Mitigating salinity stress on tomato growth, water regime, gas exchange, and yield with the application of QuitoMax

被引:0
|
作者
Argentel-Martinez, Leandris [1 ]
Penuelas-Rubio, Ofelda [1 ]
Amador, Carlos avila [1 ]
Steiner, Fabio [2 ]
Aguilera, Jorge Gonzalez [2 ]
Shin, Jae-Ho [3 ]
Zuffo, Alan Mario [4 ]
Ratke, Rafael Felippe [5 ]
Teodoro, Paulo Eduardo [5 ]
Azizoglu, Ugur [6 ,7 ]
机构
[1] Tecnol Nacl Mexico, Inst Tecnol Valle Yaqui, Bacum 85260, Sonora, Mexico
[2] Univ Estadual Mato Grosso Do Sul UEMS, Dept Agron, BR-79540000 Cassilandia, MS, Brazil
[3] Kyungpook Natl Univ, Coll Agr & Life Sci, Sch Appl Biosci, Daegu 41566, South Korea
[4] Univ Estadual Maranhao, Agron Dept, Campus Balsas, BR-65800000 Balsas, MA, Brazil
[5] Fed Univ Mato Grosso Do Sul UFMS, Agron Dept, BR-79650000 Chapadao, MS, Brazil
[6] Kayseri Univ, Safiye Cikrikcioglu Vocat Coll, Dept Crop & Anim Prod, Kayseri, Turkiye
[7] Erciyes Univ, Genome & Stem Cell Res Ctr, Kayseri, Turkiye
来源
SCIENTIFIC REPORTS | 2024年 / 14卷 / 01期
关键词
Contribution; Salinity; Amalia; Claudia; Chitosan; NaCl; FOLIAR APPLICATION; PLANT-GROWTH; CHITOSAN; QUALITY; L;
D O I
10.1038/s41598-024-82211-2
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
07 ; 0710 ; 09 ;
摘要
This study assessed the intensity of salt stress in the two tomato varieties by measuring variables associated with the water regime, chlorophyll content, normalized difference vegetation index, gas exchange, and yield. The cultivars Amalia and Claudia, which represent tolerance and susceptibility to salinity, were evaluated. Three treatments were established in plastic pots, using a completely randomized design: T1, saline soil (ECse = 6.9 dS m-1 without QuitoMax application); T2, nonsaline soil (ECse = 0.95 dS m -1 with QuitoMax application); and T3, saline soil (ECse = 6.9 dS m-1) with QuitoMax application. The QuitoMax was applied at a rate of 300 mg L-1, during the flowering phenophase. QuitoMax caused an increase in the variables evaluated in both varieties (tolerant and susceptible) of tomato, with a lower contribution of QuitoMax to the variables related to water regime and the greatest contributions to chlorophyll content and photosynthetic activity. QuitoMax contributed positively to all variables and was superior to stress intensity for most of the variables evaluated in the tolerant variety (Amalia), except for stem thickness and the number of flowers per bunch. In the susceptible variety (Claudia), the five variables of stress intensity exceeded the contribution of QuitoMax, with the strongest effects on osmotic potential, fruit mass, and yield per plant. The present work demonstrates the feasibility of using this biostimulant to increase the tolerance of tolerant varieties and maintain tolerance in tomato varieties susceptible to salinity, reducing the intensity of saline stress and increasing plant performance under salinity conditions.
引用
收藏
页数:14
相关论文
共 50 条
  • [31] Water Relations, Gas Exchange, and Yield of Pepper Cultivars under Water Deficit Stress
    Leskovar, Daniel
    Othman, Yahia
    Crosby, Kevin
    Dong, Xuejun
    Xue, Qingwu
    Marek, Thomas
    HORTSCIENCE, 2015, 50 (09) : S382 - S383
  • [32] Response of saffron (Crocus sativus L.) to irrigation water salinity, irrigation regime and planting method: Physiological growth and gas exchange
    Dastranj, Maryam
    Sepaskhah, Ali Reza
    SCIENTIA HORTICULTURAE, 2019, 257
  • [33] Application of zinc nanoparticles as seed priming agent improves growth and yield of wheat seedlings grown under salinity stress by enhanced antioxidants activities and gas exchange attributes
    Zafar, Sara
    Khan, Shahbaz
    Ibrar, Danish
    Khan, Muhammad Kamran
    Hasnain, Zuhair
    Mehmood, Kashf
    Rais, Afroz
    Gul, Safia
    Irshad, Sohail
    Nawaz, Muhammad
    CEREAL RESEARCH COMMUNICATIONS, 2024, 52 (4) : 1551 - 1564
  • [34] Quantum yield and gas exchange in yellow passion fruit under salinity water, biofertilization and mulch
    de Oliveira Freire, Jose Lucinio
    Dias, Thiago Jardelino
    Cavalcante, Lourival Ferreira
    Fernandes, Pedro Dantas
    de Lima Neto, Antonio Joao
    REVISTA CIENCIA AGRONOMICA, 2014, 45 (01): : 82 - 91
  • [35] EFFECTS OF LONG-TERM WATER STRESS ON LEAF GAS EXCHANGE, GROWTH AND YIELD OF THREE STRAWBERRY CULTIVARS
    Klamkowski, Krzysztof
    Treder, Waldemar
    Wojcik, Katarzyna
    ACTA SCIENTIARUM POLONORUM-HORTORUM CULTUS, 2015, 14 (06): : 55 - 65
  • [36] EFFECT OF MICROBIOLOGICAL FERTILIZER FOR MITIGATING WATER STRESS IN CHERRY TOMATO
    Murtic, Senad
    Oljaca, Rodoljub
    Murtic, Mirela Smajic
    Koleska, Ivana
    Karic, Lutvija
    Avdic, Jasna
    BULGARIAN JOURNAL OF AGRICULTURAL SCIENCE, 2018, 24 (01): : 106 - 111
  • [37] Gas exchange and growth of bell pepper grown in different substrates under salinity stress
    de Oliveira, Francisco de A.
    dos Santos, Sandy T.
    Melo, Mikhael R. de S.
    de Oliveira, Mychelle K. T.
    Travassos, Kaline
    de Sousa, Leonardo, V
    Pinto, Francisco F. B.
    HORTICULTURA BRASILEIRA, 2024, 42
  • [38] Effects of hydroponic systems on yield, water productivity and stomatal gas exchange of greenhouse tomato cultivars
    Fayezizadeh, Mohammad Reza
    Ansari, Naser Alam Zadeh
    Albaji, Mohammad
    Khaleghi, Esmail
    AGRICULTURAL WATER MANAGEMENT, 2021, 258
  • [39] RELATIONS BETWEEN MN CONCENTRATION AND YIELD, NUTRIENT, WATER STATUS, AND GAS EXCHANGE PARAMETERS OF TOMATO
    Kleiber, Tomasz
    Borowiak, Klaudia
    Budka, Anna
    Kayzer, Dariusz
    ACTA BIOLOGICA CRACOVIENSIA SERIES BOTANICA, 2014, 56 (02) : 98 - 106
  • [40] Salinity and Deficit Irrigation Influence Tomato Growth, Yield and Water Use Efficiency at Different Developmental Stages
    Al-Harbi, Abdulaziz R.
    Al-Omran, Abdulrasoul M.
    Alenazi, Mekhled M.
    Wahb-Allah, Mahmoud A.
    INTERNATIONAL JOURNAL OF AGRICULTURE AND BIOLOGY, 2015, 17 (02) : 241 - 250