Suresh Gosavi – författare

MXene-based Gas Sensors represents a significant contribution to the field, encompassing the latest theoretical and experimental investigations. It meticulously covers the classification of MXenes, their fundamental properties and synthesis approaches, providing an important resource for researchers and students. It further includes theoretical perspectives and in-depth insights into the gas sensing mechanisms of MXene-based sensors, along with a comprehensive classification of gas sensor devices, fabrication techniques, and evaluation parameters, filling a significant gap in the literature. The book also addresses advanced topics, including tuning approaches for enhancing the performance and selectivity of MXene-based gas sensors, specific applications such as NH3 and NO2 gas sensing, chemical vapor detection, humidity sensing, and the emerging domains of flexible, wearable and self-powered MXene-based gas sensors. The book will be useful for graduate students engaged in sensors research and as a reference for industry professionals.Key Features:Includes chapter contributions from subject-area expertsPresents the latest cutting-edge research on flexible, wearable and self-powered MXene-based gas sensorsExplores the uses of MXene-based gas sensors, regarded as sustainable, for commercial applications

MXene-based Gas Sensors represents a significant contribution to the field, encompassing the latest theoretical and experimental investigations. It meticulously covers the classification of MXenes, their fundamental properties and synthesis approaches, providing an important resource for researchers and students. It further includes theoretical perspectives and in-depth insights into the gas sensing mechanisms of MXene-based sensors, along with a comprehensive classification of gas sensor devices, fabrication techniques, and evaluation parameters, filling a significant gap in the literature. The book also addresses advanced topics, including tuning approaches for enhancing the performance and selectivity of MXene-based gas sensors, specific applications such as NH3 and NO2 gas sensing, chemical vapor detection, humidity sensing, and the emerging domains of flexible, wearable and self-powered MXene-based gas sensors. The book will be useful for graduate students engaged in sensors research and as a reference for industry professionals.Key Features: Includes chapter contributions from subject-area experts Presents the latest cutting-edge research on flexible, wearable and self-powered MXene-based gas sensors Explores the uses of MXene-based gas sensors, regarded as sustainable, for commercial applications

MXene-based Gas Sensors represents a significant contribution to the field, encompassing the latest theoretical and experimental investigations. It meticulously covers the classification of MXenes, their fundamental properties and synthesis approaches, providing an important resource for researchers and students. It further includes theoretical perspectives and in-depth insights into the gas sensing mechanisms of MXene-based sensors, along with a comprehensive classification of gas sensor devices, fabrication techniques, and evaluation parameters, filling a significant gap in the literature. The book also addresses advanced topics, including tuning approaches for enhancing the performance and selectivity of MXene-based gas sensors, specific applications such as NH3 and NO2 gas sensing, chemical vapor detection, humidity sensing, and the emerging domains of flexible, wearable and self-powered MXene-based gas sensors. The book will be useful for graduate students engaged in sensors research and as a reference for industry professionals.Key Features: Includes chapter contributions from subject-area experts Presents the latest cutting-edge research on flexible, wearable and self-powered MXene-based gas sensors Explores the uses of MXene-based gas sensors, regarded as sustainable, for commercial applications

Antibiotics, the backbone of modern clinical-medicine, are facing serious challenges from emerging antimicrobial-resistance (AMR), a complicated phenomenon expanding in bacterial species, from nosocomial to community origins, where microbes are no longer sensitive to a range of commonly used antibiotics.

Antibiotics, the backbone of modern clinical-medicine, are facing serious challenges from emerging antimicrobial-resistance (AMR), a complicated phenomenon expanding in bacterial species, from nosocomial to community origins, where microbes are no longer sensitive to a range of commonly used antibiotics. AMR has exploded in recent years and is posing a serious threat to human health and survival. This necessitates novel and effective ways of diagnosis, drug-delivery, and treatment; nanotechnology and advanced nanomaterials are hailed as a potent solution in containing AMR.The main thrust of this volume is to explain the most current research on the central theme of potential use of nano-approaches for diagnosis, detection, drug-delivery and as antimicrobial agents against drug-resistant pathogenic microbes. This book provides an integrated blend of basic and advanced information for students, scholars, scientists and practitioners, interested or already engaged in research in these areas. We have brought together leading international authors to present and highlight various aspects of nanotechnology in combating AMR in WHO-prioritized microbes. Topics range from advances in nanomaterial synthesis, characterization, functionalization and improvisation, as well as applications in sensing, diagnosis of AMR, and their therapeutic and drug-delivery potential against MDR and XDR microbial phenotypes.