Pawan K. Jaiwal – författare

Antimicrobial Peptides: From Science to Applications provides comprehensive coverage on the biology, diversity, and mechanisms of action associated with antimicrobial peptides (AMPs). The book aims to equip readers with the knowledge required to understand, harness, and optimize these molecules for development and application across various sectors. Sections overview the biology and diversity of antimicrobial peptides, cover their molecular structure and function, and delve into their unique mechanisms of action and evolutionary significance in nature. Subsequent chapters go on to explore the utilization of AMPs in medicine, agriculture, the environment, and biotechnology.Culminating in discussions on future trends, regulatory considerations, and strategies to overcome challenges, this book is an informative reference for researchers, scientists, graduate students, and industry professionals engaged in the study and development of antimicrobial peptides as a potential solution to address pressing challenges such as antibiotic resistance, food security, and environmental sustainability.Brings together leading experts to provide insights into the latest research, applications, and future directions of antimicrobial peptidesExplores current methods and innovations in the synthesis and production antimicrobial peptidesOffers valuable insights into future directions, emerging trends, regulatory considerations, and potential challenges in the development and application of antimicrobial peptides

Novel Bioproducts through Metabolic Engineering of Secondary Metabolites provides comprehensive coverage of the latest developments in metabolic engineering and secondary metabolites, along with their roles in industrial product development. Sections cover the pivotal role secondary metabolites play in nature, their diverse classes, their significant applications in industry and medicine, and the fundamentals of metabolic engineering. Additional coverage includes biosynthetic pathways of secondary metabolites, strain development and optimization, rational design of pathway modifications, industrial enzymes and chemicals from metabolic engineering, and cutting-edge tools and technologies in metabolic engineering. The book concludes with a roadmap for the future of metabolic engineering, exploring emerging trends such as CRISPR and genome editing, artificial intelligence applications, and the evolving landscape of synthetic biology and bioeconomy.Provides detailed coverage of the fundamentals and latest developments in secondary metabolites and metabolic engineeringExplores the tools and technologies for metabolic engineering for bioproduction or biosynthesisHighlights case studies and applications of metabolic engineering in product developmentAddresses both technical and socioeconomic aspectsOffers a timely exploration of emerging ethical and regulatory considerations in biotechnology and synthetic biology

Novel Bioproducts through Metabolic Engineering of Secondary Metabolites provides comprehensive coverage of the latest developments in metabolic engineering and secondary metabolites, along with their roles in industrial product development. Sections cover the pivotal role secondary metabolites play in nature, their diverse classes, their significant applications in industry and medicine, and the fundamentals of metabolic engineering. Additional coverage includes biosynthetic pathways of secondary metabolites, strain development and optimization, rational design of pathway modifications, industrial enzymes and chemicals from metabolic engineering, and cutting-edge tools and technologies in metabolic engineering. The book concludes with a roadmap for the future of metabolic engineering, exploring emerging trends such as CRISPR and genome editing, artificial intelligence applications, and the evolving landscape of synthetic biology and bioeconomy. - Provides detailed coverage of the fundamentals and latest developments in secondary metabolites and metabolic engineering- Explores the tools and technologies for metabolic engineering for bioproduction or biosynthesis- Highlights case studies and applications of metabolic engineering in product development- Addresses both technical and socioeconomic aspects- Offers a timely exploration of emerging ethical and regulatory considerations in biotechnology and synthetic biology

Legumes include many very important crop plants that contribute very critical protein to the diets of both humans and animals around the world. Their unique ability to fix atmospheric nitrogen in association with Rhizobia enriches soil fertility, and establishes the importance of their niche in agriculture. Divided into two volumes, this work presents an up-to-date analysis of in vitro and recombinant DNA technologies for the improvement of grain, forage and tree legumes. Volume 10A examines the current status and future prospects of challenges of the following: in vitro morphogenesis; biotic and abiotic stress tolerance; genomics; nitrogen fixation and utilization; nutritional improvement, and biodiversity of wild and tribal legumes. Volume 10B presents the current state and future prospects of in vitro regeneration and genetic transformation expression and stability of transgenes modification of traits in almost all the important legumes, for example: soybean; peanut; pea; french bean; chick pea; pigeon pea; cowpea; mung bean; black gram; azuki bean; lentil; Lathyrus; lupinus; Lotus spp; Medicago spp; Trifolium spp; Winged bean; Guar; and tree legumes for their improvement.Written by international experts, these volumes will be of great value to researchers, as well as graduate students and all those requiring an advanced level overview of the subject area.

