Suzanne M. Kosina

This study examines how two transgenic sorghum lines with different bioenergy traits affect their rhizosphere microbiome composition and function.

The paper describes engineered algal lipids that mimic the fatty acid profile and regioisomeric structure of human milk fat for infant formula.

This study shows dopamine affects rhizosphere microbial community composition by influencing bacterial growth and abundance in Brachypodium distachyon root exudates.

The paper shows that signaling metabolites from Microcoleus vaginatus repel soil bacteria and promote mutualistic partners under nutrient limitation.

The paper introduces a Bayesian Personalized Ranking model to predict microbial substrate preferences and develops an agent that integrates this model with a growth model and LLM for autonomous microbial analysis.

This study identifies glutamate and branched-chain amino acid metabolism as key factors in acid tolerance of a denitrifying bacterium from acidic groundwater.

This study shows that transgenic rice genotypes overexpressing PSY genes reduce methane emissions by altering rhizosphere microbial hydrogen cycling through changes in gene activity and metabolic pathways.

The paper identifies dopamine biosynthesis pathway in plants using metabolite-based genome-wide association studies and demonstrates its role in tissue browning and stress tolerance.

The paper identifies substrate-dependent genes for bacterial plant colonization in Paraburkholderia graminis and shows substrate influences on colonization fitness across multiple bacterial strains.

This study shows that TOR inhibition in algae increases amino acid levels through transcriptional activation of biosynthesis pathways and identifies a conserved transcription factor involved in nitrogen metabolism.

The paper establishes reproducible methods for plant-microbiome research using fabricated ecosystems across multiple laboratories.

This study shows that modifying lignin composition in Brachypodium distachyon changes root exudates and microbiome composition, affecting microbial colonization and community structure.

This study investigates how plant-bacteria-phage interactions affect nitrogen acquisition and exometabolite composition by comparing phage-lysed and uninfected bacterial necromass.

The paper updates GapMind to include novel enzymes for amino acid biosynthesis, reducing pathway gaps in prokaryotes from 1.4 to 0.7 per genome.