Research Satus of Microbial Biostimulant in Ariculture

doi:10.19586/j.2095-2341.2025.0180

Current Biotechnology ›› 2026, Vol. 16 ›› Issue (3): 585-594.DOI: 10.19586/j.2095-2341.2025.0180

• Reviews • Previous Articles Next Articles

Research Satus of Microbial Biostimulant in Ariculture

Yaxiong WEN¹^,²(), Yan ZHOU², Dacheng LIU², Lisheng ZHANG², Rou JIANG², Cong ZENG², Shiyong TAN¹^,²^,³()

^1.Yuelushan Laboratory，Changsha 410000，China
^2.Hunan Shenlong Technology Co. ，Ltd. ，Changsha 410000，China
^3.Hunan Provincial Institute of Microbiology，Changsha 410000，China

Received:2025-12-15 Accepted:2026-01-08 Online:2026-05-25 Published:2026-07-14
Contact: Shiyong TAN

Abstract

CLC Number:

Q939.96

Yaxiong WEN, Yan ZHOU, Dacheng LIU, Lisheng ZHANG, Rou JIANG, Cong ZENG, Shiyong TAN. Research Satus of Microbial Biostimulant in Ariculture[J]. Current Biotechnology, 2026, 16(3): 585-594.

Add to citation manager EndNote|Ris|BibTeX

URL: https://swjsjz.magtechjournal.com/EN/10.19586/j.2095-2341.2025.0180

https://swjsjz.magtechjournal.com/EN/Y2026/V16/I3/585

Figures/Tables 2

References 67

[1]	ELUMALAI P, GAO X, PARTHIPAN P, et al.. Agrochemical pollution: a serious threat to environmental health[J/OL]. Curr. Opin. Environ. Sci. Health, 2025, 43: 100597[2025-11-20]. .
[2]	DEL BUONO D. Can biostimulants be used to mitigate the effect of anthropogenic climate change on agriculture? It is time to respond[J/OL]. Sci. Total Environ., 2021, 751: 141763[2025-11-20]. .
[3]	GARCÍA C J, ALACID V, TOMÁS-BARBERÁN F A, et al.. Untargeted metabolomics to explore the bacteria exo-metabolome related to plant biostimulants[J/OL]. Agronomy, 2022, 12(8): 1926[2025-11-20]. .
[4]	DU JARDIN P. Plant biostimulants: definition, concept, main categories and regulation[J]. Sci. Hortic., 2015, 196: 3-14.
[5]	CARILLO P, AVICE J C, VASCONCELOS M W, et al.. Biostimulants in agriculture: editorial[J/OL]. Physiol. Plant., 2025, 177: e70046[2025-11-20]. .
[6]	中国无机盐工业协会.中国无机盐工业年鉴-2022[M].北京:中国无机盐工业协会,2022:326-345.
[7]	申继忠,余武秀.微生物类植物生物刺激剂研究和开发进展[J].世界农药,2022,44(3):27-39.
	SHEN J Z, YU W X. Progress of research and development of microbial plant biostimulants[J]. World Pestic., 2022, 44(3): 27-39.
[8]	王思怿,段路路,孙华.生物刺激素的分类、功效及作用机制概述[J].肥料与健康,2024,51(3):10-14.
	WANG S Y, DUAN L L, SUN H. Overview of the classification, efficacy, and mechanism of action of biostimulants[J]. Fertil. Health, 2024, 51(3): 10-14.
[9]	吕继龙,赵士诚.不同施肥处理及接种根瘤菌对大豆养分吸收、产量及土壤细菌组成的影响[J].中国土壤与肥料,2024(11):107-113.
	LYU J L, ZHAO S C. Effects of different fertilization treatments and rhizobial inoculation on soybean nutrient uptake, yield and soil bacterial community[J]. Soil Fertil. Sci. China, 2024(11): 107-113.
[10]	董萌,施龙清,解振兴,等.水稻根系内生固氮菌的分离鉴定及其促生作用研究[J].西北农林科技大学学报(自然科学版),2023,51(1):31-39.
	DONG M, SHI L Q, XIE Z X, et al.. Isolation, identification and growth promotion of endophytic nitrogen fixing bacteria from rice roots[J]. J. Northwest AF Univ. Nat. Sci. Ed., 2023, 51(1): 31-39.
[11]	TOMER S, SUYAL D C, GOEL R. Biofertilizers: a timely approach for sustainable agriculture[M]// Plant-microbe interaction: an approach to sustainable agriculture. Singapore: Springer Singapore, 2016: 375-395.
[12]	李畅,刘锐,于运凯,等.黑土高效解磷菌的筛选及其对玉米的促生效果[J].微生物学通报,2025,52(3):1101-1117.
	LI C, LIU R, YU Y K, et al.. Screening of efficient phosphate-solubilizing bacteria capable of promoting maize growth from black soil[J]. Microbiol. China, 2025, 52(3): 1101-1117.
[13]	王逾涵,郎佳琪,任雪杨,等.不同产地太白贝母根际解钾菌的筛选、鉴定及其促生特性研究[J].中国土壤与肥料,2025(6):213-224.
	WANG Y H, LANG J Q, REN X Y, et al.. Screening and identification of inter-root potassium-solubilising bacteria of Fritillaria taipaiensis P.Y.Li from different origins and their growth-promoting characteristics[J]. Soil Fertil. Sci. China, 2025(6): 213-224.
[14]	ALI A M, AWAD M Y M, HEGAB S A, et al.. Effect of potassium solubilizing bacteria (Bacillus cereus) on growth and yield of potato[J]. J. Plant Nutr., 2021, 44(3): 411-420.
[15]	陶泽,佟兆庆,秦嗣军.樱桃根际产吲哚乙酸促生菌的分离、鉴定及功能特性[J].微生物学报,2025,65(1):122-135.
	TAO Z, TONG Z Q, QIN S J. Isolation, identification, and functional characterization of plant growth-promoting rhizobacteria capable of producing indole acetic acid from cherry rhizosphere[J]. Acta Microbiol. Sin., 2025, 65(1): 122-135.
[16]	MEKUREYAW M F, PANDEY C, HENNESSY R C, et al.. The cytokinin-producing plant beneficial bacterium Pseudomonas fluorescens G20-18 primes tomato (Solanum lycopersicum) for enhanced drought stress responses[J/OL]. J. Plant Physiol., 2022, 270: 153629[2025-11-20]. .
[17]	CHEN S M, ZHANG C M, PENG H, et al.. Exopolysaccharides from endophytic Glutamicibacter halophytocota KLBMP 5180 functions as bio-stimulants to improve tomato plants growth and salt stress tolerance[J/OL]. Int. J. Biol. Macromol., 2023, 253(Pt 1): 126717[2025-11-20]. .
[18]	DINANGO V, DHOUIB H, JLAIL L, et al.. Unveiling the plant growth promotion and the antifungal potency against maize pathogen Fusarium verticillioides by desert-derived endophytes Bacillus subtilis RA15 and Bacillus tequilensis FC6 and their lipopeptides[J/OL]. Appl. Soil Ecol., 2025, 207: 105949[2025-11-20]. .
[19]	ZHAI Z, SHI W, LIU L, et al.. Poly-γ-glutamic acid enhances corn nitrogen use efficiency and yield by decreasing gaseous nitrogen loss and increasing mineral nitrogen accumulation[J/OL]. Soil Tillage Res., 2025, 249: 106480[2025-11-20]. .