Legumes include many very important crop plants that contribute very critical protein to the diets of both humans and animals around the world. Their unique ability to fix atmospheric nitrogen in association with Rhizobia enriches soil fertility, and establishes the importance of their niche in agriculture. Divided into two volumes, this work presents an up-to-date analysis of in vitro and recombinant DNA technologies for the improvement of grain, forage and tree legumes.Volume 10B presents the current state and future prospects of in vitro regeneration and genetic transformation expression and stability of transgenes modification of traits in almost all the important legumes, for example: soybean; peanut; pea; french bean; chick pea; pigeon pea; cowpea; mung bean; black gram; azuki bean; lentil; Lathyrus; lupinus; Lotus spp; Medicago spp; Trifolium spp; Winged bean; Guar; and tree legumes for their improvement.

While information on the roles and regulation of transporters for all major nutrients and metabolites in plants has increased significantly, a synthesis of this research has been lacking. Based on current research in genomics and proteomics, this book clarifies the identification and characterization of plant membrane and vacuolar transporters. Transporter functions such as mineral nutrition, cell homeostasis, storage and stress responses are examined with a focus on enhancing nutrient use efficiency in crops, and increasing crops’ ability to withstand nutrient stresses and improve nutrient storage.

Legumes include many very important crop plants that contribute critical protein to the diets of many around the world. Many important forages and green manure crops are legumes. Legumes are also large contributors to the vegetable oil and animal feed protein sectors. One characteristic of legumes that could become even more important as world energy sources decline and nitrogen fertilizer prices increase is nitrogen fixation, something few other plants can do. Thus legumes have a unique and important niche in agriculture. While some of the small seeded forage legumes have been relatively easy to work with in tissue culture as far as culture initiation, plant regeneration and transformation are concerned, most large seeded legumes, like soybean, have been recalcitrant. Today, however, many laboratories are inserting genes into soybean and producing unique plants for both commercial and scientific uses. These advancements have taken a large amount of research effort and still require time and labour.

Legumes include many very important crop plants that contribute very critical protein to the diets of both humans and animals around the world. Their unique ability to fix atmospheric nitrogen in association with Rhizobia enriches soil fertility, and establishes the importance of their niche in agriculture. Divided into two volumes, this work presents an up-to-date analysis of in vitro and recombinant DNA technologies for the improvement of grain, forage and tree legumes.Volume 10B presents the current state and future prospects of in vitro regeneration and genetic transformation expression and stability of transgenes modification of traits in almost all the important legumes, for example: soybean; peanut; pea; french bean; chick pea; pigeon pea; cowpea; mung bean; black gram; azuki bean; lentil; Lathyrus; lupinus; Lotus spp; Medicago spp; Trifolium spp; Winged bean; Guar; and tree legumes for their improvement.

Legumes include many very important crop plants that contribute critical protein to the diets of many around the world. Many important forages and green manure crops are legumes. Legumes are also large contributors to the vegetable oil and animal feed protein sectors. One characteristic of legumes that could become even more important as world energy sources decline and nitrogen fertilizer prices increase is nitrogen fixation, something few other plants can do. Thus legumes have a unique and important niche in agriculture. While some of the small seeded forage legumes have been relatively easy to work with in tissue culture as far as culture initiation, plant regeneration and transformation are concerned, most large seeded legumes, like soybean, have been recalcitrant. Today, however, many laboratories are inserting genes into soybean and producing unique plants for both commercial and scientific uses. These advancements have taken a large amount of research effort and still require time and labour.

This edited volume serves as a comprehensive collection of methodologies, paradigms, and case studies explaining novel approaches for crop improvement programs. It summarizes the collective knowledge of leading experts in agronomy, genetics, biotechnology, and related fields, offering a holistic perspective on the multifaceted aspects of modern crop enhancement.In an era of climate change, increasing population, and environmental degradation, the need for revolutionary advancements in agriculture has never been more urgent. This book delves into the transformative potential of emerging methodologies, from precision breeding and genetic engineering to computational biology and synthetic biology. Through compelling case studies and insightful analyses, readers discover how novel approaches are revolutionizing crop breeding, cultivation, and resilience. The central theme of the book is the promotion of sustainable agricultural practices and the development of resilient crop varieties capable of withstanding environmental stressors, pests, and diseases. The book fosters interdisciplinary collaboration crucial for tackling complex agricultural challenges by combining insights from diverse disciplines, including bioinformatics, computational biology, and ecological sciences. From disease-resistant crops to stress-tolerant varieties, the advanced strategies of crop improvement offer avenues for sustainable agriculture and global food security.This book is essential reading for students, academics, researchers, scientists, and policymakers interested in and working in the fields of agriculture or biotechnology.