数字农科院2.0

Advancing Chickpea Breeding: Omics Insights for Targeted Abiotic Stress Mitigation and Genetic Enhancement

文献类型： 外文期刊

作者： Altaf, Muhammad Tanveer;Liaqat, Waqas;Ali, Amjad;Jamil, Amna;Fahad, Muhammad;Rahman, Muhammad Aneeq Ur;Baloch, Faheem Shehzad;Mohamed, Heba I.

作者机构：

关键词： Chickpea;Abiotic stress;Genetic resources;Omics;QTLs;GWAS;Sustainable agriculture

期刊名称： BIOCHEMICAL GENETICS

ISSN： 0006-2928

年卷期： 2024 年

页码：

收录情况： SCIE（2024版）

摘要： Chickpea is a major source of proteins and is considered the most economically vital food legume. Chickpea production is threatened by several abiotic and biotic factors worldwide. The main constraints limiting worldwide chickpea production are abiotic conditions such as drought, heat, salinity, and cold. It is clear that chickpea is treasured for its nutritive value, in particular its high protein content, and hence study of problems like drought, cold and salinity stresses are very important concerning chickpeas. In this regard, several physiological, biochemical, and molecular mechanisms are reviewed to confer tolerance to abiotic stress. The most crippling economic losses in agriculture occur due to these abiotic stressors, which affect plants in many ways. All these abiotic stresses affect the water relations of the plant, both at the cellular level as well as the whole-plant level, causing both specific and non-specific reactions, damage and adaptation reactions. These stresses share common features. Breeding programs use a huge collection of over 100,000 chickpea accessions as their foundation. Significant advancements in conventional breeding, including mutagenesis, gene/allele introgression, and germplasm introduction, have been made through this method. Abiotic tolerance and yield component selection are made easier by creating unique DNA markers for the genus Cicer, which has been made possible by developments in high-throughput sequencing and molecular biology. Transcriptomics, proteomics, and metabolomics have also made it possible to identify particular genes, proteins, and metabolites linked to chickpea tolerance to abiotic stress. Chickpea abiotic stress tolerance has been directly and potentially improved by biotechnological applications, which are covered by all 'Omics' approaches. It requires information on the abiotic stress response at the different molecular levels, which comprises gene expression analysis for metabolites or proteins and its impact on phenotype. Studies on chickpea genome-wide expression profiling have been conducted to determine important candidate genes and their regulatory networks for abiotic stress response. This study aimed to offer a detailed overview of the diverse 'Omics' approaches for resilience's to abiotic stresses on chickpea plants.

分类号：

  • 相关文献

[1]An overview of heat stress in Chickpea (Cicer arietinum L.): effects, mechanisms and diverse molecular breeding approaches for enhancing resilience and productivity. Naveed, Mahak,Aslam, Mariyah,Ahmed, Syed Riaz,Tan, Daniel K. Y.,De Mastro, Francesco,Tariq, Muhammad Sayyam,Sakhawat, Ammara,Asad, Muhammad Azeem,Liu, Yongming. 2025

[2]Joint-linkage mapping and GWAS reveal extensive genetic loci that regulate male inflorescence size in maize. Wu, Xun,Li, Yongxiang,Shi, Yunsu,Song, Yanchun,Zhang, Dengfeng,Li, Chunhui,Li, Yu,Wang, Tianyu,Buckler, Edward S.,Buckler, Edward S.,Zhang, Zhiwu,Wu, Xun,Zhang, Zhiwu.

[3]Genome wide association study identifies candidate genes related to fatty acid components in upland cotton (Gossypium hirsutum L.). Yue Xin,Jianjiang Ma,Jikun Song,Bing Jia,Shuxian Yang,Luyao Wu,Li Huang,Wenfeng Pei,Li Wang,Jiwen Yu,Man Wu. 2022

[4]Genome-Wide Association Analysis Reveals the Gene Loci of Yield Traits under Drought Stress at the Rice Reproductive Stage. Nansheng Wang,Zhiyuan Gao,Wanyang Zhang,Yingzhi Qian,Di Bai,Xueyu Zhao,Yaling Bao,Zhenzhen Zheng,Xingmeng Wang,Jianfeng Li,Wensheng Wang,Yingyao Shi. 2023