[20]	黄剑,王健,李晓阳,等.氨基丁酸与有机肥料配施对连作马铃薯产量、品质和土壤活性的影响[J].天津农业科学,2025,31(7):79-84.
	HUANG J, WANG J, LI X Y, et al.. The effects of applying γ-aminobutyric acid and organic fertilizer on continuous potato yield, quality and soil activity[J]. Tianjin Agric. Sci., 2025, 31(7): 79-84.
[21]	韩传坤,布阿米乃·吾吉阿卜杜拉,许家磊,等.依克多因发酵液对玉米苗期生理特性的影响[J].植物生理学报,2025,61(4):429-444.
	HAN C K, WUJIABDULLAH B, XU J L, et al.. The effect of ectoin fermentation broth on the physiological characteristics of maize seedlings[J]. Plant Physiol. J., 2025, 61(4): 429-444.
[22]	LIU S, LIU Y, HE H, et al.. Effects of 5-aminolevulinic acid (5-ALA) on physicochemical characteristics and growth of pomegranate (Punica granatum L.)[J/OL]. Horticulturae, 2023, 9(8): 860[2025-11-20]. .
[23]	JOHNSON R, JOEL J M, PUTHUR J T. Biostimulants: the futuristic sustainable approach for alleviating crop productivity and abiotic stress tolerance[J]. J. Plant Growth Regul., 2024, 43(3): 659-674.
[24]	ALI S, AKHTAR M S, SIRAJ M, et al.. Molecular communication of microbial plant biostimulants in the rhizosphere under abiotic stress conditions[J/OL]. Int. J. Mol. Sci., 2024, 25(22): 12424[2025-11-20]. .
[25]	JIANG Y, YUE Y, WANG Z, et al.. Plant biostimulant as an environmentally friendly alternative to modern agriculture[J]. J. Agric. Food Chem., 2024, 72(10): 5107-5121.
[26]	THEPBANDIT W, ATHINUWAT D. Rhizosphere microorganisms supply availability of soil nutrients and induce plant defense[J/OL]. Microorganisms, 2024, 12(3): 558[2025-11-20]. .
[27]	FIORILLI V, MARTÍNEZ-MEDINA A, POZO M J, et al.. Plant immunity modulation in arbuscular mycorrhizal symbiosis and its impact on pathogens and pests[J]. Annu. Rev. Phytopathol., 2024, 62(1): 127-156.
[28]	PEREIRA R V, FILGUEIRAS C C, DÓRIA J, et al.. The effects of biostimulants on induced plant defense[J/OL]. Front. Agron., 2021, 3: 630596[2025-11-20]. .
[29]	HATHURUSINGHE S H K, BASHIZI T F, JEONG M, et al.. Enhancing cucumber growth and disease resistance against Sclerotinia sclerotiorum by exogenous co-inoculation of Bacillus amyloliquefaciens KACC17029 and salicylic acid[J]. Plant Growth Regul., 2025, 105(5): 1723-1738.
[30]	李紫英,沙帅帅,唐御忻,等.贝莱斯芽孢杆菌SY01诱导苹果树抗性基因表达及其脂肽类抑菌物质分析[J].山东农业大学学报(自然科学版),2024,55(5):711-719.
	LI Z Y, SHA S S, TANG Y X, et al.. Expression of resistance genes induced by Bacillus velezensis SY01 in apple trees and analysis of its lipopeptide inhibitory substances[J]. J. Shandong Agric. Univ. Nat. Sci. Ed., 2024, 55(5): 711-719.
[31]	LI C, WANG M, GUO Y, et al.. Activation of the calcium signaling, mitogen-activated protein kinase cascade and phenylpropane metabolism contributes to the induction of disease resistance in pear fruit upon phenylalanine treatment[J/OL]. Postharvest Biol. Technol., 2024, 210: 112782[2025-11-20]. .
[32]	LIU Z, XIA Y, TAN J, et al.. Construction of a beneficial microbes-enriched rhizosphere system assists plants in phytophagous insect defense: current status, challenges and opportunities[J]. Pest Manag. Sci., 2024, 80(11): 5608-5618.
[33]	SHAFIEI F, SHAHIDI-NOGHABI S, SEDAGHATI E, et al.. Arbuscular mycorrhizal fungi inducing tomato plant resistance and its role in control of Bemisia tabaci under greenhouse conditions[J]. Neotrop. Entomol., 2024, 53(2): 424-438.
[34]	LUO N, JIAO Y, LING J, et al.. Synergistic effect of two peptaibols from biocontrol fungus Trichoderma longibrachiatum strain 40418 on CO-induced plant resistance[J]. J. Agric. Food Chem., 2024, 72(38): 20763-20774.
[35]	SUN Z, MA N, YANG Y, et al.. Mechanism of exogenous jasmonic acid-induced resistance to Thrips palmi in Hemerocallis citrina baroni revealed by combined physiological, biochemical and transcriptomic analyses[J/OL]. Agronomy, 2024, 14(11): 2507[2025-11-20]. .
[36]	JAN R, ASIF S, ASAF S, et al.. Gamma-aminobutyric acid treatment promotes resistance against Sogatella furcifera in rice[J/OL]. Front. Plant Sci., 2024, 15: 1419999[2025-11-20]. .
[37]	FADIJI A E, BABALOLA O O, SANTOYO G, et al.. The potential role of microbial biostimulants in the amelioration of climate change-associated abiotic stresses on crops[J/OL]. Front. Microbiol., 2022, 12: 829099[2025-11-20]. .
[38]	HASSANI A, AZAPAGIC A, SHOKRI N. Global predictions of primary soil salinization under changing climate in the 21st century[J/OL]. Nat. Commun., 2021, 12: 6663[2025-11-20]. .
[39]	焦明翠,蔡立格,魏健,等.盐胁迫的生理危害与植物的适应机制研究进展[J].长春师范大学学报,2023,42(6):125-132.
	JIAO M C, CAI L G, WEI J, et al.. Research progress on the physiological harms of salt stress and the adaptation mechanism of plants[J]. J. Changchun Norm. Univ. Humanit. Soc. Sci., 2023, 42(6): 125-132.
[40]	LIU X, CHAI J, ZHANG Y, et al.. Halotolerant rhizobacteria mitigate the effects of salinity stress on maize growth by secreting exopolysaccharides[J/OL]. Environ. Exp. Bot., 2022, 204: 105098[2025-11-20]. .
[41]	AHMED S, YHEO T, ROY CHOUDHURY A, et al.. Accumulation of compatible solutes in rice (Oryza sativa L.) cultivars by inoculation of endophytic plant growth promoting bacteria to alleviate salt stress[J/OL]. Appl. Biol. Chem., 2021, 64(1): 68[2025-11-20]. .
[42]	CHAUDHURI R, BALASUBRAMANIAN P. Enhancing salt tolerance in leafy vegetables using microalgal exopolysaccharides[J/OL]. J. Crop Health, 2025, 77(2): 70[2025-11-20]. .
