This book provides a comprehensive and systematic overview of the latest advances in nanomaterials for proteomics, both theoretical and practical. Consisting of seven chapters, it first covers the synthesis methods, characterization, principles, and performance of functional nanomaterials in various branches of proteomics in detail.

The book is interwoven according to the intrinsic logics of modern most important applications of electrospun nanofibers. It discusses such application-oriented nanofibers as self-healing vascular nanotextured materials, biopolymer nanofibers, soft robots and actuators based on nanofibers, biopolymer nanofiber-based triboelectric nanogenerators, metallized nanofibers, and heaters and sensors based on them. It also includes such topics as the injectable nanofibrous biomaterials, fibrous hemostatic agents and their interaction with blood, as well as electrospun nanofibers for face-mask applications. The book also details polyelectrolytes-based complex nanofibers and their use as actuators. It also covers drug release facilitated by polyelectrolytes-based complex nanofibers.

This book presents recent developments and fascinating attributes of electronic-nose (E-nose) technology based on advanced nanostructured materials that are compatible with modern semiconductor fabrication technology. The new trend in these nanostructured materials includes metal oxide nanostructures, 2D materials, graphene, and other carbon-based nanostructures. These versatile materials with remarkable electronic, mechanical, electrical, thermal properties, and potential e-nose in a wide range of fields are discussed in the book. Close attention is given to problems connected with stability, selectivity, and functionalizing of e-nose devices and deposited materials. The field of sensors is indeed in fast and consistent growth. This book consolidates information on each and every aspect of these novel materials, their gas sensing mechanisms, engineering, and e-nose devices covering the entire spectrum of up-to-date literature citations, current market, and patents in a very detailed manner. Moreover, in the past few years, tremendous advances have been made in experimental and theoretical studies on various properties of these materials. In summary, this book makes an attempt to provide in-depth study of recent advances and focuses on current problems related to selectivity and stability of sensor devices. The book is interesting to all materials professionals and researchers from universities and national laboratories working in the field of nanostructured materials-based gas sensors.

Carbon nanomaterials have several applications, which is driving up scientific research into them. The book showcases the most recent advancements and research discoveries rather than just providing an overview. Each chapter offers authoritative insights into the ever-changing field of carbon-based nanomaterials, as written by top authorities in their respective domains. The book stands out for its persistent focus on real-world application. It is devoted to practical applications and is divided into four sections. The intriguing promise of carbon nanomaterials, their synthesis, and their possible uses set the stage for the adventure. Subsequently, the emphasis shifts to agriculture, where nanomaterials have been shown to improve plant health, fend against illnesses, promote growth and development, and even help detect and remove herbicides. The biomedical part explores the potential toxicological ramifications of these materials while introducing the reader to their ground-breaking role in drug delivery, tissue engineering, and the fight against fungal diseases. Overall, the book provides valuable insights and serves as a comprehensive resource for researchers and scientists across various interdisciplinary subjects.

Due to limited non-renewable resources and climate change problems, the global energy sector must be transformed from fossil fuel dominated to renewable energy based. However, due to constraints of resources, technology, locked capital in existing energy systems, limited financial support, and associated risks in investment, etc., this transformation is not expected to occur rapidly. Rather there should be an energy transition path with planned replacement of fossil fuel-based systems to renewable-based ones. Large-scale renewable power is yet to be dominant globally. Distributed renewable power is appearing to be more common as its implementation requires smaller investments with lesser financial risks. There are several options of such distributed renewable power with great prospects at different locations. Simultaneously, there are many challenges to overcome for successful implementation of such projects. These challenges are also multi-dimensional. In this book, several chapters address bright prospects of several options of distributed renewable power. Simultaneously, other chapters address challenges of implementation of such technologies. The chapters together cover a wide perspective of both prospects and associated challenges to be addressed for it. Chapters include technological issues, optimization of energy systems, logistics and policies, case studies etc. Researchers, industry professionals, and students can benefit from this book.

The book discusses the various sustainable approaches to combine agrowaste and nanomaterials into catalysts or nanocatalysts with the objective of enhancing biofuel production. It explores the practical sustainability of agronanocatalysts in bioenergy production at a mass scale, while also addressing the existing challenges and proposes sustainable remedies to overcome these limitations. Additionally, the book dives into the cost considerations, recognizing it as a major concern for the widespread utility of catalysts, and explores viable commercial applications in this context.