数字农科院2.0

Effect of ARC-BBBE microbial inoculant on main phytohormones in peanut root from seedling to podding stage

文献类型： 外文期刊

作者： Sichen Guan; Jin Mao; Qiaomei Qin; Na Li; Ling Cheng; Xianglong Yang; Qi Zhang; Peiwu Li

关键词： ARC-BBBE; Peanut; Phytohormones; Gibberellin A3

期刊名称： Oil Crop Science

ISSN： 2096-2428

年卷期： 2025 年

页码：

收录情况： CSCD（2025-2026年度） ; ; 农林核心（2024版）

摘要： Phytohormones play a crucial role in regulating peanut growth and development. Our previous studies have demonstrated that the microbial inoculant ARC-BBBE, developed by our research group, effectively promotes peanut growth and enhances yield under both greenhouse and field conditions. Therefore, it is of significant interest to investigate how ARC-BBBE influences the levels and spatial distribution of major phytohormones in peanut roots. Greenhouse pot experiments revealed that ARC-BBBE significantly enhanced peanut growth and root system development. A systematic analysis of the effects of ARC-BBBE on key phytohormones in peanut roots across different growth stages showed that gibberellin A3 (GA3) content varied markedly, with predominant accumulation occurring during the early growth stage, whereas changes in indole-3-acetic acid (IAA) levels were not statistically significant. Specifically, GA3 content in the ARC-BBBE treatment group was 1.27-fold higher than in the control group during the seedling stage. Furthermore, peanut growth parameters were significantly improved following ARC-BBBE application, particularly at the flowering stage, where plant height, above-ground biomass, root length, and root weight in the treated group were 1.24-, 1.17-, 1.13-, and 1.21-fold greater than those in the control, respectively. To elucidate the functional role of phytohormones in ARC-BBBE-mediated growth promotion, we examined the effects of exogenous GA3 and its biosynthesis inhibitor uniconazole (S3307) on both PHNZY-23-3 rhizobial growth and peanut development. Results indicated that supplementation with 1×103 mg/L GA3 most effectively promoted peanut growth at the seedling stage, while S3307 application inhibited growth. These findings provide valuable insights into the mechanism by which ARC-BBBE modulates GA3 dynamics to enhance peanut growth, offering a foundation for future research on plant-microbe interactions and phytohormone regulation.

分类号：

  • 相关文献

[1]花生播种期施用绿僵茵防治蛴螬的研究. 农向群,刘春琴,席国成,张星,张泽华. 2011

[2]ARC-BBBE在长江流域花生产区试验示范效果. 赵秀兰,吉萍萍,洪宇轩,古皓华,蔡航,温茗博,朱嘉铭,岳晓凤,梁美娟,唐晓倩,李友国,张奇,李培武. 2024

[3]Research Progress Related to Aflatoxin Contamination and Prevention and Control of Soils. Xue Wang,Dun Wang,Shujuan Zhang,Mengjie Zhu,Qing Yang,Jing Dong,Qi Zhang,Peng Feng. 2023

[4]Effect of microbial agent ARC-BBBE demonstration application on peanut production in the Huang-huai-hai area of China. Ping ping Ji,Hao hua Gu,Ming bo Wen,Hang Cai,Jia ming Zhu,Xiao feng Yue,Qi Zhang,Pei wu Li. 2023

[5]Effect of ARC-BBBE microbial inoculant on main phytohormones in peanut root from seedling to podding stage. Sichen Guan,Jin Mao,Qiaomei Qin,Na Li,Ling Cheng,Xianglong Yang,Qi Zhang,Peiwu Li. 2025

[6]Genome-Wide Expression Quantitative Trait Locus A.nalysis In A Recombinant I nbred Line Population For Trait Dissection In Peanut. Zhou, Xiaojing,Chen, Weigang,Jiang, Huifang,Luo, Huaiyong,Liao, Boshou,Liu, Nian,Pandey, Manish K.,Lei, Yong,Liu, Xia,Xue, Xiaomeng,Huai, Dongxin,Varshney, Rajeev K.,Huang, Li,Ren, Xiaoping,Chen, Yuning,Xiao, Yingjie,Chen, Haiwen,Liu, Kede,Huang, Li. 2019

[7]Genetic Variation And Association Mapping O.f Seed-Related Traits In C ultivated Peanut (Arachis Hypogaea L.) Using Single-Locus Simple Sequence Repeat Markers. Chen, Weigang,Ren, Xiaoping,Huang, Li,Liao, Boshou,Zhou, Xiaojing,Lei, Yong,Luo, Huaiyong,Wu, Bei,Pandey, Manish K.,Jiang, Huifang,Varshney, Rajeev K.,Li, Zeqing,Chen, Yuning,Zhao, Jiaojiao,Xia, Youlin. 2017