[43]	XU N, CHEN Z, NIU J, et al.. Effects of exogenous 5-aminolevulinic acid (5-ALA) on alfalfa (Medicago sativa L.) under NaCl-induced salinity stress[J]. J. Soil Sci. Plant Nutr., 2025, 25(1): 478-494.
[44]	YANG X F, YAO C J, LI Y J, et al.. Effect of exogenous putrescine on wheat seed germination and physiological characteristics under salt stress[J]. Appl. Ecol. Env. Res., 2025, 23(5): 9363-9374.
[45]	SHEN X, DAI S, CHEN M, et al.. Spermidine augments salt stress resilience in rice roots potentially by enhancing OsbZIP73's RNA binding capacity[J/OL]. BMC Plant Biol., 2024, 24(1): 786[2025-11-20]. .
[46]	FANG S, QI Y, YU W, et al.. Change in temperature extremes and its correlation with mean temperature in mainland China from 1960 to 2015[J]. Int. J. Climatol., 2017, 37(10): 3910-3918.
[47]	SULIMAN M S E, ELRADI S B M, ZHOU G, et al.. Exogenous glutathione protected wheat seedling from high temperature and water deficit damages[J/OL]. Sci. Rep., 2024, 14: 5304[2025-11-20]. .
[48]	HAN M, KASIM S, YANG Z, et al.. Plant extracts as biostimulant agents: a promising strategy for managing environmental stress in sustainable agriculture[J]. Phyton, 2024, 93(9): 2149-2166.
[49]	SHAN C, YUAN Z. Gamma-aminobutyric acid improves cold tolerance of wheat seedlings[J]. Plant Soil Environ., 2025, 71(6): 441-452.
[50]	JHA Y, MOHAMED H I. Inoculation with Lysinibacillus fusiformis strain YJ4 and Lysinibacillus sphaericus strain YJ5 alleviates the effects of cold stress in maize plants[J]. Gesunde Pflanz., 2023, 75(1): 77-95.
[51]	SHAFFIQUE S, SHAH A A L, PETER O, et al.. The rhizobacterial Priestia megaterium strain SH-19 mitigates the hazardous effects of heat stress via an endogenous secondary metabolite elucidation network and molecular regulation signalling[J/OL]. BMC Plant Biol., 2024, 24(1): 827[2025-11-20]. .
[52]	DAI T, BAN S, HAN L, et al.. Effects of exogenous Glycine betaine on growth and development of tomato seedlings under cold stress[J/OL]. Front. Plant Sci., 2024, 15: 1332583[2025-11-20]. .
[53]	DUAN Y, SUN W, WANG Q, et al.. Integrated transcriptomics and proteomics revealed that exogenous spermidine modulated signal transduction and carbohydrate metabolic pathways to enhance heat tolerance of lettuce[J/OL]. BMC Plant Biol., 2025, 25(1): 754[2025-11-20]. .
[54]	DIETZ K J, ZÖRB C, GEILFUS C M. Drought and crop yield[J]. Plant Biol., 2021, 23(6): 881-893.
[55]	ZHANG L, YU X, ZHOU T, et al.. Understanding and attribution of extreme heat and drought events in 2022: current situation and future challenges[J]. Adv. Atmos. Sci., 2023, 40(11): 1941-1951.
[56]	WANG Z, ZHANG X, LIU S Y, et al.. Unveiling the molecular mechanisms of γ-polyglutamic acid-mediated drought tolerance in cotton through transcriptomic and physiological analyses[J/OL]. BMC Plant Biol., 2025, 25(1): 392[2025-11-20]. .
[57]	SATTAR A, ABOU EL-YAZIED A, ALHARBI B M, et al.. Application of biostimulants alleviated drought stress in sugar beet (Beta vulgaris L.) by improving oxidative defense system, osmolytes accumulation and root yield[J]. J. Soil Sci. Plant Nutr., 2024, 24(4): 7167-7183.
[58]	DU J, LI W, WANG Z, et al.. Effects of exogenous melatonin on drought stress in celery (Apium graveolens L.): unraveling the modulation of chlorophyll and glucose metabolism pathways[J/OL]. BMC Genomics, 2024, 25(1): 1104[2025-11-20]. .
[59]	QIAO M, LYU S, QIAO Y, et al.. Exogenous Streptomyces spp. enhance the drought resistance of naked oat (Avena nuda) seedlings by augmenting both the osmoregulation mechanisms and antioxidant capacities[J/OL]. Funct. Plant Biol., 2024, 51: FP23312[2025-11-20]. .
[60]	裴琳婧,张思颖,朱叶琳,等.干旱胁迫下丛枝菌根真菌对玉米生长和抗旱性的影响[J].西南农业学报,2024,37(8):1731-1742.
	PEI L J, ZHANG S Y, ZHU Y L, et al.. Effects of arbuscular mycorrhizal fungi on maize growth and drought tolerance under drought stress[J]. Southwest China J. Agric. Sci., 2024, 37(8): 1731-1742.
[61]	MOHAMMADI-CHERAGHABADI M, GHANATI F, KARIMI N, et al.. Exogenous D-ornithine enhances drought tolerance in sage (Salvia officinalis L.) through modulating water status, photosynthetic performance, osmoprotectants, and defense mechanisms[J]. J. Plant Growth Regul., 2025, 44(6): 3273-3289.
[62]	KIRAN, BHARTI R, SHARMA R. Effect of heavy metals: an overview[J]. Mater. Today Proc., 2022, 51: 880-885.
[63]	WANG H, WANG S, HE X, et al.. A promising product: abscisic acid-producing bacterial agents for restricting cadmium enrichment in field vegetable crops[J/OL]. Food Chem. X, 2023, 19: 100795[2025-11-20]. .
[64]	WU R, SUN X, ZHU M, et al.. Abscisic acid-producing bacterium Azospirillum brasilense effectively reduces heavy metals (cadmium, nickel, lead, and zinc) accumulation in pak choi across various soil types[J/OL]. Ecotoxicol. Environ. Saf., 2025, 298: 118277[2025-11-20]. .
[65]	LIAO S, LING Y, GAO Y, et al.. Enhanced cadmium tolerance in perennial ryegrass via exogenous application of Enterobacter hormaechei strain X20[J/OL]. Ecotoxicol. Environ. Saf., 2025, 292: 117905[2025-11-20]. .
[66]	ZHANG H, XIE X, LARSON S L, et al.. Exopolysaccharides from Rhizobium tropicimitigate Al phytotoxicity in Triticum aestivum [J]. Plant Soil, 2025, 511(1): 1253-1270.
[67]	RUZZI M, COLLA G, ROUPHAEL Y. Biostimulants in agricultureⅡ: towards a sustainable future[J/OL]. Front. Plant Sci., 2024, 15: 1427283[2025-11-20]. .

