Sumudu S Karunadasa

This study maps protein-protein interactions in Arabidopsis using cross-linking mass spectrometry, identifying thousands of interactions across subcellular compartments and structural complexes.

This paper demonstrates the use of non-canonical amino acids to enable plant-directed control of bacterial activity in soil.

This study provides large-scale proteomic evidence that alternative splicing isoforms are translated in plants, showing their impact on protein abundance and plant growth.

This paper identifies FoTO1 as a dual-function enzyme that enhances Taxol biosynthesis through catalytic conversion and non-catalytic organization of P450s in plants.

The paper uses proteomic analysis to identify substrate proteins regulated by O-fucosylation and O-GlcNAcylation in Arabidopsis, revealing their roles in protein homeostasis and stress responses.

The paper maps the Arabidopsis alternative splicing machinery and identifies O-glycosylation regulators affecting splicing through ACINUS-dependent and -independent pathways.

The paper identifies 436 O-GlcNAcylated proteins in Arabidopsis, revealing their involvement in diverse cellular processes and crosstalk with O-fucosylation.