[1] [1] CHENG Z Y, MCCONKEY B J, GLICK B R. Proteomic studiesof plant-bacterial interactions［J］. Soil Biology and Biochemistry,2010, 42(10): 1673-1684.

[2] [2] HILTNER L. über neuere erfahrungen und probleme auf dem gebiet der bodenbakteriologie und unter besonderer berücksichtigungder gründüngung und brache［Z］. Arbeiten der Deutschen Landwirtschaftlichen Gesellschaft, 1904, 98: 59-78.

[3] [3] SCHROEDER P, HARTMANN A. New developments in rhizosphere research［J］. Journal of Soils and Sediments, 2003, 3(4):227.

[4] [4] BHAT B A, TARIQ L, NISSAR S, et al. The role of plant-associated rhizobacteria in plant growth, biocontrol and abiotic stressmanagement［J］. Journal of Applied Microbiology, 2022, 133(5):2717-2741.

[5] [5] BENAISSA A. Rhizosphere: role of bacteria to manage plant diseases and sustainable agriculture―a review［J］. Journal of BasicMicrobiology, 2024, 64(3): e2300361.

[6] [6] TONG Qianqian, ZHU Ying, CUI Deling, et al. The developmentstatus of microbial fertilizer in China and its application in vegetable planting［J］. Soil and Fertilizer Sciences in China, 2022(4):259-266.

[7] [7] IGUAL J M, VALVERDE A, CERVANTES E, et al. Phosphatesolubilizing bacteria as inoculants for agriculture: use of updatedmolecular techniques in their study［J］. Agronomie, 2001, 21(67):561-568.

[8] [8] WEN Jiaxu, CHEN Xueli, XIAO Yang, et al. Major phosphorusdissolving bacteria species in soils and mechanisms of action［J］.Northern Horticulture, 2023(14): 139-145.

[9] [9] LIU Yingjie, ZHANG Lihong, ZHANG Hong, et al. Role ofphosphate solubilizing microorganisms in soil phosphorus cycle: areview［J］. Microbiology China, 2023, 50(8): 3671-3687.

[10] [10] GROSS A, LIN Y, WEBER P K, et al. The role of soil redox conditions in microbial phosphorus cycling in humid tropical forests［J］. Ecology, 2020, 101(2): e02928.

[11] [11] MA Ying, WANG Yue, SHI Xiaojun, et al. Mechanism and application of plant growth-promoting bacteria in heavy metal bioremediation［J］. Environmental Science, 2022, 43(9): 4911-4922.

[12] [12] ASHFAQ M, HASSAN H M, GHAZALI A H A, et al. Halotolerant potassium solubilizing plant growth promoting rhizobacteriamay improve potassium availability under saline conditions［J］.Environmental Monitoring and Assessment, 2020, 192(11): 697.

[13] [13] LIU Fangtong, FAN Haonan, SHEN Lixin, et al. Iron acquisitioby bacterial and adaptive immune responses［J］. MicrobiologyChina, 2019, 46(12): 3432-3439.

[14] [14] RADZKI W, GUTIERREZ MA?ERO F J, ALGAR E, et al. Bacterial siderophores efficiently provide iron to iron-starved tomatoplants in hydroponics culture［J］. Antonie Van Leeuwenhoek International Journal of General and Molecular Microbiology, 2013,104(3): 321-330.

[15] [15] LEONG J. Siderophores: their biochemistry and possible role inthe biocontrol of plant pathogens［J］. Annual Review of Phytopathology, 1986, 24(1): 187-209.

[16] [16] DENG Shengkun, LEI Fengjie, LONG Yiping, et al. Bacterialsiderophores antagonize phytopathogenic fungi and promoteplant growth: a review［J］. Microbiology China, 2023, 50(7):3198-3210.

[17] [17] ZHANG Ting, ZHANG Ling, ZHANG Yingying, et al. Application progress of plant growth promoting bacteria in crops［J］.Journal of Hebei Agricultural Sciences, 2022, 26(3): 33-37.

[18] [18] JING Xiaoshu, DING Yan, HAN Xiaomei, et al. Advances insynthetic biology of associated nitrogen-fixation bacteria［J］. ActaMicrobiologica Sinica, 2021, 61(10): 3026-3034.

[19] [19] PU Qiang, TAN Zhiyuan, PENG Guixiang, et al. Advances in rhizobia taxonomy［J］. Microbiology China, 2016, 43(3): 619-633.

[20] [20] ZENG Ruier, GENG Qinghui, GAO Hengkuan, et al. Mechanismof symbiotic nodulation between nitrogen and peanut［J］. Hereditas (Beijing), 2023, 45(9): 801-812.

