数字农科院2.0

Physio-Biochemical Characteristics and Quality Evaluation in Upper Leaves of Tobacco Nicotiana tabacum L. under Waterlogging Stress

文献类型： 外文期刊

作者： Chen, Z. F.;Liu, W.;Ding, J. B.;Chen, K. M.;Lu, C.;Zhong, Y. F.;Zhao, A. J.;Long, D. B.;Xiong, C. L.;Chen, J.;Zeng, W. A.;Deng, X. H.

作者机构：

关键词： Nicotiana tabacum;waterlogging stress;photosynthetic capacity;superoxide dismutase;leaf color parameters;hemical composition of leaf

期刊名称： RUSSIAN JOURNAL OF PLANT PHYSIOLOGY

ISSN： 1021-4437

年卷期： 2025 年 72 卷 1 期

页码：

收录情况： SCIE（2025版）

摘要： Waterlogging stress reduces the yield and quality of flue-cured tobacco (Nicotiana tabacum L.). At present, there is a lack of attention on the effects of waterlogging stress on the upper leaves of tobacco during the late-maturing stage. Here, we conducted pot experiments to analyze the changes of the physio-biochemical characteristics and the quality of tobacco leaves at the late-maturing stage on waterlogging conditions. The results showed that waterlogging decreased root vitality by 9.03 to 75.94%. Waterlogging stress significantly weakened the superoxide dismutase (SOD) activity, photosynthetic pigment content, and phototynthetic performance, while it significantly increased the malondialdehyde (MDA) content in tobacco leaves. The contents of total sugar, reducing sugar, nicotine, and potassium in tobacco leaves sharply decreased, whereas the total nitrogen content increased by 6.25-77.58%. The leaf color indexes, including lightness (L* value), redness (a* value), yellowish (b* value), saturation (c* value) and SPAD value were risen by waterlogging stress. Waterlogging for 12 h had minimal impact on physio-biochemical characteristics of tobacco roots and leaves, while significant changes were observed when waterlogging stress for more than 24 h. This study increases the knowledge of the effects of waterlogging stress on the physio-biochemical characteristics of upper leaves in tobacco at the late-maturing stage, as well as the evaluation of tobacco leaf quality, which provides reference for water management measures on tobacco at the late-maturing stage.

分类号：

  • 相关文献

[1]Effect of nitrogen regimes on narrowing the magnitude of maize yield penalty caused by high temperature stress in North China Plain. Yan, Peng,Chen, Yuanquan,Dadouma, Adamou,Tao, Zhiqiang,Sui, Peng,Tao, Zhiqiang.

[2]Increased photosynthetic capacity in response to nitrate is correlated with enhanced cytokinin levels in rice cultivar with high responsiveness to nitrogen nutrients. Song, Wenjing,Li, Jiao,Sun, Huwei,Huang, Shuangjie,Gong, Xianpo,Ma, Qunyu,Zhang, Yali,Xu, Guohua,Song, Wenjing.

[3]Continuous Light from Red, Blue, and Green Light-emitting Diodes Reduces Nitrate Content and Enhances Phytochemical Concentrations and Antioxidant Capacity in Lettuce. Bian, Zhong-Hua,Cheng, Rui-Feng,Yang, Qi-Chang,Wang, Jun,Lu, Chungui.

[4]Suitable split nitrogen application increases grain yield and photosynthetic capacity in drip-irrigated winter wheat (Triticum aestivum L.) under different water regimes in the North China Plain. Hamani A.K.M.,Abubakar S.A.,Si Z.,Kama R.,Gao Y.,Duan A.. 2023

[5]Transparent and Black Film Mulching Improve Photosynthesis and Yield of Summer Maize in North China Plain. Qin, Shanshan,Zhang, Yanqun,Wang, Jiandong,Wang, Chuanjuan,Mo, Yan,Gong, Shihong. 2022

[6]Adjusting sowing date improves the photosynthetic capacity and grain yield by optimizing temperature condition around flowering of summer maize in the North China Plain. Dong Guo,Chuanyong Chen,Xiangling Li,Rui Wang,Zaisong Ding,Wei Ma,Xinbing Wang,Congfeng Li,Ming Zhao,Ming Li,Baoyuan Zhou. 2022

[7]Variations in chlorophyll content, stomatal conductance, and photosynthesis in Setaria EMS mutants. Chan juan TANG,Ming zhao LUO,Shuo ZHANG,Guan qing JIA,Sha TANG,Yan chao JIA,Hui ZHI,Xian min DIAO. 2023

