This book embarks on an illuminating journey into the remarkable world of nitrogen-doped graphene (N-G) with this comprehensive exploration. Part I lays the foundation, unraveling the physical and chemical intricacies of N-G, from structures and properties to synthesis methodologies, electrochemical performance, and degradation mechanisms. Seamlessly blending theory and practice, it sets the stage for deeper exploration. Part II delves into the composites of N-G with metal-organic frameworks (MOFs), exploring their unique composition, synthesis methods, and electrochemical activities. This section paints a vivid picture of their potential applications in catalysis, energy storage, sensors, and medical advancements. In Part III, the narrative shifts to the synthesis strategies and performance intricacies of N-G with a diverse spectrum of materials. From metallic substances to non-metallic counterparts and beyond, these chapters unveil a gateway to creating composite materials, sparking possibilities across various domains. Part IV unfolds the transformative impact of N-doped graphene across diverse applications, revolutionizing energy conversion technologies. From fuel cells to batteries, supercapacitors, and beyond, N-G materials emerge as catalysts for innovation, addressing contemporary challenges in water electrolysis, purification, and biomedical applications. This book paints a vibrant picture of N-doped graphene as a catalyst for innovation and a solution to contemporary energy and environmental challenges. Whether you are a researcher, student, or enthusiast, this comprehensive exploration provides profound insights into the multifaceted capabilities and potential applications of N-G materials.
Physical and Chemical Structures and Properties of N-G.- N-G Synthesis
Methodologies and Characterizations.- Electrochemical Performance and
Durability of N-G.- Degradation Mechanism of N-G.- Physical and Chemical
Structures and Properties of N-G/MOFs.- Synthesis Methodologies.-
Electrochemical Performance and Durability of N-G/MOFs.- Degradation
Mechanism and Characteristics.- Synthesis and Characterization.- Performance
and Stability of N-G with Metals and Other Materials.- Applications in fuel
cells.- Applications in batteries.- Applications in supercapacitors.-
Applications in Electrolysis and Other Applications.
Prof. Eon Soo Lee is an Associate Professor with tenure and the Principal Investigator of the Advanced Energy Systems and Microdevices Laboratory at New Jersey Institute of Technology (NJIT), USA. He joined NJIT in 2013, with extensive expertise in fuel cell catalyst materials and electrochemical energy systems since completing his Ph.D. at Stanford University in 2007 and the following research work at Samsung as a team leader. Dr. Lees research focuses on the synthesis, characterization, and catalytic performance of advanced carbon-based nanomaterials, particularly nitrogen-doped graphene and metalorganic framework (MOF)derived catalysts. Dr. Lee pioneered the development of nitrogen-doped graphene/metalorganic framework (N-G/MOF) nanocatalysts using a novel synthesis methodology known as the nanoscale high-energy wet (NHEW) ball milling process, enabling scalable production of efficient non-precious metal catalysts for electrochemical reactions. Hes also pioneering in the application of the advanced nano catalyst materials, spanning from electrochemical energy systems to nano biosensing devices. Since 2015, Dr. Lees research group has maintained long-term collaboration with the Center for Functional Nanomaterials at Brookhaven National Laboratory in New York, to conduct advanced nanomaterial characterization and catalytic studies. Dr. Lee has been an elected Senior Member of the National Academy of Inventors (NAI) since 2020 and listed in Vanguard Leaders in Higher Education in NJ (2018), and a full member of Sigma Xi: The Scientific Research Honor Society since 2017, among many other honors and recognitions.
Niladri Talukder has earned his Ph.D. in Mechanical Engineering at the Mechanical and Industrial Engineering Department at the New Jersey Institute of Technology (NJIT). In his doctoral research, Talukder extensively studied non-PGM graphene-based heterogeneous electrocatalysts for electrochemical systems. His research spans carbon-based nanomaterial synthesis, characterization, operational material degradation analysis, chemical changes analysis, and applications of carbon-based nanomaterials in electrochemical energy systems. Talukder is an expert in handling cutting-edge and highly sensitive experimental tools like SEM, HRTEM, EDS, UHV-XPS, XRD, FTIR, Raman spectroscopy, etc. His research findings were published in different reputed scientific journals and international conferences. As notable contributions in the field of carbon-based nanomaterials, he theoretically studied N-doped graphene (N-G)materials for electrochemical application with special emphasis on the chemical structure and materials' degradational aspects elucidating different debated issues on N-G material's electrocatalytic properties.
