Samuel J. Martins

This study investigates microbial succession in casing layers of white button mushrooms and links it to bacterial blotch disease, showing community restructuring and functional shifts rather than a single pathogen cause.

This study shows that seed microbiome transfer can restore disease resistance and microbiome function in tomato progeny affected by parental antibiotic-induced dysbiosis.

This study shows how antibiotics and copper alter compartment-specific microbiomes in tomato plants, increasing susceptibility to disease by disrupting microbial functions and community structure.

This study evaluates whether targeted probiotic cyanobacteria or microbiome transplants can mitigate antibiotic-induced rhizosphere dysbiosis and improve plant resilience.

This study identifies a multispecies bacterial complex causing bacterial blotch in white button mushrooms, revealing Pseudomonas azotoformans as a prevalent and previously unassociated pathogen.

This study examines how a synthetic microbial community interacts with native soil microbes, identifying persistent bacterial strains that could improve SynCom stability in agricultural applications.

This study evaluates how collagen and chitin soil amendments affect soil microbial communities and reduce Meloidogyne enterolobii infection in tomato plants under different inoculum pressures.

This study examines how rhizosphere dysbiosis affects above-ground plant health in tomato plants by comparing antibiotic-treated and microbiome-transplanted plants infected with Xanthomonas perforans.