Ionic Liquids: Eco-friendly Substitutes for Surface and Interface Applications explores the growing interest in utilizing ionic liquids as sustainable alternatives for various industrial and biological applications. With their unique properties and environmentally friendly nature, ionic liquids have emerged as promising substitutes for toxic and volatile solvents, offering significant advantages in surface and interface chemistry. This book is divided into two parts: Part 1 covers the basics of ionic liquids, their surface/interface properties, and interactions with metallic surfaces. Part 2 focuses on the wide range of surface and interface applications of ionic liquids, including wastewater treatment, corrosion protection, catalysis, separation processes, medical devices, and sensing applications. Key Features: A complete book fully dedicated to the surface and interface chemistry of ionic liquids with seventeen chapters Covers fundamentals, recent progress, and applications in surface/interface chemistry Presents up-to-date research and interdisciplinary insights Includes relevant references and resources for further exploration This is a valuable reference for scientists and engineers who want to learn about ionic liquids' chemistry and applications

This book informs readers about recent advances in graphene carbocatalysis encapsulating the current developments in the syntheses, properties, characterizations, functionalization and catalytic applications of graphene, its derivatives and composites. It serves as a comprehensive primary reference book for chemistry and engineering students who are required to learn about graphene chemistry in detail. It also serves as an introductory reference for industry professionals and researchers who are interested in graphene research as well as its emerging applications in catalysis and beyond. Volume 2 presents information about the industrial applications of graphene-based materials. It starts with graphene-based photocatalysis and progresses into the electrochemical applications of related materials. Highlighted applications in this domain include the use of graphene for hydrogen production and in electrodes for electrochemical sensors. It also covers developments in graphene-based smart energy materials. The final chapter of the volume summarizes the future of graphene-based material technology.

This book informs readers about recent advances in graphene carbocatalysis encapsulating the current developments in the syntheses, properties, characterizations, functionalization and catalytic applications of graphene, its derivatives and composites. It serves as a comprehensive primary reference book for chemistry and engineering students who are required to learn about graphene chemistry in detail. It also serves as an introductory reference for industry professionals and researchers who are interested in graphene research as well as its emerging applications in catalysis and beyond. Volume 1 provides an introduction to catalysis and the chemistry of graphene. This is followed by chapters that cover the chemistry of graphene compounds. Next, it covers the functionalization of graphene into catalytic materials and its role in the synthesis of nanocomposites. Finally, the book delves into the complex aspects of graphene carbocatalysis: recent advances in graphene supported palladium catalysts for coupling reactions, applications of graphene-based catalysts in multicomponent, domino reactions, oxidation and reduction reactions, and recent trends in biocatalytic properties of graphene-based composites are all discussed in detail.

A biosensor is an integrated receptor-transducer device that converts a biological response into an electrical signal. The design and development of biosensors have taken center stage for researchers or scientists in the recent decade owing to the wide range of biosensor applications in healthcare and disease diagnosis, environmental monitoring, water and food quality, and drug delivery. Due to their adaptability, ease of use in relatively complex samples, and portability, the significance of electrochemical biosensors in analytical chemistry has increased manifold. Electrochemistry has been pivotal in developing transduction methods for biological processes and biosensors. In parallel, the explosion of activity in nanoscience and nanotechnology and their huge success have profoundly affected biosensor technology, opening new avenues of research for electrode materials and transduction. Electrochemical Biosensors in Practice: Material and Methods particularly explores the use of silver and gold nanoparticles for signal amplification, photocurrent transduction, and aptamer design. Therefore, the book serves as an introductory text for those specializing in biosensors and bioelectronics and their practical applications. Key features - Includes structured information for easy understanding of the subject - Provides an introduction to biosensors and electrochemical biosensor classification - Explains fundamental concepts and practical electrochemistry techniques for research - Provides notes on essential electrochemical sensor materials such as graphene, carbon nanotubes, conductive polymers, and other advanced materials - Provides information about electrochemical biosensor development - Informs readers about recent applications and research findings - Includes references for further reading

This reference provides collective information about the physical and photophysical changes of supramolecules after encapsulation. It covers luminescent systems involving a range of host molecules such as calixarenes, cyclodextrin, resorcinanene-crowns, pillararenes, cucurbituril, and metallacycles. Chapters also discuss the effect of the macrocyclic environment on the properties of functionalized molecules, including the variations in folding and unfolding patterns. Each chapter is supplemented with detailed references, making this an ideal resource for scholars interested in supramolecular photophysics.

Advanced Physical Chemistry Practical Guide aims to improve the student’s understanding of theory through practical experience and by facilitating experimental exercises. The book covers a wide range of areas from basic to advanced experiments including the calibration of instruments as well as the use of software for accurate computational quantum chemical calculations. This book is divided into four sections: part I - general introduction, calibration of glassware, instruments and precautions part II - experiments that have a simple theoretical background and classical methods part III - experiments that are associated with more advanced theory, and technique that require a greater degree of experimental skill and instrumentation part IV – investigative experiments relying on computers Covering all aspects of classical, advanced and computational chemistry experiments, Advanced Physical Chemistry Practical Guide will enable students to gain confidence in their ability to perform a physical chemistry experiment and to appreciate the value of an experimental approach towards the subject. Advanced Physical Chemistry Practical Guide is an essential handbook for students and teachers at advanced levels who seek to learn practical knowledge about important aspects of physical chemistry.