
应用生态学报 ›› 2026, Vol. 37 ›› Issue (7): 2453-2462.doi: 10.13287/j.1001-9332.202607.005
潘一诺, 韩迎新, 董可心, 刘硕, 郭浩然, 李林, 程瀚墨, 王竞红*
收稿日期:2026-03-23
接受日期:2026-05-22
出版日期:2026-07-18
发布日期:2027-01-18
通讯作者:
*E-mail: yuanlin@nefu.edu.cn
作者简介:潘一诺, 女, 2002年生, 硕士研究生。主要从事植物-丛枝菌根真菌互作的生理与分子机制研究。E-mail: 2024120588@nefu.edu.cn
基金资助:PAN Yinuo, HAN Yingxin, DONG Kexin, LIU Shuo, GUO Haoran, LI Lin, CHENG Hanmo, WANG Jinghong*
Received:2026-03-23
Accepted:2026-05-22
Online:2026-07-18
Published:2027-01-18
摘要: 在全球气候变化背景下,土壤盐碱化已成为威胁农业可持续发展的重要环境问题。盐碱胁迫的核心危害在于破坏植物细胞离子稳态,导致Na+、Cl-等离子过量积累及K+、Ca+等必需营养离子亏缺,进而抑制植物生长。丛枝菌根真菌(AMF)作为一种广泛存在的土壤有益微生物,可与大多数陆生植物形成共生体,并通过精细的离子调节机制协助宿主应对盐碱胁迫。尽管近年来关于AMF调控离子平衡的研究日益增多,但缺乏从微观到宏观的系统整合。本文综述了盐碱胁迫下AMF调控植物离子吸收、转运与代谢的关键机制,包括AMF根外结构对离子的选择性吸收与营养获取的扩展作用,根内结构在营养交换及盐碱离子区隔中的功能,AMF分泌物对土壤环境的改善作用,以及对Na+外排与限制运输、Na+和Cl-区隔、K+、Ca2+吸收与分配的调控。这些机制阐明了AMF缓解盐碱胁迫所致离子毒害与营养失衡的作用途径,为从离子层面理解并利用AMF增强植物耐盐碱性提供了理论依据。
潘一诺, 韩迎新, 董可心, 刘硕, 郭浩然, 李林, 程瀚墨, 王竞红. 丛枝菌根真菌介导植物响应盐碱胁迫的离子稳态机制[J]. 应用生态学报, 2026, 37(7): 2453-2462.
PAN Yinuo, HAN Yingxin, DONG Kexin, LIU Shuo, GUO Haoran, LI Lin, CHENG Hanmo, WANG Jinghong. Mechanism of ion homeostasis mediated by arbuscular mycorrhizal fungi in plant responses to saline-alkaline stress[J]. Chinese Journal of Applied Ecology, 2026, 37(7): 2453-2462.
