Nanosensors For Environment Food And Agriculture Vol 1

Nanosensors enable us to specifically detect pollutants that can adversely affect the quality of life. This book covers the design, application and safety aspects of nanomaterial-based sensors. The focus is on nanosensors useful for application in Environment, Food and Agriculture. It discusses in detail the advances in nanosensor design and application. It also emphasizes on the strategies for toxicity assessment and safe use of nanosensors.

This informative book compiles the most up-to-date applications of nanobiosensors in fields ranging from agriculture to medicine. The introductory section describes different types of nanobiosensors and use of nanobiosensors towards a sustainable environment. The applications are divided into four broad sections for easy reading and understanding. The book discusses how manipulation, control and integration of atoms and molecules are used to form materials, structures, devices and systems in nano-scale. Chapters in the book shed light on the use of nanosensors in diagnostics and medical devices. Application in food processing as well as in cell signaling is also described. Nanobiosensors have immense use, and this book captures the most important ones.

Nanotechnology is a fast-evolving discipline that already produces outstanding basic knowledge and industrial applications for the benefit of society. Whereas the first applications of nanotechnology have been developed mainly in material sciences, applications in the agriculture and food sectors are still emerging. Due to a rapid population growth there is a need to produce food and beverages in a more efficient, safe and sustainable way. Here, nanotechnology is a promising way to improve crop production, water quality, nutrition, packaging, and food security. There are actually few comprehensive reviews and clear textbooks on nanotechnology in agriculture, water, and food. In this book there are 10 chapters describing the synthesis and application of nanomaterials for health, food, and agriculture are presented. Nanomaterials with unique properties will dramatically improve agriculture and food production. Applications will include nanofertilisers to enhance plant growth and nanosensors to detect food contamination. An overall view of nanotechnology applications in agriculture, food, water, and environment are described in the first two chapters by Dasgupta et al. and Singh. Health and environmental applications of nanotechnology are presented in chapters 3-5. Shukla and Iravani review green methods to synthesize metal nanoparticles, and give applications to water purification, in chapter 3. The removal of up to 95% of contaminants by nanoparticles, nanotubes and nanostructured membranes is described by Naghdi et al. in chapter 4. Yoti et al. then review nanosensors for the detection of pathogenic bacteria in chapter 5. Those nanosensors can be used as biodiagnostics to control food and water quality. Food applications of nanoscience are presented in chapters 6 and 7 by Kuswandi and Sarkhar et al. Kuswandi explain in chapter 6 that nanomaterials can improve packaging quality and that nanosensors can detect freshness and contanimants. The use of nanoparticles to protect ingredients such as vitamins, flavours, and antimicrobials is reviewed by Sarkhar et al. in chapter 7.

Nanosensors for Smart Agriculture covers new breakthroughs in smart agriculture, highlighting new technologies, such as the internet of things, big data and artificial intelligence. In addition, the book provides the many advantages of nanosensors over their micro counterparts, such as lower power consumption, higher sensitivity, lower concentration of analytes, and smaller interaction distances between the object and sensor. Sections provide information on fundamental design concepts and emerging applications of nanosensors in smart agriculture. The book highlights how, when cultivating soil, nanosensors and their wireless networks can be used for soil quality monitoring (moisture/herbicides/organic compound/trace metals monitoring in soil, etc. Other applications cover how smart nanosensors can be used for virus detection and hygiene/pathogen controls in livestocks, their use as active transport tracking devices for smart tracking and tracing, and other various applications, such as (i) nanochips for identity (radio frequency identification), (ii) food inspection, (iii) intelligent food packaging, and (iv) smart storage. This is an important reference source for materials scientists and agricultural engineers who are looking to understand more about how nanosensor technology can be used to create more efficient and sustainable agricultural systems. Outlines the fabrication and fundamental design concepts of nanosensors for agricultural applications Explains how nanosensors are being used throughout the agricultural cycle – from crop growth to food manufacturing Assesses major challenges surrounding the application of nanosensors to agricultural applications in mass scale

This book reviews the application of nanosensors in food and agriculture. Nanotechnology has the potential to become transformative technology that will impact almost all sectors. Tools like nanosensors, which detect specific molecular interactions, can be used for on-site, in-situ and online measurements of various parameters in clinical diagnostics, environmental and food monitoring, and quality control. Due to their unprecedented performance and sensitivity, nanobiosensors are gaining importance in precision farming. The book examines the use of nanobiosensors in the monitoring of food additives, toxins and mycotoxins, microbial contamination, food allergens, nutritional constituents, pesticides, environmental parameters, plant diseases and genetically modified organisms. It also discusses the role of biosensors in increasing crop productivity in sustainable agriculture, and nanosensor-based smart delivery systems to optimize the use of natural resources such as water, nutrients and agrochemicals in precision farming.

