数字农科院2.0

Putting CRISPR-Cas system in action: a golden window for efficient and precise genome editing for crop improvement

文献类型: 外文期刊

作者: Tariq, Arooj;Mushtaq, Muntazir;Yaqoob, Huwaida;Bhat, Basharat Ahmad;Zargar, Sajad Majeed;Raza, Ali;Ali, Sajad;Charagh, Sidra;Mubarik, Muhammad Salman;Zaman, Qamar U.;Prasad, P. V. Vara;Mir, Rakeeb Ahmad

作者机构:

关键词: breeding;CRISPR;Cas system;crop improvement;future crops;GE technologies;mutagenesis;wild crops

期刊名称: GM CROPS & FOOD-BIOTECHNOLOGY IN AGRICULTURE AND THE FOOD CHAIN

ISSN: 2164-5698

年卷期: 2023 年 14 卷 1 期

页码:

收录情况: SCIE(2023版)

摘要: The daunting task of feeding an ever-growing population is an immense challenge for the contemporary scientific community, especially in view of the rapidly changing climate throughout the world. Amidst these threatening crises, we witness rapid development in genome editing (GE) technologies, revolutionizing the field of applied genomics and molecular breeding. Various GE tools have been developed during the last two decades, but the CRISPR/Cas system has most recently made a significant impact on crop improvement. The major breakthroughs of this versatile toolbox are genomic modifications like single base-substitutions, multiplex GE, gene regulation, screening mutagenesis, and enhancing the breeding of wild crop plants. Previously, this toolbox was used to modify genes related to significant traits such as biotic/abiotic resistance/tolerance, post-harvest traits, nutritional regulation, and to address self-incompatibility analysis-related challenges. In the present review, we have demonstrated the functional dynamics of CRISPR-based GE and its applicability in targeting genes to accomplish novel editing of crops. The compiled knowledge will provide a solid foundation for highlighting the primary source for applying CRISPR/Cas as a toolbox for enhancing crops, to achieve food and nutritional security.

分类号:

  • 相关文献

[1]CRISPR/Cas12a-Assisted Chemiluminescence Sensor for Aflatoxin B1 Detection in Cereal Based on Functional Nucleic Acid and In-Pipet Rolling Circle Amplification. Wang, Zhilong,Wei, Luyu,Ruan, Shilong,Chen, Yiping. 2023

[2]Targeted genome editing in polyploids: lessons from Brassica. Ahmad, Niaz,Fatima, Samia,Mehmood, Muhammad Aamer,Zaman, Qamar U.,Atif, Rana Muhammad,Zhou, Weijun,Rahman, Mehboob-ur,Gill, Rafaqat Ali. 2023

[3]Harnessing Epigenetics through Grafting: Revolutionizing Horticultural Crop Production. Jin, Qiang,Chachar, Muzafaruddin,Ahmed, Nazir,Zhang, Pingxian,Chachar, Zaid,Geng, Yuke,Guo, Dayong,Chachar, Sadaruddin. 2023

[4]Uncovering the Research Gaps to Alleviate the Negative Impacts of Climate Change on Food Security: A Review. Farooq M.S.,Uzair M.,Raza A.,Habib M.,Xu Y.,Yousuf M.,Yang S.H.,Ramzan Khan M.. 2022

[5]早熟西瓜新品种锦辉的选育. 谭慧明,杜晓莉,孙德玺,焦书升. 2009

[6]蔬菜育种的基因组学. 黄三文. 2012

[7]DissectingthemaizedirectandindirectdefenseresponseagainstAsianCornBorer. 汪海,李圣彦,查象敏,朱莉,黄大昉,郎志宏. 2015

[8]GeneticAnalysisofNotchedGraininRice水稻腹缺米的遗传分析. 熊振民,闵绍楷,孔繁林,朱旭东. 1986

[9]中国农业的植物突变育种与同位素示踪应用(英文). 梁劬. 1993

[10]运用CRISPR/Cas系统对植物基因组进行定点编辑. 宋时奎,王影,于洋,耿立召,张春翔,李相敢,韩天富. 2014

[11]基因编辑技术及其在作物育种中的应用与安全管理. ,,龙艳,,裴新梧. 2018

[12]CRISPR技术在病毒学研究中的应用. 高帅,李芳,李赞,王涛,赵东明,步志高. 2020

[13]基于专利文献的全球CRISPR技术研发进展分析与展望. 王友华1 邹婉侬1 张熠2 樊君丽3 孙国庆1. 2018

[14]利用CRISPR技术鉴定拟南芥miR171a的功能. 黄格格,张静文,张天豹,柯智,翟楠鑫,龙艳,袁潜华,裴新梧. 2019

[15]基于CRISPR的快速灵敏便捷分子检测. 孙雯君,黄行许,王鑫杰. 2023

[16]基于CRISPR系统的基因编辑技术的研究进展. 郑基坛(综述),闫娜娜,左二伟(审校). 2021

[17]水稻CRISPR/Cas12a系统的优化及其介导的腺嘌呤碱基编辑器的建立. 王敬文,严芳,柳浪,周雪平,王道文,周焕斌. 2021

[18]CRISPR相关技术在肉牛领域的研究进展. 吴天弋,党靖宇,王添祯,张路培,高雪,李俊雅,徐凌洋. 2023

[19]基于CRISPR/CasX介导的水稻基因编辑技术的建立. 李雪琪,张素杰,于曼,黄金光,周焕斌. 2023

[20]基于CRISPR/LanCas9的水稻基因编辑系统的开发和优化. 李欣格,王美霞,王晨阳,马桂根,周常勇,王亚南,周焕斌. 2024

作者其他论文 更多>>