| [1] Singh A. Soil salinization management for sustainable development: A review. Journal of Environmental Ma-nagement, 2021, 277: 111383 [2] He BZ, Ding JL, Huang WJ, et al. Spatiotemporal variation and future predictions of soil salinization in the Werigan-Kuqa River delta oasis of China. Sustainability, 2023, 15: 13996 [3] 唐海江, 郭富城, 杨九菊, 等. 种植水稻对盐碱地土壤改良效果的研究进展. 应用生态学报, 2026, 37(2): 591-600 [4] Haj-Amor Z, Araya T, Kim DG, et al. Soil salinity and its associated effects on soil microorganisms, greenhouse gas emissions, crop yield, biodiversity and desertification: A review. Science of the Total Environment, 2022, 843: 156946 [5] Ma YX, Tashpolat N. Current status and development trend of soil salinity monitoring research in China. Sustainability, 2023, 15: 5874 [6] 王志刚, 史广志, 刘志都, 等. 盐碱障碍土壤生态治理与综合利用技术进展. 中国农学通报, 2025, 41(8): 98-104 [7] 邓素芳, 杨燕秋, 应朝阳. 满江红耐盐性评价筛选及耐盐机制研究进展. 应用生态学报, 2025, 36(12): 3862-3870 [8] Finazzi G, Petroutsos D, Tomizioli M, et al. Ions channels/transporters and chloroplast regulation. Cell Cal-cium, 2015, 58: 86-97 [9] Wu HH. Plant salt tolerance and Na+ sensing and transport. The Crop Journal, 2018, 6: 215-225 [10] Iqbal M, Athar HUR, Ibrahim M, et al. Leaf proteome analysis signified that photosynthesis and antioxidants are key indicators of salinity tolerance in canola (Brassica napus L.). Pakistan Journal of Botany, 2019, 51: 1955-1968 [11] Amanat MA, Naeem MK, Algwaiz HIM, et al. Evaluation of green super rice lines for agronomic and physiological traits under salinity stress. Plants, 2022, 11: 1461 [12] Boyno G, Rezaee Danesh Y, Çevik R, et al. Synergistic benefits of AMF: Development of sustainable plant defense system. Frontiers in Microbiology, 2025, 16: 1551956 [13] Genre A, Lanfranco L, Perotto S, et al. Unique and common traits in mycorrhizal symbioses. Nature Reviews Microbiology, 2020, 18: 649-660 [14] 李敖, 郑旭, 聂瑞宁, 等. 丛枝菌根真菌对NaCl胁迫下核桃幼苗根系生理及矿质元素吸收的影响. 植物资源与环境学报, 2024, 33(6): 22-33 [15] Lin JY, Zhang JX, Guo PR, et al. Arbuscular mycorrhizal fungi enhance maize tolerance to combined La-NaCl stress by restructuring the rhizosphere bacterial community. Plant Physiology and Biochemistry, 2026, 230: 110849 [16] Hamzehzadeh H, Abbaspour H, Safipour Afshar A, et al. AMF-mediated salinity adaptation in pistachio plants: Photosynthetic efficiency and ionic balance. Biologia, 2025, 80: 1810 [17] Hidri R, Zorrig W, Debez A, et al. Role of Rhizophagus intraradices in mitigating salt stress of Sulla carnosa through modulating plant hormones (ABA, SA, and JA) and nutrient profile. Biology, 2025, 14: 341 [18] 曾凯, 张欣然, 刘赛博, 等. 9种蕨类植物丛枝菌根真菌侵染的结构观察. 