[21] [21] WANG Jialong, LIU Chi, LEI Li, et al. Asymbiotic nitrogen-fixingbacteria and their nitrogen fixation potential［J］. Acta Microbiologica Sinica, 2022, 62(8): 2861-2878.

[22] [22] TAO Y, FERRER J L, LJUNG K, et al. Rapid synthesis of auxinvia a new tryptophan-dependent pathway is required for shadeavoidance in plants［J］. Cell, 2008, 133(1): 164-176.

[23] [23] GAO Yuanyuan, KONG Lulu, WEN Zhiliang. Effect of indole3-acetic acid on the growth of ornamental plants and efficiency ofheavy metal remediation［J］. Guangdong Agricultural Sciences,2022, 49(7): 65-71.

[24] [24] BATES T R, LYNCH J P. Stimulation of root hair elongation inArabidopsis thaliana by low phosphorus availability［J］. PlantCell and Environment, 1996, 19(5): 529-538.

[25] [25] JIA Z, GIEHL R F H, VON WIRéN N. Nutrient-hormone relations: driving root plasticity in plants［J］. Molecular Plant, 2022,15(1): 86-103.

[26] [26] SALAZAR-CEREZO S, MARTíNEZ-MONTIEL N, GARCíASáNCHEZ J, et al. Gibberellin biosynthesis and metabolism: aconvergent route for plants, fungi and bacteria［J］. Microbiological Research, 2018, 208: 85-98.

[27] [27] LEE K E, RADHAKRISHNAN R, KANG S M, et al. Enterococcus faecium LKE12 cell-free extract accelerates host plant growthvia gibberellin and indole-3-acetic acid secretion［J］. Journal ofMicrobiology and Biotechnology, 2015, 25(9): 1467-1475.

[28] [28] SIDDIQUI M H, KHAN M N, MOHAMMAD F, et al. Role of nitrogen and gibberellin (GA3) in the regulation of enzyme activitiesand in osmoprotectant accumulation in Brassica juncea L. undersalt stress［J］. Journal of Agronomy and Crop Science, 2008,194(3): 214-224.

[29] [29] GU J, LI Z, MAO Y, et al. Roles of nitrogen and cytokinin signalsin root and shoot communications in maximizing of plant productivity and their agronomic applications［J］. Plant Science, 2018,274: 320-331.

[30] [30] GOPALAN N S R, SHARMA R, MOHAPATRA S. Probing intothe unique relationship between a soil bacterium, Pseudomonas putida AKMP7 and Arabidopsis thaliana: a case of “conditionalpathogenesis”［J］. Plant Physiology and Biochemistry, 2022, 183:46-55.

[31] [31] BARNAWAL D, BHARTI N, MAJI D, et al. ACC deaminasecontaining Arthrobacter protophormiae induces NaCl stresstolerance through reduced ACC oxidase activity and ethyleneproduction resulting in improved nodulation and mycorrhization inPisum sativum［J］. Journal of Plant Physiology, 2014, 171(11):884-894.

[32] [32] GLICK B R. Bacteria with ACC deaminase can promote plantgrowth and help to feed the world［J］. Microbiological Research,2014, 169(1): 30-39.

[33] [33] HEYDARIAN Z, GRUBER M, COUTU C, et al. Gene expression patterns in shoots of Camelina sativa with enhanced salinitytolerance provided by plant growth promoting bacteria producing1-aminocyclopropane-1-carboxylate deaminase or expression ofthe corresponding acdS gene［J］. Scientific Reports, 2021, 11(1):4260.

[34] [34] VENTURI V, KEEL C. Signaling in the rhizosphere［J］.Trends in Plant Science, 2016, 21(3): 187-198.

[35] [35] MOSHYNETS O V, BABENKO L M, ROGALSKY S P, et al.Priming winter wheat seeds with the bacterial quorum sensingsignal N-hexanoyl-L-homoserine lactone (C6-HSL) shows potential to improve plant growth and seed yield［J］. PLoS One, 2019,14(2): e0209460.

[36] [36] SCHIKORA A, SCHENK S T, STEIN E, et al. N-acyl-homoserinelactone confers resistance toward biotrophic and hemibiotrophicpathogens via altered activation of AtMPK6［J］. Plant Physiology,2011, 157(3): 1407-1418.

[37] [37] ORTíZ-CASTRO R, MARTíNEZ-TRUJILLO M, LóPEZ-BUCIOJ. N-acyl-L-homoserine lactones: a class of bacterial quorumsensing signals alter post-embryonic root development in Arabidopsis thaliana［J］. Plant Cell and Environment, 2008, 31(10):1497-1509.

