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基于二倍体自交系的杂种:马铃薯的快速育种方法。

Diploid inbred-based hybrids: fast-forward breeding approach in potatoes.

作者信息

Sood Salej, Mangal Vikas, Thakur Ajay Kumar, Buckseth Tanuja, Chaudhary Babita, Kumar Vinod, Singh Brajesh

机构信息

ICAR-Central Potato Research Institute, Bemloi, Shimla, Himachal Pradesh 171001 India.

ICAR-Central Potato Research Institute, Regional Station, Modipuram, UP India.

出版信息

Physiol Mol Biol Plants. 2024 Dec;30(12):1955-1968. doi: 10.1007/s12298-024-01544-4. Epub 2024 Dec 24.

Abstract

Following the identification of the self-compatibility gene () in diploid potatoes two decades ago, the breeding of inbred based diploid hybrid potatoes made its way. Tetraploid potatoes have a long history of cultivation through domestication and selection. Tetrasomic inheritance, heterozygosity and clonal propagation complicate genetic studies, resulting in a low genetic gain in potato breeding. Diploid hybrid TPS potato breeding, similar to the developments in hybrid maize, was pursued as an alternative to the genetic improvement of potatoes. However, several challenges, like self-incompatibility and high inbreeding depression associated with diploid potatoes, must be overcome to develop inbred lines in potatoes. Moreover, the inbred lines must retain good fertility and vigour for hybrid breeding. Good progress has been made by creating di-haploids of popular varieties, mapping self-incompatibility inhibitor gene, understanding the genetic basis of inbreeding depression, and identifying genomic regions for deleterious alleles and fertility. Further, the genome sequencing of diploid inbred lines has revealed the genetics of key traits associated with potato breeding. This article discussed these insights and summarized the progress of diploid hybrid TPS potato breeding. Recent advances in genetic and genomic research and genome editing technology have shown promise for this technology's success and far-reaching implications.

摘要

二十年前在二倍体马铃薯中鉴定出自交亲和基因后,基于自交系的二倍体杂交马铃薯育种得以发展。四倍体马铃薯通过驯化和选择已有悠久的栽培历史。四体遗传、杂合性和克隆繁殖使遗传研究变得复杂,导致马铃薯育种中的遗传增益较低。二倍体杂交TPS马铃薯育种,类似于杂交玉米的发展,被作为马铃薯遗传改良的一种替代方法。然而,要在马铃薯中培育自交系,必须克服几个挑战,比如与二倍体马铃薯相关的自交不亲和性和高自交衰退。此外,自交系必须保持良好的育性和活力以用于杂交育种。通过培育流行品种的双单倍体、绘制自交不亲和抑制基因图谱、了解自交衰退的遗传基础以及鉴定有害等位基因和育性的基因组区域,已经取得了良好进展。此外,二倍体自交系的基因组测序揭示了与马铃薯育种相关的关键性状的遗传学。本文讨论了这些见解,并总结了二倍体杂交TPS马铃薯育种的进展。遗传和基因组研究以及基因组编辑技术的最新进展为该技术的成功和深远影响带来了希望。

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