Mary S. Weir Lipton

This study shows a soil fungus alters its metabolism to dissolve lithium ore, releasing soluble lithium, and suggests similar strategies may occur in natural microbial communities.

This study investigates how circadian rhythms affect macrophage responses to SARS-CoV-2 spike proteins, finding that timing of exposure leads to distinct immunometabolic states.

The paper develops a computationally efficient, library-free DIA workflow for metaproteomics, improving throughput and reducing reliance on spectral libraries.

The paper introduces a 'mono-mix' strategy to improve proteomic analysis of cross-kingdom microbial symbiosis by addressing detection biases in coculture.

The paper uses activity-targeted metaproteomics to study rare syntrophic bacteria in anaerobic communities, revealing their metabolic activity and a previously hypothesized oxidative glycine pathway.

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.

This study shows Chlamydomonas reinhardtii can rapidly reprogram its photoprotective strategies in response to changes in diurnal light intensity, with LL-acclimated cells recovering faster than HL-acclimated cells.

The paper shows Fe starvation in green algae leads to a second LHCI tetramer associated with PSI, similar to cyanobacteria's isiA antenna ring.

The paper analyzes how Chlamydomonas adapts its gene expression and proteomic profiles to different light conditions, revealing constitutive phenotypes that persist through the night.

The paper curates a database of gut microbial genes linked to trimethylamine-induced cardiovascular disease and validates its predictive power using fecal metatranscriptome and metaproteome data.

This study uses lipidomics to analyze leaf-cutter ant fungal gardens, showing lipids play roles in energy transfer and inter-kingdom communication through differential fatty acid responses.

The paper investigates substrate-specific phosphorylation events in Neurospora crassa during early plant cell wall recognition using phospho-proteomics and identifies key signaling pathways and proteins involved.