The book, Nanosensors for Futuristic Smart and Intelligent Healthcare Systems, presents a treatise on nanosensors technology including wearables, implantable devices and wireless tools. The recent pandemic (COVID-19) has changed the behaviour of people towards diagnosis of infectious diseases and monitoring remote patient health status in real-time. The main focus of this book is the basic concepts of nanomaterials and sensing paradigms for medical devices based on nanosensor technology. The book will be valuable to researchers, engineers and scientists interested in the field of healthcare for monitoring health status in real-time.

Nanosensors refer to a miniature electronic sensing device that works on a "Nano-scale" region. A nanosensor is a device that can transfer information and data on the behaviour and characteristics of tiny particles to a higher degree of visibility. Nanosensors can be used to distinguish chemical or mechanical data, such as the presence of material species and nanoparticles, or to screen real limitations on the nanoscale, such as temperature. Nanosensors are categorised depending on their design and intended use. Based on their structure, nanosensors are classified into two types: optical nanosensors and electrochemical nanosensors. Depending on the application, the nanosensor can be purchased as a material nanosensor, biosensor, electrometer, or deployable nanosensor. Nanosensors can measure down to the level of a single particle. Nanosensors include an analyte, sensor, transducer, and indicator. Nanosensors work by continuously monitoring electrical changes in sensor materials. The analyte diffuses from the solution for the sensor's outer layer and responds explicitly and competently, changing the physicochemical properties of the transducer surface, prompting an adjustment of the optical or electronic properties of the transducer's outer layer, and this change is converted into an electrical sign that is recognized. Like new technology, intelligent healthcare systems are moving toward new approaches and models of healthcare-based nanosensors, smart phones, smart watches, and other gadgets. This book deeply discusses the deployment of nanomaterials and nanosensors to enhance the healthcare system with continuous and real-time monitoring of individuals to avoid huge life risks. Environmental pollution has become a serious global issue affecting public health, the economy, and society. Organic pollutants, heavy metals in the soil, pesticide intake from fruits and vegetables, and the influence of illnesses and their toxins are all considered serious environmental problems. This book focuses on current advancements in DNA-nanosensors for environmental monitoring that make tracking contaminants simpler. DNA nanosensors are used to detect harmful microbiological contaminants, toxins, and medications. Some contemporary DNA-nanosensor environmental monitoring applications are discussed.

Smart and Functional Textiles is an application-oriented book covering a wide range of areas from multifunctional nanofinished textiles, coated and laminated textiles, wearable e-textiles, textile-based sensors and actuators, thermoregulating textiles, to smart medical textiles and stimuli-responsive textiles. It also includes chapters on 3D printed smart textiles, automotive smart textiles, smart textiles in military and defense, as well as functional textiles used in care and diagnosis of Covid-19.

Nanosensors for Smart Cities covers the fundamental design concepts and emerging applications of nanosensors for the creation of smart city infrastructures. Examples of major applications include logistics management, where nanosensors could be used in active transport tracking devices for smart tracking and tracing, and in agri-food productions, where nanosensors are used in nanochips for identity, and food inspection, and smart storage. This book is essential reading for researchers working in the field of advanced sensors technology, smart city technology and nanotechnology, and stakeholders involved in city management. Nanomaterials based sensors (nanosensors) can offer many advantages over their microcounterparts, including lower power consumption, high sensitivity, lower concentration of analytes, and smaller interaction distance between object and sensor. With the support of artificial intelligence (AI) tools, such as fuzzy logic, genetic algorithms, neural networks, and ambient-intelligence, sensor systems are becoming smarter. Provides information on the fabrication and fundamental design concepts of nanosensors for intelligent systems Explores how nanosensors are being used to better monitor and maintain infrastructure services, including street lighting, traffic management and pollution control Assesses the challenges for creating nanomaterials-enhanced sensors for mass-market consumer products

This unique volume covers many aspects of waste management in developing countries. There is a focus on various sources of waste including the pressing issues of agricultural, medicinal, industrial, and urban waste, and emerging problems with e-waste, nanowaste, and microplastics in marine environments. This volume addresses the critical environmental issues resulting from rapid urbanization and industrialization, particularly in the developing world. High-end technologies that can utilize waste as a resource to generate products, processes, and revenue are also discussed. Features Presents technical perspectives on emerging wastes in developing economies Discusses the issues of e-waste, which is growing three times faster than general municipal waste globally Covers the spectrum of nanowaste to upcycling in the market Discusses management of marine plastic debris and microplastics Diverse audience including those in solid waste management, electrical and electronic technology, and the medical industry

Nanosensors are rapidly becoming a technology of choice across diverse fields. They offer effective and affordable options for detecting and measuring chemical and physical properties in difficult-to-reach biological and industrial systems operating at the nanoscale. However, with nanosensor development occurring in so many fields, it has become di