西北植物学报, 2023, 43(5): 772-780 [19] Benavidez ME, de la Fournière EM, Colombo RP, et al. Micro PIXE mapping proves a differential distribution and concentration of trace elements in fungal structures of Rhizophagus intraradice. Fungal Biology, 2024, 128: 2089-2093 [20] Duan SL, Feng G, Limpens E, et al. Cross-kingdom nutrient exchange in the plant-arbuscular mycorrhizal fungus-bacterium continuum. Nature Reviews Microbio-logy, 2024, 22: 773-790 [21] Munns R, Tester M. Mechanisms of salinity tolerance. Annual Review of Plant Biology, 2008, 59: 651-681 [22] 韩建邦, 许媛, 王欣雨, 等. AM真菌-小麦共生体系对不同氮源的吸收转运效率及对磷水平的响应. 植物营养与肥料学报, 2025, 31(1): 125-133 [23] Li ZF, Ngwene B, Hong T, et al. Effects of nitrogen feeding for extraradical mycelium of Rhizophagus irregularis maize symbiosis incorporated with phosphorus availability. Journal of Plant Nutrition and Soil Science, 2019, 182: 647-655 [24] 韩金吉, 沈小奥, 杨帆, 等. 丛枝菌根真菌(AMF)介导植物矿质元素吸收机制的研究进展. 草地学报, 2023, 31(6): 1609-1621 [25] 李娇娇, 曾明. 丛枝菌根对植物根际逆境的生态学意义. 应用生态学报, 2020, 31(9): 3216-3226 [26] Evelin H, Kapoor R, Giri B. Arbuscular mycorrhizal fungi in alleviation of salt stress: A review. Annals of Botany, 2009, 104: 1263-1280 [27] Kikuchi Y, Hijikata N, Yokoyama K, et al. Polyphosphate accumulation is driven by transcriptome alterations that lead to near-synchronous and near-equivalent uptake of inorganic cations in an arbuscular mycorrhizal fungus. New Phytologist, 2014, 204: 638-649 [28] Hammer EC, Nasr H, Pallon J, et al. Elemental composition of arbuscular mycorrhizal fungi at high salinity. Mycorrhiza, 2011, 21: 117-129 [29] 曹岩坡, 代鹏, 戴素英, 等. 丛枝菌根真菌(AMF)对盐胁迫下芦笋幼苗生长及体内Na+、K+、Ca2+、Mg2+含量和分布的影响. 生态学杂志, 2015, 34(6): 1699-1704 [30] Driver JD, Holben WE, Rillig MC. Characterization of glomalin as a hyphal wall component of arbuscular mycorrhizal fungi. Soil Biology and Biochemistry, 2005, 37: 101-106 [31] Agnolucci M, Avio L, Pepe A, et al. Bacteria associa-ted with a commercial mycorrhizal inoculum: Community composition and multifunctional activity as assessed by illumina sequencing and culture-dependent tools. Frontiers in Plant Science, 2019, 9: 1956 [32] Bharadwaj DP, Lundquist PO, Alström S. Arbuscular mycorrhizal fungal spore-associated bacteria affect mycorrhizal colonization, plant growth and potato pathogens. Soil Biology and Biochemistry, 2008, 40: 2494-2501 [33] Selvakumar G, Shagol CC, Kim K, et al. Spore associated bacteria regulates maize root K+/Na+ ion homeostasis to promote salinity tolerance during arbuscular mycorrhizal symbiosis. BMC Plant Biology, 2018, 18: 109 [34] Selvakumar G, Kim K, Shagol CC, et al. Spore associated bacteria of arbuscular mycorrhizal fungi improve maize tolerance to salinity by reducing ethylene stress level. Plant Growth Regulation, 2017, 81: 159-165 [35] Levental I, Christian DA, Wang YH, et al. Calcium-dependent lateral organization in phosphatidylinositol 4,5-bisphosphate (PIP2)- and cholesterol-containing monolayers. Biochemistry, 2009, 48: 8241-8248 [36] Bonfante P, Genre A. Mechanisms underlying beneficial plant-fungus interactions in mycorrhizal symbiosis. Nature Communications, 2010, 1: 48 [37] 蒲子天, 王菲, 李畅, 等. 丛枝菌根真菌影响植物氮素吸收和转运的研究进展. 