[8]Intercropping In Sugarcane Cultivation Influenced T.he Soil Properties And E nhanced The Diversity Of Vital Diazotrophic Bacteria. Wang, Fei-Yong,Wang, Fei-Yong,Solanki, Manoj Kumar,Yang, Li-Tao,Wang, Zhen,Wang, Fei-Yong,Singh, Rajesh Kumar,Li, Chang-Ning,Li, Chang-Ning,Lan, Tao-Ju,Singh, Pratiksha,Li, Yang-Rui,Li, Yang-Rui. 2017

[9]Effects Of Tobacco-Peanut Relay Intercropping On Soil Bacteria Community Structure. Gao, L, Liu, XM, Du, YM, Zong, H, Shen, GM. 2019

[10]Carboxin And Its Major Metabolites R.esidues In Peanuts: Levels, D ietary Intake And Chronic Intake Risk Assessment. Xu, Jun,Wei, Dongmei,Wei, Dongmei,Liu, Xingang,Dong, Fengshou,Wu, Xiaohu,Ji, Mingshan,Zheng, Yongquan. 2019

[11]Residue Behaviour And Safety Evaluation O.f Fenaminstrobin In Peanut F ield Ecosystems. You, XW, Sui, CC, Li, YQ, Wang, XG, Xu, JL, Zheng, X, Chen, D, Zhu, GY. 2017

[12]The Yellow Stripe-Like (Ysl) Gene F.unctions In Internal Copper T ransport In Peanut. Dai, J, Wang, NQ, Xiong, HC, Qiu, W, Nakanishi, H, Kobayashi, T, Nishizawa, NK, Zuo, YM. 2018

[13]Quantitative proteomics analysis reveals the response mechanism of peanut ( Arachis hypogaea L.) to imbibitional chilling stress. H. Chen,N. Liu,R. Xu,X. Chen,Y. Zhang,R. Hu,X. Lan,Z. Tang,G. Lin. 2021

[14]High-Density Genetic Linkage Map Construction Using Whole-Genome Resequencing for Mapping QTLs of Resistance to Aspergillus flavus Infection in Peanut. Jiang Y.,Luo H.,Yu B.,Ding Y.,Kang Y.,Huang L.,Zhou X.,Liu N.,Chen W.,Guo J.,Huai D.,Lei Y.,Jiang H.,Yan L.,Liao B.. 2021

[15]Identification Of Two Novel Peanut Genotypes Resistant To Aflatoxin Production And Their Snp Markers Associated With Resistance. Yu, BL, Jiang, HF, Pandey, MK, Huang, L, Huai, DX, Zhou, XJ, Kang, YP, Varshney, RK, Sudini, HK, Ren, XP, Luo, HY, Liu, N, Chen, WG, Guo, JB, Li, WT, Ding, YB, Jiang, YF, Lei, Y, Liao, BS. 2020

[16]Peanut (Arachis hypogaea L.) pod and rhizosphere harbored different bacterial communities. Xu Wen-yue,Wang Mei-Ling,Sun Xiao-Xiao,Shu Chang-Long,Zhang Jie,Geng Li-Li. 2021

[17]Estimating Peanut Leaf Chlorophyll Content W.ith Dorsiventral Leaf Adjusted I ndices: Minimizing The Impact Of Spectral Differences Between Adaxial And Abaxial Leaf Surfaces. Xie, MM, Wang, ZQ, Huete, A, Brown, LA, Wang, HY, Xie, QY, Xu, XP, Ding, YL. 2019

[18]Genome-Wide Systematic Characterization Of Bzip T.ranscription Factors And Their E xpression Profiles During Seed Development And In Response To Salt Stress In Peanut. Wang, ZH, Yan, LY, Wan, LY, Huai, DX, Kang, YP, Shi, L, Jiang, HF, Lei, Y, Liao, BS. 2019

[19]Evaluation Of Portable And Benchtop Nir For Classification Of High Oleic Acid Peanuts And Fatty Acid Quantitation. Yu, HW, Liu, HZ, Wang, Q, van Ruth, S. 2020

[20]Rapid High-Throughput Determination Of Major Components And Amino Acids In A Single Peanut Kernel Based On Portable Near-Infrared Spectroscopy Combined With Chemometrics. Yu, HW, Liu, HZ, Erasmus, SW, Zhao, SM, Wang, Q, van Ruth, SM. 2020

作者其他论文 更多>>