Fe2O3 nanoparticles enhance soybean resistance to root rot by modulating metabolic pathways and defense response

Authors: Guo, Yuantian ^a, Gan, Yuefeng ^a, White, Jason C. ^b, Zhang, Xingyuan ^a, Wei, Dengqin ^a, Liang, Jinhong ^a, Wang, Yu ^c, Song, Chun ^{a, ⁎}

Source: In Pesticide Biochemistry and Physiology March 2025 208

CuO nanoparticles facilitate soybean suppression of Fusarium root rot by regulating antioxidant enzymes, isoflavone genes, and rhizosphere microbiome

Authors: Wei, Dengqin ^a, Zhang, Xingyuan ^a, Guo, Yuantian ^a, Saleem, Khansa ^a, Jia, Juntao ^a, Li, Mengshuang ^a, Yu, Hanghang ^a, Hu, Yuanyuan ^a, Yao, Xia ^a, Wang, Yu ^b, Chang, Xiaoli ^c, Song, Chun ^{a, ⁎}

Source: In Plant Physiology and Biochemistry May 2025 222

Characterization of rhizosphere Pseudomonas chlororaphis IRHB3 in the reduction of Fusarium root rot and promotion of soybean growth

Authors: Wei, Dengqin, Zhu, Dan, Zhang, Yunfeng, Yang, Zheng, Wu, Xiaoling, Shang, Jing, Yang, Wenyu, Chang, Xiaoli

Source: In Biological Control November 2023 186

Changes in the Density and Composition of Rhizosphere Pathogenic Fusarium and Beneficial Trichoderma Contributing to Reduced Root Rot of Intercropped Soybean.

Authors: Xu, Huiting, Yan, Li, Zhang, Mingdi, Chang, Xiaoli, Zhu, Dan, Wei, Dengqin, Naeem, Muhammd, Song, Chun, Wu, Xiaoling, Liu, Taiguo, Chen, Wanquan, Yang, Wenyu

Source: Pathogens; Apr2022, Vol. 11 Issue 4, pN.PAG-N.PAG, 16p

Subject Terms: ROOT rots, RHIZOSPHERE, TRICHODERMA, FUSARIUM, MONOCULTURE agriculture, INTERCROPPING