Nikhil Bhalla – författare

Localized Surface Plasmon Resonance Biosystems: Fundamentals, Design and Applications presents fundamental theory and an overview of the application of advanced methods and concepts for the development of nanophotonic biosystems. It introduces LSPR biosensing concepts followed by a discussion of the material design aspects of the LSPR technology, including a description of methods used for developing new plasmonic materials and biosystems. After presenting the fundaments of LSPR biosystems, the book deals with practical aspects of implementing this technology in biosensor systems, discussing a variety of topics such as large-scale plasmonic structures, on-chip photonics which avoid use of light sources, and much more.Other sections cover tuning photonic properties for developing new applications related to biosensing and opportunities and challenges of such biosystems for translational research. This is an important resource for both scientists and engineers interested on the complete cycle of device development, from conceptualization to development and deployment, in the field of nanoplasmonic biosensing.

Covers the scientific fundamentals alongside technological applications, from principles of photonics at nanoscale to its application to medical diagnosis, agriculture, food science, and moreDiscusses advanced concepts and methods used for developing new plasmonic materials and biosystemsOutlines the major challenges and opportunities for bridging the gap between research and industrial application

Nanoferrites for Electromagnetic Interference Shielding: Theory to Application explores the fundamentals, synthesis, structural and functional properties, and real-world applications of nanoferrites for electromagnetic interference (EMI) shielding. It provides a thorough understanding of the role of nanoferrites in safeguarding electronic devices, enhancing environmental safety, and advancing next-generation technologies. From the basics of crystal structure to the latest advances in nanocomposites and thin films, readers will gain the knowledge needed to select, design, and optimize materials for high-performance EMI shielding. The book features detailed chapters on characterization techniques, the influence of morphology and temperature, and comparative analyses of shielding materials. It also addresses current challenges and future prospects, equipping researchers to tackle EMI shielding challenges in electronics, defense, healthcare, and data security.Provides in-depth coverage of nanoferrite synthesis, structure, and electromagnetic properties for EMI shielding applicationsIncludes practical guidance on characterization methods, material selection, and the impact of morphology and temperatureFeatures comparative analyses and real-world case studies to help researchers overcome uncertainty in choosing the right nanoferrite materials for specific EMI shielding applications

This book presents a comprehensive overview of nano biosensors, highlighting their principles, fabrication techniques, and diverse applications in the detection and management of infectious diseases. It explores various sensor modalities, including optical, electrochemical, magnetic, and piezoelectric systems designed for detecting bacterial, viral, fungal, and parasitic pathogens. The book also discusses the role of advanced nanomaterials in enhancing biosensor sensitivity and specificity, alongside developments in point-of-care diagnostics, wearable and implantable devices, and lab-on-a-chip platforms. The chapters further examine the integration of artificial intelligence and machine learning for data interpretation, antimicrobial resistance profiling, and syndromic diagnostics. Towards the end, the book addresses regulatory challenges, commercialization strategies, and future innovations, including CRISPR-based biosensing technologies.Key Features:· Provides foundational knowledge on nano biosensor principles, nanomaterials, and fabrication techniques.· Covers sensor technologies for detecting bacterial, viral, fungal, and parasitic infections.· Explores point-of-care, microfluidic, wearable, and implantable diagnostic systems.· Discusses AI-integrated biosensing, antimicrobial resistance detection, and CRISPR-enabled diagnostics.· Analyzes challenges in biosensor development, regulation, and clinical translation.This book is useful for researchers in biomedical engineering, nanotechnology, infectious diseases.

This book proposes the most effective approach to avert AMR through the utilization of biosensors as a wastewater surveillance tool at the community level. It seeks to bridge the gap between two cutting-edge domains: the burgeoning field of biosensor technology and the escalating threat of antimicrobial resistance.Antimicrobial resistance (AMR) is one of the most pressing challenges to global One Health in the 21st century. The pervasive misuse, overuse and abuse of antibiotics have augmented the emergence of resistant microbes, rendering once-effective therapeutics ineffectual. To address this crisis, novel strategies integrated with advanced technologies are urgently required to monitor antibiotic usage at the community level and mitigate the spread of resistance. Biosensors, characterized by their ability to detect specific molecules with high sensitivity and specificity, are crucial vectors for real-time/point-of-care monitoring of antibiotic consumption in various sectors, ranging from healthcare facilities and industrial utilizations to agricultural operations. By critically examining the principles of biosensors and revealing their prospective applications in antibiotic surveillance from wastewater, this book aims to postulate a comprehensive understanding of how radical technology can be harnessed to address a multifaceted One Health challenge.Throughout the book, readers will probe into the intricate mechanisms underpinning AMR through antibiotic abuse, gaining an understanding of the evolutionary dynamics of resistant bacteria and the selective pressures driving their proliferation. By further examining the broader societal implications of antibiotic abuse, this book aspires to catalyze interdisciplinary collaboration and foster dialogue among stakeholders invested in the fight against antimicrobial resistance using biosensors. It is an invaluable resource for graduate students in environment sciences, public health academics and policymakers.