微生物类生物刺激素	作用植物/病虫害	作用机制
解淀粉芽孢杆菌	黄瓜/菌核病	提高多酚氧化酶和过氧化物酶活性，上调防御相关基因（PR1、LecRK6.1）
贝莱斯芽孢杆菌	苹果/腐烂病	产生脂肽类抑菌成分，诱导MdNPR1、MdPDF1、MdPR2、MdPR4、MdPR1等5种关键抗性基因的表达
苯丙氨酸	梨/果实腐烂病	通过正向调节苯丙烷代谢、丝裂原激活的蛋白激酶级联、钙信号和WRKY转录因子
丛枝菌根	番茄/烟粉虱	提高过氧化物酶、苯丙氨酸解氨酶和多酚氧化酶等防御酶活性和总酚含量
线性肽	番茄/丁香假单胞菌及南方根结线虫	植物先天免疫的关键激发子
茉莉酸	黄花菜/棕榈蓟马	调控关于木质素和蜡质生物合成、细胞壁增厚、抗氧化酶合成、蛋白酶抑制剂合成、次生代谢物合成和防御激素信号等抗虫途径相关基因的差异表达
γ-氨基丁酸	水稻/白背飞虱	调节抗氧化防御系统、TCA循环、植物激素信号传导和致病相关基因调控