[38] [38] SCHENK S T, HERNáNDEZ-REYES C, SAMANS B, et al.N-acyl-homoserine lactone primes plants for cell wall reinforcement and induces resistance to bacterial pathogens via the salicylicacid/oxylipin pathway［J］. Plant Cell, 2014, 26(6): 2708-2723.

[39] [39] MUELLER K, GONZáLEZ J E. Complex regulation of symbioticfunctions is coordinated by MucR and quorum sensing in Sinorhizobium meliloti ［J］. Journal of Bacteriology, 2011, 193(2):485-496.

[40] [40] HE Y W, DENG Y, MIAO Y, et al. DSF-family quorum sensingsignal-mediated intraspecies, interspecies, and inter-kingdom communication［J］. Trends in Microbiology, 2023, 31(1): 36-50.

[41] [41] KAKKAR A, NIZAMPATNAM N R, KONDREDDY A, et al.Xanthomonas campestris cell-cell signalling molecule DSF(diffusible signal factor) elicits innate immunity in plants and issuppressed by the exopolysaccharide xanthan［J］. Journal of Experimental Botany, 2015, 66(21): 6697-6714.

[42] [42] DENG Y, WU J, YIN W, et al. Diffusible signal factor family signals provide a fitness advantage to Xanthomonas campestris pv.campestris in interspecies competition［J］. Environmental Microbiology, 2016, 18(5): 1534-1545

[43] [43] ZHAI Tingting, LIU Fang, ZHAO Qian, et al. Auxin signalingpathway is involved in the regulation of root growth by bacterialquorum sensing molecule DSF in Arabidopsis thaliana［J］. PlantPhysiology Journal, 2022, 58(9): 1724-1734.

[44] [44] WEISSKOPF L, SCHULZ S, GARBEVA P. Microbial volatile organic compounds in intra-kingdom and inter-kingdom interactions［J］. Nature Reviews Microbiology, 2021, 19(6): 391-404.

[45] [45] LEMFACK M C, GOHLKE B O, TOGUEM S M T, et al. mVOC2.0: a database of microbial volatiles［J］. Nucleic Acids Research,2018, 46(D1): D1261-D1265.

[46] [46] RYU C M, FARAG M A, HU C H, et al. Bacterial volatiles promote growth in Arabidopsis ［J］. Proceedings of the NationalAcademy of Sciences of the United States of America, 2003,100(8): 4927-4932.

[47] [47] DEL CARMEN OROZCO-MOSQUEDA M, VELAZQUEZBECERRA C, MACIAS-RODRIGUEZ L I, et al. Arthrobacter agilis UMCV2 induces iron acquisition in Medicago truncatula (strategy I plant) in vitro via dimethylhexadecylamine emission［J］. Plant and Soil, 2013, 362(1/2): 51-66.

[48] [48] PING L, BOLAND W. Signals from the underground: bacterialvolatiles promote growth in Arabidopsis ［J］. Trends in Plant Science, 2004, 9(6): 263-266.

[49] [49] CHO S M, KANG B R, HAN S H, et al. 2R, 3R-butanediol, abacterial volatile produced by Pseudomonas chlororaphis O6, isinvolved in induction of systemic tolerance to drought in Arabidopsis thaliana［J］. Molecular Plant-Microbe Interactions, 2008,21(8): 1067-1075.

[50] [50] LIU A, ZHANG P, BAI B, et al. Volatile organic compounds ofendophytic Burkholderia pyrrocinia strain JK-SH007 promotedisease resistance in poplar［J］. Plant Disease, 2020, 104(6):1610-1620.

[51] [51] LUO H, RIU M, RYU C M, et al. Volatile organic compoundsemitted by Burkholderia pyrrocinia CNUC9 trigger inducedsystemic salt tolerance in Arabidopsis thaliana［J］. Frontiers inMicrobiology, 2022, 13: 1050901.

[52] [52] CHEN W, WANG J, HUANG D, et al. Volatile organic compoundsfrom Bacillus aryabhattai MCCC 1K02966 with multiple modesagainst Meloidogyne incognita［J］. Molecules, 2021, 27(1):103.

[53] [53] ZHANG H, KIM M S, SUN Y, et al. Soil bacteria confer plant salttolerance by tissue-specific regulation of the sodium transporterHKT1［J］. Molecular Plant-Microbe Interactions, 2008, 21(6):737-744.

[54] [54] ZHANG J L, FLOWERS T J, WANG S M. Mechanisms of sodium uptake by roots of higher plants［J］. Plant and Soil, 2010,326(1/2): 45-60.