中国农业科技导报, 2024, 26(11): 171-179 [38] Pérez-Tienda J, Testillano PS, Balestrini R, et al. GintAMT2, a new member of the ammonium transporter family in the arbuscular mycorrhizal fungus Glomus intraradices. Fungal Genetics and Biology, 2011, 48: 1044-1055 [39] Calabrese S, Pérez-Tienda J, Ellerbeck M, et al. GintAMT3: A low-affinity ammonium transporter of the arbuscular mycorrhizal Rhizophagus irregularis. Frontiers in Plant Science, 2016, 7: 679 [40] 舒波, 李伟才, 刘丽琴, 等. 丛枝菌根(AM)真菌与共生植物物质交换研究进展. 植物营养与肥料学报, 2016, 22(4): 1111-1117 [41] Berruti A, Borriello R, Lumini E, et al. Application of laser microdissection to identify the mycorrhizal fungi that establish arbuscules inside root cells. Frontiers in Plant Science, 2013, 4: 135 [42] Fan XN, He JL, Zhou XQ, et al. A mycorrhiza-indu-cible phosphate transporter SlPT3 regulates phosphate uptake, iron homeostasis, and arbuscule development in tomato under combined nutrient stress conditions. The Plant Journal, 2026, 125: e70687 [43] Hui J, An X, Li ZB, et al. The mycorrhiza-specific ammonium transporter ZmAMT3;1 mediates mycorrhiza-dependent nitrogen uptake in maize roots. The Plant Cell, 2022, 34: 4066-4087 [44] 金小霞, 韦满, 程康, 等. AMF根外菌丝对重金属铅的吸收与转运. 西北农林科技大学学报: 自然科学版, 2022, 50(9): 127-134, 143 [45] Lugo MA, Negritto MA, Crespo EM, et al. Arbuscular mycorrhizal fungi as a salt bioaccumulation mechanism for the establishment of a neotropical halophytic fern in saline soils. Microorganisms, 2024, 12: 2587 [46] 王英逵, 杨玉荣, 王德利. 盐碱胁迫下AMF对羊草的离子吸收和分配作用. 草业学报, 2020, 29(12): 95-104 [47] Bel J, Legout A, Saint-André L, et al. Conventional analysis methods underestimate the plant-available pools of calcium, magnesium and potassium in forest soils. Scientific Reports, 2020, 10: 15703 [48] Andrino A, Guggenberger G, Kernchen S, et al. Production of organic acids by arbuscular mycorrhizal fungi and their contribution in the mobilization of phosphorus bound to iron oxides. Frontiers in Plant Science, 2021, 12: 661842 [49] 陈嘉欣, 颜洁, 游义红, 等. AMF对玉米生长、根系低分子有机酸分泌与Cd累积的影响. 农业资源与环境学报, 2023, 40(6): 1329-1338 [50] Fu WH, Yan MY, Zhao L, et al. Inoculation with arbuscular mycorrhizal fungi increase calcium uptake in Malus robusta. Scientia Horticulturae, 2023, 321: 112295 [51] 姜兴梅, 丁浩, 唐亚莉, 等. 有机酸对盐碱土改良及苗期棉花生长的影响. 农业资源与环境学报, 2024, 41(6): 1295-1303 [52] Hunter PJ, Teakle GR, Bending GD. Root traits and microbial community interactions in relation to phospho-rus availability and acquisition, with particular reference to Brassica. Frontiers in Plant Science, 2014, 5: 27 [53] Hammer EC, Rillig MC. The influence of different stresses on glomalin levels in an arbuscular mycorrhizal fungus: Salinity increases glomalin content. PLoS One, 2011, 6(12): e28426 [54] 王建, 周紫燕, 凌婉婷. 球囊霉素相关土壤蛋白的分布及环境功能研究进展. 