微生物类生物刺激素	作用植物/病虫害	作用机制
解淀粉芽孢杆菌	黄瓜/菌核病	提高多酚氧化酶和过氧化物酶活性，上调防御相关基因（PR1、LecRK6.1）
贝莱斯芽孢杆菌	苹果/腐烂病	产生脂肽类抑菌成分，诱导MdNPR1、MdPDF1、MdPR2、MdPR4、MdPR1等5种关键抗性基因的表达
苯丙氨酸	梨/果实腐烂病	通过正向调节苯丙烷代谢、丝裂原激活的蛋白激酶级联、钙信号和WRKY转录因子
丛枝菌根	番茄/烟粉虱	提高过氧化物酶、苯丙氨酸解氨酶和多酚氧化酶等防御酶活性和总酚含量
线性肽	番茄/丁香假单胞菌及南方根结线虫	植物先天免疫的关键激发子
茉莉酸	黄花菜/棕榈蓟马	调控关于木质素和蜡质生物合成、细胞壁增厚、抗氧化酶合成、蛋白酶抑制剂合成、次生代谢物合成和防御激素信号等抗虫途径相关基因的差异表达
γ-氨基丁酸	水稻/白背飞虱	调节抗氧化防御系统、TCA循环、植物激素信号传导和致病相关基因调控

