Eligible strategies of drought response to improve drought resistance in woody crops: a mini-review

被引:0
|
作者
Elia Carraro
Antonino Di Iorio
机构
[1] Università Degli Studi Dell’Insubria,Department of Biotechnology and Life Sciences
来源
关键词
Woody crops; Drought tolerance; Drought avoidance; Citrus cultivars; Olea cultivars; Genetic engineering;
D O I
暂无
中图分类号
学科分类号
摘要
Drought is the main abiotic stress that negatively affects the crop yield. Due to the rapid climate change, actual plant defence mechanisms may be less effective against increased drought stress and other related or co-occurring abiotic stresses such as salt and high temperature. Thus, genetic engineering approaches may be an important tool for improving drought tolerance in crops. This mini-review focuses on the responses to drought stress of the woody crop species Olea europaea and Citrus sp., selecting in particular five main strategies adopted by plants in response to drought stress: aquaporin (AQPs) expression, antioxidant activity, ABA signalling, and trehalose and proline accumulation. Transgenic studies on both the herbaceous Arabidopsis and woody Populus plant models showed an improvement in drought resistance with increasing expression of these drought-inducible genes. Outcomes from the present study suggest the overexpression of the gene families associated with AQPs and ABA biosynthesis, mainly involved in regulating water transport and in preventing water loss, respectively, as candidate targets for improving drought resistance; antioxidants-, trehalose- and proline-related genes remain valid candidates for resistance to a wider spectrum of abiotic stressors, including drought. However, the contribution of an increased stiffness of the modulus elasticity of leaf parenchyma cell walls to the rapid recovery of leaf water potential, delaying by this way the stress onset, is not a secondary aspect of the transgenic optimization, in particular for Olea cultivars.
引用
收藏
页码:265 / 282
页数:17
相关论文
共 50 条
  • [41] Identification and Application of CLE Peptides for Drought Resistance in Solanaceae Crops
    Li, Junhao
    Huang, Yan
    Yu, Xiaosong
    Wu, Qiqi
    Man, Xiaxia
    Diao, Zhihong
    You, Huang
    Shen, Jinbo
    Cai, Yi
    JOURNAL OF AGRICULTURAL AND FOOD CHEMISTRY, 2024, 72 (24) : 13869 - 13884
  • [42] Mini-review: Strategies for Variation and Evolution of Bacterial Antigens
    Foley, Janet
    COMPUTATIONAL AND STRUCTURAL BIOTECHNOLOGY JOURNAL, 2015, 13 : 407 - 416
  • [43] Root-Related Genes in Crops and Their Application under Drought Stress Resistance-A Review
    Qin, Tianyuan
    Kazim, Ali
    Wang, Yihao
    Richard, Dormatey
    Yao, Panfeng
    Bi, Zhenzhen
    Liu, Yuhui
    Sun, Chao
    Bai, Jiangping
    INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES, 2022, 23 (19)
  • [44] Drought-Response Strategies of Savanna Herbivores
    Abraham, J. O.
    Staver, A. C.
    INTEGRATIVE AND COMPARATIVE BIOLOGY, 2019, 59 : E262 - E262
  • [45] Drought-response strategies of savanna herbivores
    Abraham, Joel O.
    Hempson, Gareth P.
    Staver, A. Carla
    ECOLOGY AND EVOLUTION, 2019, 9 (12): : 7047 - 7056
  • [46] Drought resistance and drought adaptation of Douglas-fir (Pseudotsuga menziesii) - A review
    Leuschner, Christoph
    Meinzer, Frederick C.
    PERSPECTIVES IN PLANT ECOLOGY EVOLUTION AND SYSTEMATICS, 2024, 65
  • [47] Review of strategies for effective flood and drought management
    Bulletin of the Institution of Engineers, India - Supplement, 1990, 39 (10):
  • [48] Pearl millet response to drought: A review
    Shrestha, Nikee
    Hu, Hao
    Shrestha, Kumar
    Doust, Andrew N.
    FRONTIERS IN PLANT SCIENCE, 2023, 14
  • [49] Seed Vigour Testing as a Solution to Improve the Resistance to Drought
    Pazderu, Katerina
    SEED AND SEEDLINGS XIV, 2019, : 19 - 23
  • [50] Intercrops improve the drought resistance of young rubber trees
    Cathy Clermont-Dauphin
    Chaiyanam Dissataporn
    Nopmanee Suvannang
    Pirach Pongwichian
    Jean-luc Maeght
    Claude Hammecker
    Christophe Jourdan
    Agronomy for Sustainable Development, 2018, 38