应用生态学报, 2016, 27(2): 634-642 [55] Jiang ZH, Zhou XP, Tao M, et al. Plant cell-surface GIPC sphingolipids sense salt to trigger Ca2+ influx. Nature, 2019, 572: 341-346 [56] Marqués-Gálvez JE, Giovannini L, del Boccio P, et al. Arbuscular mycorrhiza induce the regulation of Ca2+, ROS, and SOS pathways under salt stress in tomato roots. Physiologia Plantarum, 2025, 177: e70610 [57] Sánchez-Barrena MJ, Martínez-Ripoll M, Zhu JK, et al. The structure of the Arabidopsis thaliana SOS3: Mole-cular mechanism of sensing calcium for salt stress response. Journal of Molecular Biology, 2005, 345: 1253-1264 [58] Lu Q, Jin LF, Wang P, et al. Effects of interaction of protein hydrolysate and arbuscular mycorrhizal fungi effects on Citrus growth and expressions of stress-responsive genes (aquaporins and SOSs) under salt stress. Journal of Fungi, 2023, 9: 983 [59] Yang ZJ, Wang CW, Xue Y, et al. Calcium-activated 14-3-3 proteins as a molecular switch in salt stress tolerance. Nature Communications, 2019, 10: 1199 [60] Tang DX, Zhao YW, Wang ZL, et al. Functional 14-3-3 proteins: Master regulators in plant responses to salt stress. Plants, 2025, 14: 3568 [61] Wang YP, Xu Q, Shan HC, et al. Genome-wide analysis of 14-3-3 gene family in four Gramineae and its response to mycorrhizal symbiosis in maize. Frontiers in Plant Science, 2023, 14: 1117879 [62] Woe-Yeon K, Zahir A, Jin PH, et al. Release of SOS2 kinase from sequestration with GIGANTEA determines salt tolerance in Arabidopsis. Nature Communications, 2013, 4: 1352 [63] Quintero FJ, Martinez-Atienza J, Villalta I, et al. Activation of the plasma membrane Na/H antiporter Salt-Overly-Sensitive 1 (SOS1) by phosphorylation of an auto-inhibitory C-terminal domain. Proceedings of the National Academy of Sciences of the United States of America, 2011, 108: 2611-2616 [64] Qiu QS, Guo Y, Quintero FJ, et al. Regulation of vacuo-lar Na+/H+ exchange in Arabidopsis thaliana by the salt-overly-sensitive (SOS) pathway. Journal of Biological Chemistry, 2004, 279: 207-215 [65] Chen J, Zhang HQ, Zhang XL, et al. Arbuscular mycorrhizal symbiosis alleviates salt stress in black locust through improved photosynthesis, water status, and K+/Na+ homeostasis. Frontiers in Plant Science, 2017, 8: 1739 [66] Diao FW, Dang ZH, Xu J, et al. Effect of arbuscular mycorrhizal symbiosis on ion homeostasis and salt tole-rance-related gene expression in halophyte Suaeda salsa under salt treatments. Microbiological Research, 2021, 245: 126688 [67] Liang SM, Li QS, Liu MY, et al. Mycorrhizal effects on growth and expressions of stress-responsive genes (aquaporins and SOSs) of tomato under salt stress. Journal of Fungi, 2022, 8: 1305 [68] Hidri R, Metoui-Ben Mahmoud O, Debez A, et al. Dual PGPR-AMF inoculation offsets salinity stress impact on the fodder halophyte Sulla carnosa by concomitantly modulating plant ABA content and leaf antioxidant response. Journal of Plant Growth Regulation, 2025, 44: 6967-6985 [69] Munemasa S, Hauser F, Park J, et al. Mechanisms of abscisic acid-mediated control of stomatal aperture. Current Opinion in Plant