Thanavit Jirapanjawat

This study shows that bacterial fermentation, not respiration, dominates in upland soils during hypoxia, challenging the assumption that respiration is the primary metabolic strategy.

This study integrates surveillance methods to profile AMR genotypes and phenotypes across diverse environmental and clinical samples, revealing high diversity and mismatches between genotype and phenotype.

The paper identifies genes and mechanisms enabling pathogen persistence in freshwater ecosystems using paired in situ and molecular analyses of Escherichia, Klebsiella, and Enterococcus.

This study shows that Antarctic soil bacteria can consume trace gases like H2 and CO across wide temperature ranges, with potential increases in activity under future climate scenarios.

The paper investigates chemosynthesis in a marine cave ecosystem, finding that interior communities rely on chemosynthetic processes for carbon fixation and diversity, contrasting with entrance areas.

This study identifies aridity as the primary driver of microbial community structure and biogeochemical activities in deserts across seven continents.

This study investigates microbial colonization in glacial forelands, finding that metabolically flexible bacteria drive early succession and create hospitable conditions for later colonizers.

This study identifies aerotrophy as a primary energy source in caves, revealing microbial use of atmospheric trace gases for continuous primary production.

The paper identifies microbial communities in wetland tree barks that mediate methane and hydrogen cycling, showing they can both mitigate and emit climate-active gases.