The book entitled “Biogenic Nanomaterial for Health and Environment" covers the synthesis, characterization, and applications of nanomaterials, synthesized using living organisms like bacteria, algae, fungi, plants, and biomolecules derived from them. This book is intended to meet the needs of undergraduate and graduate-level students of chemistry, biology, nanotechnology, and chemical engineering disciplines. The book will also serve as a useful reference work for researchers working in the fields of nanochemistry, material science, biology, and industrial chemistry. Features · A systematic overview of the biogenic synthesis nanomaterial. · Recent research results and pointers to the advancement in the field. · Discuss putative applications of biogenic nanomaterials in health and the environment with a main emphasis on biocidal activity, disease diagnosis, drug delivery, and sensing and remediation of pollutants from the environment. This book is compiled in such a way that it aids in understanding the underpinning concepts of the biogenic synthesis of nanoparticles. The Biogenic synthesis of nanoparticles delivers more important and effective prospects for nanotechnology researchers. The biomass derived from various organisms acts as templates for the synthesis of nanoparticles with desired structural and featural aspects. The rewards of employing biomass and molecules derived from organism of choice in the synthesis process of nanoparticles are able to enhance the electrochemical consistency, control particle size, reduce toxicity, and escalate reactivity in an eco-friendly way. This book will provide the latest insights into the synthesis of nanomaterials employing biomass, cell extract, or as a whole, of various organisms and their roles in the health and remediation of the environment.

The key to sustaining the soil resource base is to maintain, or enhance, soil quality. Soil quality cannot be seen or measured directly from the soil alone but is inferred from soil characteristics and soil behavior under defined conditions. In essence, the quality of soils is analogous to the health of humans, and just as there is no single characteristic that can be measured to quantify a person's health, there is no single measurement that can quantify soil quality. However, there are certain characteristics, particularly when considered together, that are good indicators. Soil quality, just as human health, can be maintained or enhanced by good management practices; and seriously degraded-sometimes irrevers ibly-with poor practices. Soil quality is also important because it has direct and indirect effects on air quality and water quality. While the enhancement of soil quality does not always assure parallel improvements in the quality of air and, particularly, water resources, this is often the case. However, soil deg radation is invariably accompanied by degraded qualities of both air and water resources. The consensus among many scientists is that the greatest challenge is not increasing production, but preventing serious deterioration of the soil and water resource base so that the production level can be sustained."