Biology, 2015, 28: 154-162 [70] Ayadi M, Martins V, Ben Ayed R, et al. Genome wide identification, molecular characterization, and gene expression analyses of grapevine NHX antiporters suggest their involvement in growth, ripening, seed dormancy, and stress response. Biochemical Genetics, 2020, 58: 102-128 [71] Wang L, Ma YK, Li NN, et al. Isolation and characte-rization of a tonoplast Na+/H+ antiporter from the halophyte Nitraria sibirica. Biologia Plantarum, 2016, 60: 113-122 [72] Fu XK, Lu ZY, Wei HL, et al. Genome-wide identification and expression analysis of the NHX (sodium/hydrogen antiporter) gene family in cotton. Frontiers in Genetics, 2020, 11: 964 [73] Bassil E, Zhang SQ, Gong HJ, et al. Cation specificity of vacuolar NHX-type cation/H+antiporters. Plant Physio-logy, 2019, 179: 616-629 [74] Dong FX, Wang YH, Tao J, et al. Arbuscular mycorrhizal fungi affect the expression of PxNHX gene family, improve photosynthesis and promote Populus simonii × P. nigra growth under saline-alkali stress.Frontiers in Plant Science, 2023, 14: 1104095 [75] Wang YH, Dong FX, Chen H, et al. Effects of arbuscular mycorrhizal fungus on sodium and chloride ion channels of Casuarina glauca under salt stress. International Journal of Molecular Sciences, 2023, 24: 3680 [76] Ramakrishna P, Gámez-Arjona FM, Bellani E, et al. Elemental cryo-imaging reveals SOS1-dependent vacuolar sodium accumulation. Nature, 2025, 637: 1228-1233 [77] Kong L, Gong XW, Zhang XL, et al. Effects of arbuscular mycorrhizal fungi on photosynthesis, ion balance of tomato plants under saline-alkali soil condition. Journal of Plant Nutrition, 2020, 43: 682-698 [78] Zhang B, Shi F, Zheng X, et al. Effects of AMF compound inoculants on growth, ion homeostasis, and salt tolerance-related gene expression in Oryza sativa L. under salt treatments. Rice, 2023, 16: 18 [79] Horie T, Hauser F, Schroeder JI. HKT transporter-mediated salinity resistance mechanisms in Arabidopsis and monocot crop plants. Trends in Plant Science, 2009, 14: 660-668 [80] Porcel R, Aroca R, Azcon R, et al. Regulation of cation transporter genes by the arbuscular mycorrhizal symbiosis in rice plants subjected to salinity suggests improved salt tolerance due to reduced Na+ root-to-shoot distribution. Mycorrhiza, 2016, 26: 673-684 [81] Alizadeh Z, Heidari P, Asghari HR. Exploring the influence of symbiosis between arbuscular mycorrhizal fungi and beans on potassium uptake and the activity of AKT and HKT genes. Scientific Reports, 2025, 15:19169 [82] Subba A, Tomar S, Pareek A, et al. The chloride channels: Silently serving the plants. Physiologia Plantarum, 2021, 171: 688-702 [83] Jossier M, Kroniewicz L, Dalmas F, et al. The Arabidopsis vacuolar anion transporter, AtCLCc, is involved in the regulation of stomatal movements and contributes to salt tolerance: AtCLCc in chloride homeostasis. The Plant Journal, 2010, 64: 563-576 [84] El-Nashar