Timothy James Tschaplinski

This study examines switchgrass root cell wall composition and anatomy across depth, finding depth-related variations that could inform strategies for improving root traits.

This study identifies key genetic loci associated with stomatal and leaf traits in Populus trichocarpa that contribute to climate adaptation, showing smaller stomata in genotypes from arid regions.

The paper uses long-read sequencing to analyze telomere-to-telomere assemblies in Populus trichocarpa, revealing complex KCS gene variation and its association with helitron transposons.

This study shows that altering ethylene levels in poplars affects their metabolome and microbial communities in a microbial-dependent manner.

The paper transfers a catabolic pathway for salicyl alcohol in Pseudomonas soil isolates, showing it enables rapid catabolism but does not confer a fitness advantage in rhizosphere competition.

This study identifies genetic loci modulating ionomic composition in Populus trichocarpa leaves using GWAS and multi-platform ionome profiling.

This study tracks how microbial colonization alters root exudates and plant metabolomes in poplar cuttings over 30 days, revealing distinct metabolic responses in roots and shoots.

The paper describes a field experiment with over 1,000 poplar genotypes under drought to study genetic variation for sustainable biofuel crops.

This paper develops a high-yielding cell-free gene expression system from Clostridium autoethanogenum to enable in vitro prototyping of genetic parts and metabolic pathways.

The paper integrates genomic, metabolomic, and network data to identify target genes involved in lignin biosynthesis/degradation in Populus trichocarpa.