[8]Increased Photosynthetic Capacity and Energy Status Contribute to Higher Grain Yield in Early Rice. Haoran Su,Wenting Wang,Tingting Lu,Wenfei Hu,Junjiang Lin,Weimeng Fu,Yan Liang,Yvxiang Zeng,Guanfu Fu,Jie Xiong,Tingting Chen. 2025

[9]Global gene expression responses to waterlogging in roots of sesame (Sesamum indicum L.). Wang, Linhai,Zhang, Yanxin,Qi, Xiaoqiong,Li, Donghua,Wei, Wenliang,Zhang, Xiurong. 2012

[10]Genome-Wide Analysis of AP2/ERF Gene Superfamily in Ramie (Boehmeria nivea L.) Revealed Their Synergistic Roles in Regulating Abiotic Stress Resistance and Ramet Development. Xiaojun Qiu,Haohan Zhao,Aminu Shehu Abubakar,Deyi Shao,Jikang Chen,Ping Chen,Chunming Yu,Xiaofei Wang,Kunmei Chen,Aiguo Zhu. 2022

[11]Effects of waterlogging at different stages and durations on maize growth and grain yields. Chao Huang,Yang Gao,Anzhen Qin,Zugui Liu,Ben Zhao,Dongfeng Ning,Shoutian Ma,Aiwang Duan,Zhandong Liu. 2022

[12]Soil Enzyme Activity In Soils S.ubjected To Flooding And T he Effect On Nitrogen And Phosphorus Uptake By Oilseed Rape. Gu, CM, Zhang, SJ, Han, PP, Hu, XJ, Xie, LH, Li, YS, Brooks, M, Liao, X, Qin, L. 2019

[13]Transcription factors AcERF74/75 respond to waterlogging stress and trigger alcoholic fermentation-related genes in kiwifruit. Jiao Liu,Yue Chen,Wen qiu Wang,Ji hong Liu,Chang qing Zhu,Yun peng Zhong,Hui qin Zhang,Xiao fen Liu,Xue ren Yin. 2022

[14]Physiological, biochemical and transcriptional analysis reveals the response mechanism of Panax quinquefolius to the stressors of drought and waterlogging. Zhang Y.,Lu Y.,Wang X.,Zhang Y.,Xu W.,Zhou Y.,Tang H.,Zhao J.,Song Z.,Lv H.,Wang Z.,Han J.,Zhu Y.,Zhang F.,Tian B.,Wu S.,Shan C.. 2024

[15]AvERF73 positively regulates waterlogging tolerance in kiwifruit by participating in hypoxia response and mevalonate pathway. Bai, Danfeng,Zhong, Yunpeng,Gu, Shichao,Qi, Xiujuan,Sun, Leiming,Lin, Miaomiao,Wang, Ran,Li, Yukuo,Hu, Chungen,Fang, Jinbao. 2025

[16]Enhancement of Waterlogging Tolerance and Improvement of Grain Quality in Waxy Maize With Exogenous EDAH: A Mixture of Ethephon and Diethyl Aminoethyl Hexanoate. Chao Huang,Xuchen Liu,Shoutian Ma,Anzhen Qin,Yingying Zhang,Yuxiang Xie,Yang Gao,Zhandong Liu. 2024

[17]Ethylene-mediated integration of metabolic regulation and stomatal closure for enhanced waterlogging tolerance in Brassica napus L.. Changwei Li,Peng Wang,Yixiang Xia,Ziying Zhang,Zhiqi Yang,Mengjie He,Kang Kang,Na Jiang,Xiangmin Rong,Lan Yang. 2025

[18]Transcriptome-Wide Survey of LBD Transcription Factors in Actinidia valvata Under Waterlogging Stress and Functional Analysis of Two AvLBD41 Members. Zhi Li,Ling Gan,Xinghui Wang,Wenjing Si,Haozhao Fang,Jinbao Fang,Yunpeng Zhong,Yameng Yang,Fenglian Ma,Xiaona Ji,Qiang Zhang,Leilei Li,Tao Zhu. 2025

[19]Exogenous nitric oxide enhances waterlogging tolerance in Boehmeria nivea L. through modulating BnCAT3 expression. Shiwei Yan,Yu Chen,Aiguo Zhu,Ping Chen,Xiaofei Wang,Kunmei Chen,Jia Chen,Gang Gao,Haohan Zhao,Peng Chen,Jikang Chen. 2025

[20]Physiological, biochemical, and multi-omics analyses reveal the mechanism underlying strigolactone-mediated waterlogging response in rapeseed. Ximin Zhi,Xiaohua Bian,Yuexia Zhang,Yuxi Li,Aqarahim Wasim,Guangsheng Zhou,Chen Chen,Ni Ma. 2026

作者其他论文 更多>>