微生物类生物刺激素	作用植物/胁迫类型	作用机制
假关节杆菌、不动杆菌和假单胞菌	玉米/盐胁迫	改善抗氧化水平、叶绿素和渗透调节剂积累
亚麻短杆菌	水稻/盐胁迫	影响植株脯氨酸、甘氨酸、甜菜碱的积累
螺旋藻胞外多糖	罗勒、菠菜/盐胁迫	升高植物脯氨酸、总酚和可溶性糖水平及K⁺/Na⁺比值
5-ALA	紫花苜蓿/盐胁迫	减弱Na⁺积累、活性氧产生和脂质过氧化，调节离子转运、渗透调节和氧化还原平衡，增强细胞膜完整性、渗透保护机制和抗氧化防御能力
谷氨酸杆菌胞外多糖	番茄/盐胁迫	调整植物激素信号传递、苯丙素生物合成和蛋白质加工等基因的表达
腐胺	小麦/盐胁迫	提高脯氨酸含量
亚胺	水稻/盐胁迫	调节OsbZIP73蛋白活性
球形赖氨酸芽孢杆菌	玉米/低温胁迫	上调渗透酶、酚类物质、植物激素和抗氧化酶
巨大普里斯特氏菌	大豆/高温胁迫	上调GSH、SOD、APX、CAT等酶活及参与脱落酸生物合成和诱导气孔调节的2个转录因子GmbZIP1、GmNCED3表达，下调GmHSP表达
甘氨酸甜菜碱	番茄/低温胁迫	调控植株抗氧化能力、钙信号、光合活性、能量代谢相关基因和低温途径相关基因的表达
亚精胺	生菜/高温胁迫	清除超氧自由基、结合核孔和中心转运，促进物质运输和提高抗氧化酶活性
荧光假单胞菌	番茄/干旱胁迫	上调与苯丙氨酸代谢和其他与植物生长、发育和抗旱能力相关基因的表达，提高叶片叶绿素含量、ABA含量和气孔关闭度，升高抗氧化酶活性和总抗氧化能力
丛枝菌根真菌	玉米/干旱胁迫	降低渗透调节物质，增加抗氧化酶活性
D-鸟氨酸	鼠尾草/干旱胁迫	提高总多胺、结合腐胺、结合亚精胺和结合精胺、脯氨酸和总可溶性糖等渗透产物的水平
巴西固氮螺菌	小白菜/重金属胁迫	增加脱落酸水平，减少IRT1与IRT2表达
霍氏肠杆菌	黑麦草/重金属胁迫	增加Fe²⁺、Cu²⁺、Zn²⁺和Mn²⁺水平，促进镉的吸收和离子平衡的重建
热带根瘤菌胞外多糖	小麦/重金属胁迫	限制对铝的吸收和运输，增强对氧化应激的抗氧化防御

