Genome editing of polyploid crops: prospects, achievements and bottlenecks

被引:0
|
作者
Jan G. Schaart
Clemens C. M. van de Wiel
Marinus J. M. Smulders
机构
[1] Wageningen University and Research,Plant Breeding
来源
Transgenic Research | 2021年 / 30卷
关键词
Genome editing; Polyploid crops; CRISPR/Cas; TALENs;
D O I
暂无
中图分类号
学科分类号
摘要
Plant breeding aims to develop improved crop varieties. Many crops have a polyploid and often highly heterozygous genome, which may make breeding of polyploid crops a real challenge. The efficiency of traditional breeding based on crossing and selection has been improved by using marker-assisted selection (MAS), and MAS is also being applied in polyploid crops, which helps e.g. for introgression breeding. However, methods such as random mutation breeding are difficult to apply in polyploid crops because there are multiple homoeologous copies (alleles) of each gene. Genome editing technology has revolutionized mutagenesis as it enables precisely selecting targets. The genome editing tool CRISPR/Cas is especially valuable for targeted mutagenesis in polyploids, as all alleles and/or copies of a gene can be targeted at once. Even multiple genes, each with multiple alleles, may be targeted simultaneously. In addition to targeted mutagenesis, targeted replacement of undesirable alleles by desired ones may become a promising application of genome editing for the improvement of polyploid crops, in the near future. Several examples of the application of genome editing for targeted mutagenesis are described here for a range of polyploid crops, and achievements and bottlenecks are highlighted.
引用
收藏
页码:337 / 351
页数:14
相关论文
共 50 条
  • [21] Genome editing in cereal crops: an overview
    Matres, Jerlie Mhay
    Hilscher, Julia
    Datta, Akash
    Armario-Najera, Victoria
    Baysal, Can
    He, Wenshu
    Huang, Xin
    Zhu, Changfu
    Valizadeh-Kamran, Rana
    Trijatmiko, Kurniawan R.
    Capell, Teresa
    Christou, Paul
    Stoger, Eva
    Slamet-Loedin, Inez H.
    TRANSGENIC RESEARCH, 2021, 30 (04) : 461 - 498
  • [22] Genome editing in cereal crops: an overview
    Jerlie Mhay Matres
    Julia Hilscher
    Akash Datta
    Victoria Armario-Nájera
    Can Baysal
    Wenshu He
    Xin Huang
    Changfu Zhu
    Rana Valizadeh-Kamran
    Kurniawan R. Trijatmiko
    Teresa Capell
    Paul Christou
    Eva Stoger
    Inez H. Slamet-Loedin
    Transgenic Research, 2021, 30 : 461 - 498
  • [23] Strategies of genome editing in mycobacteria: Achievements and challenges
    Choudhary, Eira
    Lunge, Ajitesh
    Agarwal, Nisheeth
    TUBERCULOSIS, 2016, 98 : 132 - 138
  • [24] Therapeutic genome editing: prospects and challenges
    David Benjamin Turitz Cox
    Randall Jeffrey Platt
    Feng Zhang
    Nature Medicine, 2015, 21 : 121 - 131
  • [25] Progress and prospects in plant genome editing
    Yin, Kangquan
    Gao, Caixia
    Qiu, Jin-Long
    NATURE PLANTS, 2017, 3 (08)
  • [26] Therapeutic genome editing: prospects and challenges
    Cox, David Benjamin Turitz
    Platt, Randall Jeffrey
    Zhang, Feng
    NATURE MEDICINE, 2015, 21 (02) : 121 - 131
  • [27] Trends and prospects in mitochondrial genome editing
    Phan, Hong Thi Lam
    Lee, Hyunji
    Kim, Kyoungmi
    EXPERIMENTAL AND MOLECULAR MEDICINE, 2023, 55 (05): : 871 - 878
  • [28] Progress and prospects in plant genome editing
    Kangquan Yin
    Caixia Gao
    Jin-Long Qiu
    Nature Plants, 3
  • [29] Trends and prospects in mitochondrial genome editing
    Hong Thi Lam Phan
    Hyunji Lee
    Kyoungmi Kim
    Experimental & Molecular Medicine, 2023, 55 : 871 - 878
  • [30] Turning Up the Heat on Editing of the Highly Polyploid Sugarcane Genome
    Eid, Ayman
    Mohan, Chakravarthi
    Sanchez, Sara
    Wang, Duoduo
    Altpeter, Fredy
    IN VITRO CELLULAR & DEVELOPMENTAL BIOLOGY-ANIMAL, 2021, 57 (SUPPL 1) : S35 - S35