Nanorobotics and Nanodiagnostics in Integrative Biology and Biomedicine "Nanorobotics and nanodiagnostics” can be defined as a new generation of biohybrid and nanorobotics that translate fundamental biological principles into engineering design rules, or integrative living components into synthetic structures to create biorobots and nanodiagnotics that perform like natural systems. Nanorobots or nanobots are structured of a nanoscale made of individual assemblies. They can be termed as intelligent systems manufactured with self-assembly strategies by chemical, physical and biological approaches. The nanorobot can determine the structure and enhance the adaptability to the environment in interdisciplinary tasks. "Nanorobotics and nanodiagnostics" is a new generation of biohybrid that translates fundamental biological principles into engineering design rules to create biorobots that perform like natural systems. These biorobotics and diagnostics can now perform various missions to be accomplished certain tasks in the research areas such as integrative biology and biomedicine. "Nanorobotics and Nanodiagnostics in Integrative Biology and Biomedicine" sheds light on a comprehensive overview of the multidisciplinary areas that explore nanotherapeutics and nanorobotic manipulation in biology and medicine. It provides up-to-date knowledge of the promising fields of integrative biology and biomedicine for nano-assisted biorobotics and diagnostics to detect and treat diseases that will enable new scientific discoveries. /div

Agriculture requires technical solutions for increasing production while lessening environmental impact by reducing the application of agro-chemicals and increasing the use of environmentally friendly management practices. A benefit of this is the reduction of production costs. Sensor technologies produce tools to achieve the abovementioned goals. The explosive technological advances and developments in recent years have enormously facilitated the attainment of these objectives, removing many barriers for their implementation, including the reservations expressed by farmers. Precision agriculture and ‘smart farming’ are emerging areas where sensor-based technologies play an important role. Farmers, researchers, and technical manufacturers are joining their efforts to find efficient solutions, improvements in production, and reductions in costs. This book brings together recent research and developments concerning novel sensors and their applications in agriculture. Sensors in agriculture are based on the requirements of farmers, according to the farming operations that need to be addressed.

A complete handbook on toxicology covers basic principles, regulatory criteria, and sophisticated methods for understanding and assuring the safety of varied chemicals in the following pages. Introduction to toxicology, "Toxicology Fundamentals and Regulatory Guidelines," covers broad overviews, mechanistic toxicology, regulatory frameworks, and descriptive toxicology. Focus is on OECD, ICH, EPA, and Schedule Y regulatory criteria, as well as the history and importance of Good Laboratory Practise (GLP) in drug development. As the book explores "Types of Toxicity Studies and Test Item Characterization," it examines acute, sub-acute, chronic, and particular acute investigations, including oral, cutaneous, and inhalational toxicity studies. Test item characterisation procedures are carefully explained, emphasising their importance in regulatory compliance and toxicity evaluation. This leads to "Advanced Toxicology Studies," which covers reproductive toxicology, genotoxicity, and in vivo carcinogenicity. These investigations provide a thorough view of possible dangers and evaluate drug safety. The book then discusses "IND Enabling Studies and Safety Pharmacology," which covers the necessary research for IND applications. Exploring regulatory settings, corporate views, and safety pharmacology in drug development provides a complete knowledge of experimental substance safety. The third part, "Toxicokinetic and Alternatives to Animal Testing," emphasises toxicokinetic assessment and discusses new methods. Following the evolution of safety assessment practises, these options are investigated for ethical and regulatory consequences. Students, researchers, and professionals traversing toxicology's difficult landscape may find this book invaluable. Its extensive coverage, from basic concepts to sophisticated approaches, makes it an important tool for protecting humans and ecosystems in the dynamic pharmaceuticals and beyond industries.