[55] [55] WENKE K, WANKE D, KILIAN J, et al. Volatiles of two growthinhibiting rhizobacteria commonly engage AtWRKY18 function［J］. Plant Journal, 2012, 70(3): 445-459.

[56] [56] SANTOYO G, URTIS-FLORES C A, LOEZA-LARA P D, et al.Rhizosphere colonization determinants by plant growth-promotingrhizobacteria (PGPR)［J］. Biology, 2021, 10(6): 475.

[57] [57] SANTOYO G. How plants recruit their microbiome? New insightsinto beneficial interactions［J］. Journal of Advanced Research,2022, 40: 45-58.

[58] [58] CAZORLA F M, DUCKETT S B, BERGSTR?M E T, et al.Biocontrol of avocado dematophora root rot by antagonistic Pseudomonas fluorescens PCL1606 correlates with the production of2-hexyl 5-propyl resorcinol［J］. Molecular Plant-Microbe Interactions, 2006, 19(4): 418-428.

[59] [59] WALLACE R L, HIRKALA D L, NELSON L M. Efficacy of Pseudomonas fluorescens for control of Mucor rot of apple during commercial storage and potential modes of action［J］. Canadian Journal of Microbiology, 2018, 64(6): 420-431.

[60] [60] MEI Xiaofei, WANG Zhirong, KAN Jianquan. Advances inresearch for controlling fruits and vegetables diseases by usingPseudomonas fluorescens［J］. Acta Microbiologica Sinica, 2019,59(11): 2069-2082.

[61] [61] ZHANG Liqun, ZHANG Junwei. Antibiotics produced by Pseudomonas spp.［J］. Chinese Journal of Biological Control, 2015,31(5): 750-756.

[62] [62] TROPPENS D M, DMITRIEV R I, PAPKOVSKY D B, et al.Genome-wide investigation of cellular targets and mode of actionof the antifungal bacterial metabolite 2, 4-diacetylphloroglucinolin Saccharomyces cerevisiae［J］. Fems Yeast Research, 2013,13(3): 322-334.

[63] [63] SUN Weibo, ZHAO Yangyang, MING Liang, et al. Antagonisticactivities of phenazine compounds against Erwinia amylovora ［J］. Plant Protection, 2022, 48(6): 105-110.

[64] [64] CHIN-A-WOENG T F C, BLOEMBERG G V, MULDERS I H M,et al. Root colonization by phenazine-1-carboxamide-producingbacterium Pseudomonas chlororaphis PCL1391 is essentialfor biocontrol of tomato foot and root rot［J］. Molecular PlantMicrobe Interactions, 2000, 13(12): 1340-1345.

[65] [65] FANG Yunling, SUN Shuang, SHEN Yue, et al. Progress on thedevelopment and application of biopesticide Shenqinmycin［J］.Chinese Journal of Pesticide Science, 2014, 16(4): 387-393.

[66] [66] GUO Saisai, ZHANG Jingze. Research progress of Paenibacillus polymyxa and its lipopeptide compounds［J］. Chinese Journal ofPesticide Science, 2019, 21(Z1): 787-798.

[67] [67] LANGNER T, KAMOUN S, BELHAJ K. CRISPR crops: plantgenome editing toward disease resistance［J］. Annual Review ofPhytopathology, 2018, 56: 479-512.

[68] [68] SHELAKE R M, PRAMANIK D, KIM J Y. Exploration of plantmicrobe interactions for sustainable agriculture in CRISPR era［J］.Microorganisms, 2019, 7(8): 269.

[69] [69] TIMMS-WILSON T M, ELLIS R J, RENWICK A, et al. Chromosomal insertion of phenazine-1-carboxylic acid biosyntheticpathway enhances efficacy of damping-off disease control byPseudomonas fluorescens［J］. Molecular Plant-Microbe Interactions, 2000, 13(12): 1293-1300.

[70] [70] HUANG Z, BONSALL R F, MAVRODI D V, et al. Transformation of Pseudomonas fluorescens with genes for biosynthesis ofphenazine-1-carboxylic acid improves biocontrol of rhizoctoniaroot rot and in situ antibiotic production［J］. FEMS MicrobiologyEcology, 2004, 49(2): 243-251.

[71] [71] JIAO Ziwei, ZHANG Xiangfeng, NUER Maimaiti, et al. Expression pqq gene cluster and its effects on mineral phosphate solubilization and plant promotion in Escherichia coli DH5α［J］. Journalof Agricultural Resources and Environment, 2016, 33(1): 43-48.