[5]Genome-Wide Association Study of Rice Grain Shape and Chalkiness in a Worldwide Collection of Xian Accessions. Nansheng Wang,Huguang Chen,Yingzhi Qian,Zhaojie Liang,Guiqiang Zheng,Jun Xiang,Ting Feng,Min Li,Wei Zeng,Yaling Bao,Erbao Liu,Chaopu Zhang,Jianlong Xu,Yingyao Shi. 2023

[6]Genome-Wide Association Study of Xian Rice Grain Shape and Weight in Different Environments. Nansheng Wang,Wanyang Zhang,Xinchen Wang,Zhenzhen Zheng,Di Bai,Keyang Li,Xueyu Zhao,Jun Xiang,Zhaojie Liang,Yingzhi Qian,Wensheng Wang,Yingyao Shi. 2023

[7]Genome-wide association study (GWAS) identifies genetic loci and candidate genes for variation in protein and oil content in Sesamum indicum L.. Habtamu Kefale,Rong Zhou,Muez Berhe,Ahmed A. Abbas,Chris O. Ojiewo,Huan Li,Ting Zhou,Jun You,Linhai Wang. 2025

[8]Integrated Analysis of Metabolome and Transcriptome Reveals Insights for Cold Tolerance in Rapeseed (Brassica napus L.). Ali Raza,Wei Su,Muhammad Azhar Hussain,Sundas Saher Mehmood,Xuekun Zhang,Yong Cheng,Xiling Zou,Yan Lv. 2021

[9]Metabolomics: a systems biology approach for enhancing heat stress tolerance in plants. Ali Raza. 2022

[10]miRNAs for crop improvement. Raza, Ali,Charagh, Sidra,Karikari, Benjamin,Sharif, Rahat,Yadav, Vivek,Mubarik, Muhammad Salman,Habib, Madiha,Zhuang, Yuhui,Zhang, Chong,Chen, Hua,Varshney, Rajeev K.,Zhuang, Weijian. 2023

[11]Multidimensional Role of Silicon to Activate Resilient Plant Growth and to Mitigate Abiotic Stress. Rakeeb Ahmad Mir,Basharat Ahmad Bhat,Henan Yousuf,Sheikh Tajamul Islam,Ali Raza,Masood Ahmad Rizvi,Sidra Charagh,Mohammed Albaqami,Parvaze A. Sofi,Sajad Majeed Zargar. 2022

[12]Harnessing microbial interactions with rice: Strategies for abiotic stress alleviation in the face of environmental challenges and climate change. Zhao J.,Yu X.,Zhang C.,Hou L.,Wu N.,Zhang W.,Wang Y.,Yao B.,Delaplace P.,Tian J.. 2024

[13]Developing future heat-resilient vegetable crops. Saeed F.,Chaudhry U.K.,Raza A.,Charagh S.,Bakhsh A.,Bohra A.,Ali S.,Chitikineni A.,Saeed Y.,Visser R.G.F.,Siddique K.H.M.,Varshney R.K.. 2023

[14]Genome-wide identification and functional analysis of cupin_1 domain-containing members involved in the responses to Sclerotinia sclerotiorum and abiotic stress in Brassica napus. He, Yizhou,Li, Yan,Bai, Zetao,Xie, Meili,Zuo, Rong,Liu, Jie,Xia, Jing,Cheng, Xiaohui,Liu, Yueying,Tong, Chaobo,Zhang, Yuanyuan,Liu, Shengyi. 2022

[15]中棉所48主要经济性状的分子标记及QTL定位. 潘兆娥,潘兆娥,贾银华,孙君灵,周忠丽,何守朴,庞保印,王立如,杜雄明. 2010

[16]桃果实糖、酸QTL定位和候选基因分析研究进展. 张佳卉,王力荣,曹珂,朱更瑞,方伟超,陈昌文,王蛟. 2013

[17]辣椒分子遗传图谱的构建和胞质雄性不育恢复性的QTL分析. 张宝玺,王立浩,黄三文,郭家珍,杨桂梅,堵玫珍. 2003

[18]中国作物新基因发掘:现状、挑战与展望. 邱丽娟,郭勇,黎裕,王晓波,周国安,刘章雄,周时荣,李新海,马有志,王建康,万建民. 2011

[19]中国作物新基因发掘: 现状、挑战与展望. 邱丽娟,郭勇,黎裕,王晓波,周国安,刘章雄,周时荣,李新海,马有志,王建康,万建民. 2011

[20]利用分子标记对辣椒抗马铃薯Y病毒的3个QTLs进行选择. 王立浩,张宝玺,C.Caranta,毛胜利,A.Palloix. 2008

作者其他论文 更多>>