TL;DR
Results provide novel insights into the molecular mechanisms underlying microbial interactions in the tomato rhizosphere and highlight the potential of P. chlororaphis ToZa7 for effective biological control of FORL.
Investigation of the biocontrol mechanisms of Bacillus velezensis L33a against V. dahliae JR2 in tomato suggests that L33a is a promising biocontrol strain for green management of tomato Verticillium wilt.
Findings indicate that the endophytic strain B. amyloliquefaciens ZN-S18 is a promising biocontrol agent against tomato Fusarium wilt, primarily through the synergistic action of surfactin and iturin A.
It is reported that the methyltransferase FpLaeA is a global regulator essential for F. proliferatum pathogenicity and a target for integrated control of F. proliferatum and its associated mycotoxin risk.
These results demonstrate that T. viride TVa199 suppresses F. cucumerinum via a multi-target mechanism involving direct microbial antagonism, disruption of fungal cellular integrity, and metabolite-mediated interference with virulence-associated proteins.
This work greatly enriches the gene annotation resources of C. formosanus but also provides a new perspective for understanding the fungal immune defense mechanisms of social insects at the molecular level, providing a theoretical basis for the development of new immunosuppressive agents.
The potential of P1 as a promising bioinoculant candidate for sustainable agriculture in the potato sector is demonstrated and the genome lacked major virulence factors and antimicrobial traits, supporting the non-pathogenic nature of the P1 strain.
We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.
