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Rapid Generation Advancement for Accelerated Plant Improvement
Book chapter

Rapid Generation Advancement for Accelerated Plant Improvement

Aladdin Hamwieh, Naglaa Abdallah, Shiv Kumar, Michael Baum, Nourhan Fouad, Tawffiq Istanbuli, Sawsan Tawkaz, Tapan Kumar, Khaled Radwan, Fouad Maalouf, …
Frontier Technologies for Crop Improvement, pp.79-105
Sustainability Sciences in Asia and Africa, Springer Nature Singapore
2024

Abstract

Doubled haploid Genome editing Genomic selection Marker-assisted selection Rapid generation advancement Shuttle breeding Speed breeding
In 2020, more than 800 million people suffered from hunger, and this number will continue to rise as the world’s population increases, in addition to heightening the consequences of climate change and the probability of increasing the risk of wars. We cannot continue to use the conventional breeding techniques employed 50 years ago, which require 7–10 years to develop a high-yielding and stable variety. Several technologies, including shuttle breeding, off-season planting, tissue culture (embryo rescue), doubled haploid (DH), marker-assisted selection (MAS), high-throughput genotyping, genomic selection (GS), plant transformation, speed breeding, and genome editing, have been developed for rapid generation advancement (RGA). Utilizing these technologies can expedite the development of climate-resilient plant varieties with enhanced yield and resilience to biotic and abiotic challenges. This chapter goes deep into these technologies and approaches that have emerged in the last 10 years and could be used to accelerate crop improvement.

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