YI. Response of snapdragon (Antirrhinum majus L.) to blended water irrigation and arbuscular mycorrhizal fungi inoculation: Uptake of minerals and leaf water relations. Photosynthetica, 2017, 55: 201-209 [85] de Almeida AJPO, de Oliveira JCPL, da Silva Pontes LV, et al. ROS: Basic concepts, sources, cellular signaling, and its implications in aging pathways. Oxidative Medicine and Cellular Longevity, 2022, 2022: 1225578 [86] Alam P, Faizan M, Arif Y, et al. Reactive oxygen species: Balancing agents in plants. Frontiers in Plant Science, 2025, 16: 1713590 [87] 杜远鹏, 晋学娟, 郭淑华, 等. 不同盐碱类型胁迫对红地球/贝达葡萄植株离子分布的影响. 应用生态学报, 2015, 26(6): 1801-1806 [88] 孙思淼, 常伟, 宋福强. 丛枝菌根真菌提高盐胁迫植物抗氧化机制的研究进展. 应用生态学报, 2020, 31(10): 3589-3596 [89] Zhang DJ, Tong CL, Wang QS, et al. Mycorrhizas affect physiological performance, antioxidant system, photosynthesis, endogenous hormones, and water content in cotton under salt stress. Plants, 2024, 13: 805 [90] 林双双, 孙向伟, 王晓娟, 等. AM真菌提高宿主植物耐受重金属胁迫的生理机制. 草业科学, 2013, 30(3): 365-374 [91] Chen ZH, Pottosin II, Cuin TA, et al. Root plasma membrane transporters controlling K+/Na+ homeostasis in salt-stressed barley. Plant Physiology, 2007, 145: 1714-1725 [92] Santa-María GE, Oliferuk S, Moriconi JI. KT-HAK-KUP transporters in major terrestrial photosynthetic organisms: A twenty years tale. Journal of Plant Physiology, 2018, 226: 77-90 [93] Zhang YX, Han X, Ren W, et al. Arbuscular mycorrhizal fungi improve Lycium barbarum potassium uptake by activating the expression of LbHAK. Plants, 2024, 13: 1244 [94] 谭晓悦, 刘子会, 李国良, 等. 盐胁迫下TaHsfA2-13对小麦K+/Na+平衡的调控作用. 植物遗传资源学报, 2025, 26(9): 1764-1776 [95] Nieves-Cordones M, Alemán F, Martínez V, et al. K+ uptake in plant roots: The systems involved, their regulation and parallels in other organisms. Journal of Plant Physiology, 2014, 171: 688-695 [96] Cheong YH, Pandey GK, Grant JJ, et al. Two calcineurin B-like calcium sensors, interacting with protein kinase CIPK23, regulate leaf transpiration and root potassium uptake in Arabidopsis. The Plant Journal, 2007, 52: 223-239 [97] Xu J, Li HD, Chen LQ, et al. A protein kinase, interacting with two calcineurin B-like proteins, regulates K+ transporter AKT1 in Arabidopsis. Cell, 2006, 125: 1347-1360 [98] Li QY, Qin L, Tang LH, et al. Structural and mechanistic insights into symmetry conversion in plant GORK K+ channel regulation. Protein & Cell, 2025, 16: 1035-1047 [99] 陈鹏, 席跟向, 梁军杰, 等. 丛枝菌根真菌调节钠钾离子平衡和AsA-GSH循环提高苹果砧木M9-T337的耐盐碱性. 果树学报, 2026, 43(1): 39-51 [100] Kanno S, Martin L, Vallier N, et al. Xylem K+ loading modulates K+ and Cs+ absorption and distribution in Arabidopsis under K+-limited conditions. Frontiers in Plant Science, 2023, 14: 1040118 [101] Garcia-Mata C, Wang JW, Gajdanowicz P, et al. A minimal cysteine motif required to activate the SKOR K+ channel of Arabidopsis by the reactive oxygen species H2O2. Journal of Biological Chemistry, 2010, 285: 29286-29294 [102] 韦素贞. 