives, unifying ideas and conceptsCovers quantum chemistry, describing chemical reactions, surface science to study processes at catalyst surfaces, materials science to optimize catalysts, and chemical engineering to optimize mass transport and multi-scale factorsIntroduces recent advances in modeling electrochemical interfaces as electrochemical systems have recently gained significant attention due to the growing importance of renewable energy technologiesHelps students gain understanding of the field by mixing cutting-edge research developments in both methods and applications in an educational context to create an up-to-date introduction to computational electrochemistry

This volume develops multiscale and multiphysics simulation methods to understand nano- and bio-systems by overcoming the limitations of time- and length-scales. Here the key issue is to extend current computational simulation methods to be useful for providing microscopic understanding of complex experimental systems. This thesis discusses the multiscale simulation approaches in nanoscale metal-insulator-metal junction, molecular memory, ionic transport in zeolite systems, dynamics of biomolecules such as lipids, and model lung system. Based on the cases discussed here, the author suggests various systematic strategies to overcome the limitations in time- and length-scales of the traditional monoscale approaches.

This volume develops multiscale and multiphysics simulation methods to understand nano- and bio-systems by overcoming the limitations of time- and length-scales. Here the key issue is to extend current computational simulation methods to be useful for providing microscopic understanding of complex experimental systems. This thesis discusses the multiscale simulation approaches in nanoscale metal-insulator-metal junction, molecular memory, ionic transport in zeolite systems, dynamics of biomolecules such as lipids, and model lung system. Based on the cases discussed here, the author suggests various systematic strategies to overcome the limitations in time- and length-scales of the traditional monoscale approaches.