Angel Fernandez i Marti – författare

Cannabis is undergoing a remarkable transformation—from a misunderstood plant to a cornerstone of modern medicine, industry, and agriculture. This book bridges the gap between tradition and innovation, providing a holistic exploration of cannabis genetics, breeding, genomics, and its wide-ranging applications. Authored by leading researchers, industry pioneers, and legacy breeders, it offers a unique blend of academic rigor and practical insights.Unlike other resources, this book integrates perspectives from public and private sectors, honoring those who have advanced cannabis cultivation despite legal and social barriers. It recognizes the pivotal role of startups like MyFloraDNA, which invest heavily in groundbreaking research, shaping the future of this extraordinary plant.Key Features: Comprehensive insights into cannabis origins, taxonomy, and genetic diversity. Advanced breeding techniques and applications of tissue culture, CRISPR, and "omics" technologies. Practical strategies for pest management, crop improvement, and intellectual property protection. Forward-looking perspectives on cannabis in personalized medicine, sustainability, and global agriculture. Written for scientists, growers, policymakers, and enthusiasts, this book addresses the economic, social, and scientific dimensions of cannabis. It offers actionable knowledge to drive progress in cultivation, industry, and research.

Cannabis is undergoing a remarkable transformation—from a misunderstood plant to a cornerstone of modern medicine, industry, and agriculture. This book bridges the gap between tradition and innovation, providing a holistic exploration of cannabis genetics, breeding, genomics, and its wide-ranging applications. Authored by leading researchers, industry pioneers, and legacy breeders, it offers a unique blend of academic rigor and practical insights.

Unlike other resources, this book integrates perspectives from public and private sectors, honoring those who have advanced cannabis cultivation despite legal and social barriers. It recognizes the pivotal role of startups like MyFloraDNA, which invest heavily in groundbreaking research, shaping the future of this extraordinary plant.

Key Features:

Comprehensive insights into cannabis origins, taxonomy, and genetic diversity.

Advanced breeding techniques and applications of tissue culture, CRISPR, and "omics" technologies.

Practical strategies for pest management, crop improvement, and intellectual property protection.

Forward-looking perspectives on cannabis in personalized medicine, sustainability, and global agriculture.

Written for scientists, growers, policymakers, and enthusiasts, this book addresses the economic, social, and scientific dimensions of cannabis. It offers actionable knowledge to drive progress in cultivation, industry, and research.

Cannabis is undergoing a remarkable transformation—from a misunderstood plant to a cornerstone of modern medicine, industry, and agriculture. This book bridges the gap between tradition and innovation, providing a holistic exploration of cannabis genetics, breeding, genomics, and its wide-ranging applications. Authored by leading researchers, industry pioneers, and legacy breeders, it offers a unique blend of academic rigor and practical insights.

Unlike other resources, this book integrates perspectives from public and private sectors, honoring those who have advanced cannabis cultivation despite legal and social barriers. It recognizes the pivotal role of startups like MyFloraDNA, which invest heavily in groundbreaking research, shaping the future of this extraordinary plant.

Key Features:

Comprehensive insights into cannabis origins, taxonomy, and genetic diversity.

Advanced breeding techniques and applications of tissue culture, CRISPR, and "omics" technologies.

Practical strategies for pest management, crop improvement, and intellectual property protection.

Forward-looking perspectives on cannabis in personalized medicine, sustainability, and global agriculture.

Written for scientists, growers, policymakers, and enthusiasts, this book addresses the economic, social, and scientific dimensions of cannabis. It offers actionable knowledge to drive progress in cultivation, industry, and research.

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.

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.