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Agriculture is facing unprecedented challenges including climate change, declining arable land, and a growing global population. To meet the increasing demand for food while minimizing environmental impact, innovative solutions are required. Nanotechnology offers promising avenues to enhance agricultural productivity, sustainability, and food security.'Revolutionizing Agriculture: A Comprehensive Exploration of Agri-Nanotechnology'is an ambitious and timely book that sheds light on the transformative potential of nanotechnology in agriculture. This book is an exploration of agri-nanotechnology covering foundational principles, various applications, environmental considerations, and future trends. It serves as a valuable resource for researchers, academics, students, policymakers, and industry professionals interested in the intersection of nanotechnology and agriculture. By addressing both the scientific and societal implications of agri-nanotechnology, this book contributes to the sustainable development of agriculture in the 21st century. This book... Expands existing knowledge and understanding of applications of nano-materials in agriculture, exploring their chemical structures, properties, and biological activities; Provides readers with a foundational understanding of nanoscale science and its relevance to agriculture; Explores various types of nanomaterials and their applications in crop production, soil management, and pest control; Discusses the use of nanosensors for real-time monitoring of soil and crop conditions, as well as data analytics for precision agriculture; Addresses the development of nanopesticides, nanofertilizers, and nanodelivery systems to reduce chemical use and enhance crop protection; Examines how nanotechnology can contribute to sustainable practices such as water management, waste reduction, and energy efficiency; Discusses the regulatory framework and ethical concerns surrounding the use of nanotechnology in agriculture; Bridges the gap between the fields of agriculture, biotechnology, chemical and physical sciences.

The elapsing time from producer to consumer has significantly increased as a result of food marketing and trade globalization. Consequently, maintaining quality along the food value chain is becoming a significant challenge. Postharvest losses are considered a major component of food loss and waste in the supply chain from farmers to consumers, due to improper handling, storage, transport, preservation techniques and spoilage. Postharvest science aims to extend the shelf life of fresh and perishable commodities, and to reduce heavy losses, thereby contributing to food security. While significant progresses have been made in postharvest preservation and shelf-life extension, the continuous development of emerging technologies have changed our vision on postharvest science. Furthermore, recent advancements in molecular engineering of horticultural crops for quality improvement; the development of genomics, transcriptomics, proteomics, and metabolomics have led to a better understanding of the physiology and the biochemistry of the senescence processes, resulting in better preservation and improved production of fresh crops. This two-volume work focuses on innovative technologies that extend and preserve shelf life of fruits and vegetables. Volume 1 offers a review on the state of the art modern technologies in the postharvest filed. The accompanying Volume 2 explores advanced and novel technologies after harvest, particularly the application of nanotechnologies to packaging materials.

This book brings together the latest information on almond genomics and transcriptomics, with a particular focus on cutting-edge findings, tools, and strategies employed in genome sequencing and analysis with regard to the most important agronomic traits. Cultivated almond [(Prunus dulcis (Miller) D. A. Webb, syn. Prunus amygdalus Batsch., Amygdalus communis L., Amygdalus dulcis Mill.)] is a tree crop producing seeds of great economic interest, and adapted to hot and dry climates. Domesticated in Southeast Asia, its small diploid genome and phenotypic diversity make it an ideal model to complement genomics studies on peach, generally considered to be the reference Prunus species. Both represent consanguineous species that evolved in two distinct environments: warmer and more humid in the case of peach, and colder and xerophytic for almond. The advent of affordable whole-genome sequencing, in combination with existing Prunus functional genomics data, has now made it possible to leverage the novel diversity found in almond, providing an unmatched resource for the genetic improvement of this species.