微生物类生物刺激素	作用植物/胁迫类型	作用机制
假关节杆菌、不动杆菌和假单胞菌	玉米/盐胁迫	改善抗氧化水平、叶绿素和渗透调节剂积累
亚麻短杆菌	水稻/盐胁迫	影响植株脯氨酸、甘氨酸、甜菜碱的积累
螺旋藻胞外多糖	罗勒、菠菜/盐胁迫	升高植物脯氨酸、总酚和可溶性糖水平及K⁺/Na⁺比值
5-ALA	紫花苜蓿/盐胁迫	减弱Na⁺积累、活性氧产生和脂质过氧化，调节离子转运、渗透调节和氧化还原平衡，增强细胞膜完整性、渗透保护机制和抗氧化防御能力
谷氨酸杆菌胞外多糖	番茄/盐胁迫	调整植物激素信号传递、苯丙素生物合成和蛋白质加工等基因的表达
腐胺	小麦/盐胁迫	提高脯氨酸含量
亚胺	水稻/盐胁迫	调节OsbZIP73蛋白活性
球形赖氨酸芽孢杆菌	玉米/低温胁迫	上调渗透酶、酚类物质、植物激素和抗氧化酶
巨大普里斯特氏菌	大豆/高温胁迫	上调GSH、SOD、APX、CAT等酶活及参与脱落酸生物合成和诱导气孔调节的2个转录因子GmbZIP1、GmNCED3表达，下调GmHSP表达
甘氨酸甜菜碱	番茄/低温胁迫	调控植株抗氧化能力、钙信号、光合活性、能量代谢相关基因和低温途径相关基因的表达
亚精胺	生菜/高温胁迫	清除超氧自由基、结合核孔和中心转运，促进物质运输和提高抗氧化酶活性
荧光假单胞菌	番茄/干旱胁迫	上调与苯丙氨酸代谢和其他与植物生长、发育和抗旱能力相关基因的表达，提高叶片叶绿素含量、ABA含量和气孔关闭度，升高抗氧化酶活性和总抗氧化能力
丛枝菌根真菌	玉米/干旱胁迫	降低渗透调节物质，增加抗氧化酶活性
D-鸟氨酸	鼠尾草/干旱胁迫	提高总多胺、结合腐胺、结合亚精胺和结合精胺、脯氨酸和总可溶性糖等渗透产物的水平
巴西固氮螺菌	小白菜/重金属胁迫	增加脱落酸水平，减少IRT1与IRT2表达
霍氏肠杆菌	黑麦草/重金属胁迫	增加Fe²⁺、Cu²⁺、Zn²⁺和Mn²⁺水平，促进镉的吸收和离子平衡的重建
热带根瘤菌胞外多糖	小麦/重金属胁迫	限制对铝的吸收和运输，增强对氧化应激的抗氧化防御