丛枝菌根真菌(AMF)和施钾对宁夏枸杞响应干旱胁迫的交互影响. 硕士论文. 杨凌: 西北农林科技大学, 2016 [103] Lindberg S, Premkumar A. Ion changes and signaling under salt stress in wheat and other important crops. Plants, 2024, 13: 46 [104] 孙景波, 孙广玉, 刘晓东, 等. 盐胁迫对桑树幼苗生长、叶片水分状况和离子分布的影响. 应用生态学报, 2009, 20(3): 543-548 [105] 彭梓程, 杜洪力, 王铭, 等. 丛枝菌根真菌调控盐碱胁迫下棉花生长及离子平衡的研究. 中国农业科技导报(中英文), 2025, 27(2): 33-41 [106] Ma YN, Chen M, Xu DB, et al. G-protein β subunit AGB1 positively regulates salt stress tolerance in Arabidopsis. Journal of Integrative Agriculture, 2015, 14: 314-325 [107] DeWald DB, Torabinejad J, Jones CA, et al. Rapid accumulation of phosphatidylinositol 4,5-bisphosphate and inositol 1,4,5-trisphosphate correlates with calcium mobilization in salt-stressed Arabidopsis. Plant Physiology, 2001, 126: 759-769 [108] 马秀英, 李金克, 周晓阳, 等. Ca2+-ATPase参与植物耐盐性调控的研究进展. 植物研究, 2024, 44(5): 641-654 [109] Costa A, Resentini F, Buratti S, et al. Plant Ca2+-ATPases: From biochemistry to signalling. Biochimica et Biophysica Acta: Molecular Cell Research, 2023, 1870: 119508 [110] Puccio G, Ingraffia R, Mercati F, et al. Transcriptome changes induced by arbuscular mycorrhizal symbiosis in leaves of durum wheat (Triticum durum Desf.) promote higher salt tolerance. Scientific Reports, 2023, 13: 116 |
| [1] | 陈姜帆, 张秋芳, 张晓晴, 陈琳娜, 元晓春, 徐建国, 曾泉鑫, 陈岳民. 长期氮添加促进毛竹根系磷吸收 [J]. 应用生态学报, 2025, 36(8): 2317-2324. |
| [2] | 王晨, 彭逸龙, 刘欣雨, 曹婷婷, 施曼, 王志康, 李全, 宋新章. 磷添加对毛竹鞭根磷获取策略的影响 [J]. 应用生态学报, 2025, 36(10): 3061-3068. |
| [3] | 陈琳娜, 曾泉鑫, 张晓晴, 张秋芳, 元晓春, 戴辉, 李文周, 陈岳民. 短期氮添加降低亚热带黄山松林和罗浮栲林土壤微生物固氮速率 [J]. 应用生态学报, 2024, 35(4): 917-925. |
| [4] | 裘浪, 王志刚, 俞龙生, 张云云, 余浩, 张延旭. 施磷和接种丛枝菌根真菌对钒胁迫下玉米生长的影响 [J]. 应用生态学报, 2024, 35(12): 3444-3452. |
| [5] | 赫文文, 岳健敏, 王伏琴, 李阳, 马国军, 郭俊驿. 土壤调理剂缓解玉米盐碱胁迫损伤效应 [J]. 应用生态学报, 2024, 35(11): 3053-3062. |
| [6] | 江尚焘, 栗晗, 彭海英, 梅新兰, 陈廷速, 徐阳春, 董彩霞, 沈其荣. 有机肥替代部分化肥对芒果丛枝菌根真菌群落的影响 [J]. 应用生态学报, 2023, 34(2): 481-490. |
| [7] | 史加勉, 宋鸽, 刘珊珊, 郑勇. 杉木林土壤丛枝菌根真菌形态特征及孢子相关细菌多样性对模拟氮沉降和干旱的响应 [J]. 应用生态学报, 2023, 34(12): 3291-3300. |
| [8] | 宋鸽, 王全成, 郑勇, 贺纪正. 丛枝菌根真菌对大气CO2浓度升高和增温响应研究进展 [J]. 应用生态学报, 2022, 33(6): 1709-1718. |
| [9] | 李月灵, 金则新, 罗光宇, 陈超, 孙中帅, 王晓燕. 干旱胁迫下接种丛枝菌根真菌对七子花非结构性碳水化合物积累及C、N、P化学计量特征的影响 [J]. 应用生态学报, 2022, 33(4): 963-971. |
| [10] | 曹本福, 姜海霞, 刘丽, 陆引罡, 王茂胜. 丛枝菌根菌丝网络在植物互作中的作用机制研究进展 [J]. 应用生态学报, 2021, 32(9): 3385-3396. |
| [11] | 刘云龙, 钱浩宇, 张鑫, 郑成岩, 邓艾兴, 江瑜, 张卫建. 丛枝菌根真菌对豆科作物生长和生物固氮及磷素吸收的影响 [J]. 应用生态学报, 2021, 32(5): 1761-1767. |
| [12] | 黄咏明, 蒋迎春, 王志静, 宋放, 何利刚, 田瑞, 吴黎明. 丛枝菌根真菌对植物根腐病的抑制效应及其机制 [J]. 应用生态学报, 2021, 32(5): 1890-1902. |
| [13] | 刘建新,刘瑞瑞,贾海燕,刘秀丽,卜婷,李娜. 硫化氢对盐碱胁迫下裸燕麦叶片抗坏血酸-谷胱甘肽循环的调控效应 [J]. 应用生态学报, 2021, 32(11): 3988-3996. |
| [14] | 刘蕾, 徐梦, 张国印, 王凌, 孙世友, 茹淑华, 肖广敏, 郜静, 李玭, 马丽敏. 不同轮作模式下设施土壤丛枝菌根真菌群落结构的季相变化 [J]. 应用生态学报, 2021, 32(11): 4095-4106. |
| [15] | 李娇娇, 曾明. 丛枝菌根对植物根际逆境的生态学意义 [J]. 应用生态学报, 2020, 31(9): 3216-3226. |
| 阅读次数 | ||||||
|
全文 |
|
|||||
|
摘要 |
|
|||||
辽公网安备21010302000574号
辽ICP备05000862号-2
版权所有 © 《应用生态学报》编辑部