Bermudagrass Responses and Tolerance to Salt Stress by the Physiological, Molecular Mechanisms and Proteomic Perspectives of Salinity Adaptation

<i>Cynodon dactylon</i> (L.) Pers. (commonly known as bermudagrass) is a member of the family <i>Poaceae</i>. It is a C4 grass that can grow annually and perennially with clone reproduction and seed-setting. It is not only used as forage but also as a weed in many crops. It g...

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Main Authors: Maryam Noor, Ji-Biao Fan, Jing-Xue Zhang, Chuan-Jie Zhang, Sheng-Nan Sun, Lu Gan, Xue-Bing Yan
Format: Article
Language:English
Published: MDPI AG 2023-01-01
Series:Agronomy
Subjects:
Online Access:https://www.mdpi.com/2073-4395/13/1/174
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author Maryam Noor
Ji-Biao Fan
Jing-Xue Zhang
Chuan-Jie Zhang
Sheng-Nan Sun
Lu Gan
Xue-Bing Yan
author_facet Maryam Noor
Ji-Biao Fan
Jing-Xue Zhang
Chuan-Jie Zhang
Sheng-Nan Sun
Lu Gan
Xue-Bing Yan
author_sort Maryam Noor
collection DOAJ
description <i>Cynodon dactylon</i> (L.) Pers. (commonly known as bermudagrass) is a member of the family <i>Poaceae</i>. It is a C4 grass that can grow annually and perennially with clone reproduction and seed-setting. It is not only used as forage but also as a weed in many crops. It grows along roadsides, in barren lands, irrigated lands, and seacoasts, where soil salinity is a major problem. Although bermudagrass is distributed worldwide, it shows limited growth under saline conditions. Under salt stress, the whole-plant growth is disturbed and the forage quality is compromised morphologically. At the physiological level, shoot development is affected owing to the resultant oxidative stress, although the total rate of photosynthesis is not greatly affected. Biochemical changes include a change in the K<sup>+</sup>/Na<sup>+</sup> ratio; antioxidant enzymes such as superoxide dismutase and peroxide dismutase increase, while catalase activity slows down. The anatomical changes are visible as salt crystals on the leaf surface and salt glands on the mesophyll surface. In this paper, the morphological, physiological, biochemical, and proteomic mechanisms of bermudagrass under salt stress are discussed, drawing a study of several genes such as <i>ECA4</i>, <i>RAN1</i>, <i>MHX1</i>, <i>psbA1</i>, <i>psbB1</i>, <i>psbP</i>, and <i>psbY</i> at the molecular level. Therefore, the current review aims to understand how bermudagrass grows and adapts well under salt conditions.
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spelling doaj.art-d91e077b1bb94076bbfcc6ce52b35a0f2023-11-30T20:49:59ZengMDPI AGAgronomy2073-43952023-01-0113117410.3390/agronomy13010174Bermudagrass Responses and Tolerance to Salt Stress by the Physiological, Molecular Mechanisms and Proteomic Perspectives of Salinity AdaptationMaryam Noor0Ji-Biao Fan1Jing-Xue Zhang2Chuan-Jie Zhang3Sheng-Nan Sun4Lu Gan5Xue-Bing Yan6College of Animal Science and Technology, Yangzhou University, Yangzhou 225009, ChinaCollege of Animal Science and Technology, Yangzhou University, Yangzhou 225009, ChinaCollege of Animal Science and Technology, Yangzhou University, Yangzhou 225009, ChinaCollege of Animal Science and Technology, Yangzhou University, Yangzhou 225009, ChinaCollege of Animal Science and Technology, Yangzhou University, Yangzhou 225009, ChinaCollege of Animal Science and Technology, Yangzhou University, Yangzhou 225009, ChinaCollege of Animal Science and Technology, Yangzhou University, Yangzhou 225009, China<i>Cynodon dactylon</i> (L.) Pers. (commonly known as bermudagrass) is a member of the family <i>Poaceae</i>. It is a C4 grass that can grow annually and perennially with clone reproduction and seed-setting. It is not only used as forage but also as a weed in many crops. It grows along roadsides, in barren lands, irrigated lands, and seacoasts, where soil salinity is a major problem. Although bermudagrass is distributed worldwide, it shows limited growth under saline conditions. Under salt stress, the whole-plant growth is disturbed and the forage quality is compromised morphologically. At the physiological level, shoot development is affected owing to the resultant oxidative stress, although the total rate of photosynthesis is not greatly affected. Biochemical changes include a change in the K<sup>+</sup>/Na<sup>+</sup> ratio; antioxidant enzymes such as superoxide dismutase and peroxide dismutase increase, while catalase activity slows down. The anatomical changes are visible as salt crystals on the leaf surface and salt glands on the mesophyll surface. In this paper, the morphological, physiological, biochemical, and proteomic mechanisms of bermudagrass under salt stress are discussed, drawing a study of several genes such as <i>ECA4</i>, <i>RAN1</i>, <i>MHX1</i>, <i>psbA1</i>, <i>psbB1</i>, <i>psbP</i>, and <i>psbY</i> at the molecular level. Therefore, the current review aims to understand how bermudagrass grows and adapts well under salt conditions.https://www.mdpi.com/2073-4395/13/1/174<i>Cynodon dactylon</i>growthabiotic stresssalt toleranceadaptationproteomic study
spellingShingle Maryam Noor
Ji-Biao Fan
Jing-Xue Zhang
Chuan-Jie Zhang
Sheng-Nan Sun
Lu Gan
Xue-Bing Yan
Bermudagrass Responses and Tolerance to Salt Stress by the Physiological, Molecular Mechanisms and Proteomic Perspectives of Salinity Adaptation
Agronomy
<i>Cynodon dactylon</i>
growth
abiotic stress
salt tolerance
adaptation
proteomic study
title Bermudagrass Responses and Tolerance to Salt Stress by the Physiological, Molecular Mechanisms and Proteomic Perspectives of Salinity Adaptation
title_full Bermudagrass Responses and Tolerance to Salt Stress by the Physiological, Molecular Mechanisms and Proteomic Perspectives of Salinity Adaptation
title_fullStr Bermudagrass Responses and Tolerance to Salt Stress by the Physiological, Molecular Mechanisms and Proteomic Perspectives of Salinity Adaptation
title_full_unstemmed Bermudagrass Responses and Tolerance to Salt Stress by the Physiological, Molecular Mechanisms and Proteomic Perspectives of Salinity Adaptation
title_short Bermudagrass Responses and Tolerance to Salt Stress by the Physiological, Molecular Mechanisms and Proteomic Perspectives of Salinity Adaptation
title_sort bermudagrass responses and tolerance to salt stress by the physiological molecular mechanisms and proteomic perspectives of salinity adaptation
topic <i>Cynodon dactylon</i>
growth
abiotic stress
salt tolerance
adaptation
proteomic study
url https://www.mdpi.com/2073-4395/13/1/174
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