Research Satus of Microbial Biostimulant in Ariculture

RichHTML

PDF

Knowledge

Abstract

Cite this article

share this article

Figures/Tables 2

References 67

Related Articles 15

Recommended Articles

Metrics

Comments

[1]	Jing QI, Xiuyun LYU. Research Progress on Reciprocal Interactions Between Obstructive Sleep Apnea and Gut Microbiota [J]. Current Biotechnology, 2026, 16(2): 338-347.
[2]	Yujing WANG, Jia WU, Honge LI, Shanshan LI, Xiaoni YANG, Qingqing GUO, Wenran HU. The Ecological Niche Protection Function Mediated by Microbial Secondary Metabolites [J]. Current Biotechnology, 2025, 15(6): 952-959.
[3]	Sujie WANG, Mengli GU, Jiemeng TAO, Zhijun TONG, Junjia GUO, Jingjing JIN, Mengxiao XU, Lijun MENG, Jianfeng ZHANG, Peijian CAO, Peng LU. Isolation, Identification and Whole-genome Sequence Analysis of Phytophthora nicotianae Antagonistic Bacteria XC-29 [J]. Current Biotechnology, 2024, 14(6): 1004-1015.
[4]	Kai ZOU. Research and Application of Plant Hairy Root [J]. Current Biotechnology, 2024, 14(3): 341-348.
[5]	Liwen WANG, Jiangkun WANG, Bingbing WANG, Jianhong XU, Jianrong SHI, Xin LIU. Roles of Fusarium Toxins in Plant-pathogen Interaction [J]. Current Biotechnology, 2024, 14(2): 182-188.
[6]	Qiaoli CHEN, Jie HUANG, Senyu CHEN, Shaoting PAN, Lingzhi TANG, Xuan HONG. Research Progress on Secondary Metabolites of Marine Streptomyces [J]. Current Biotechnology, 2023, 13(6): 844-852.
[7]	Kainan SONG, Linan XIE, Yuquan XU. Progress of Fungal Secondary Metabolites with Potential Herbicidal Activity [J]. Current Biotechnology, 2023, 13(2): 181-194.
[8]	Yang YANG, Fenglin WANG, De LIU, Yuanyuan LUO, Jianhua ZHU. Research Progress of CRISPR‍⁃‍Cas9 Technology on the Production of Plant Secondary Metabolites [J]. Current Biotechnology, 2022, 12(6): 806-816.
[9]	LI Yujiao, WU Guangbin, CHEN Fahe*. Effects of Two Kinds of Extraction Solvents on the GC-MS Based Metabolomics Analysis of Wax Apple [J]. Curr. Biotech., 2018, 8(5): 413-419.
[10]	ZHANG Nannan1,2, BAI Jing2, ZHANG Liwen2, XU Yuquan2, WANG Huiguo1*, FENG Baomin1. Study on the Antifungal Effect of Bioactive Metabolites Produced by Penicillium bilaiae [J]. Curr. Biotech., 2017, 7(4): 315-319.
[11]	LIU Huan1, HUANG Lina2, Zhang Fenqiang1, JIANG Mengyan2, ZHOU Yijie1, CHEN Siyuan2, WANG Younian1, YANG Mingfeng2, MA Lanqing2,3. Progress on Application of RNA-Seq High Throughput Sequencing Technology in Functional Genomics of Fruit Trees [J]. Curr. Biotech., 2017, 7(2): 144-148.
[12]	LI Ling-ling. Advances of Endophytic Fungi from Artemisia annus [J]. Curr. Biotech., 2016, 6(3): 185-187.
[13]	LI Meng-ying, YAN Pei-sheng*, GAO Xiu-jun, SUN Xiao-lei. Progress on Diversity and Secondary Metabolites Biological Activity of Deep-sea Fungi [J]. Curr. Biotech., 2015, 5(3): 170-175.
[14]	XU Yu-quan. The Application of Imaging Mass Spectrometry in Microbial Metabolites Research [J]. Curr. Biotech., 2014, 4(3): 211-215.
[15]	YANG Ze-wei1,2, WANG Long-hai1,2, ZHU Li2*, LANG-Zhihong2, LUO Xue-gang1. Research on the Mechanism of Gamma-aminobutyric Acid Shunt in Plant Response to Adversity Stresses [J]. Curr. Biotech., 2014, 4(2): 77-84.