Similar Datasets
Project description:The objective was to identify functional genes encoded by Fungi and fungal-like organisms to assess putative ecological roles Using the GeoChip microarray, we detected fungal genes involved in the complete assimilation of nitrate and the degradation of lignin, as well as evidence for Partitiviridae (a mycovirus) that likely regulates fungal populations in the marine environment. These results demonstrate the potential for fungi to degrade terrigenously-sourced molecules, such as permafrost and compete with algae for nitrate during blooms. Ultimately, these data suggest that marine fungi could be as important in oceanic ecosystems as they are in freshwater environments.
2020-07-14 | GSE117831 | GEO
Project description:Metabolomics and native Metabolomics analyses of extracts from marine fungi and Galpha i proteins.
2022-12-22 | MSV000090957 | MassIVE
Project description:Extracts of polyurethane-degrading marine fungi after a 28-day cultivation period in polyurethane media (polyurethane as the sole carbon source).
2025-11-18 | MSV000099940 | MassIVE
Project description:Temperature profoundly influences the physiology, survival, and distribution of marine ectotherms, including mollusks. Transient receptor potential (TRP) channels are conserved thermosensory proteins in metazoans, yet their evolutionary diversification and functional roles in gastropod mollusks remain unclear. In this study, we present a comprehensive phylogenetic classification and expression analysis of TRP-like channel genes in Pacific abalone (Haliotis discus hannai). Through the extensive mining of genome and transcriptome datasets, we identified 49 TRP-like genes and categorized them into nine families from two major groups: Group 1 (TRPA, TRPC, TRPM, TRPN, TRPS, TRPV, and TRPVL) and Group 2 (TRPP and TRPML), along with two unclassified TRP-like genes. Phylogenetic analysis incorporating sequences from lophotrochozoans, choanoflagellates, fungi, and green algae outlined a lineage-specific TRP-like gene expansion in mollusks. Spatial expression profiling revealed distinct tissue-specific patterns: TRPC-, TRPM-, and TRPP-like genes were enriched in sensory organs (i.e., the eyes and tentacles), whereas TRPM- and TRPV-like genes were expressed predominantly in respiratory and metabolic tissues (i.e., the gills and hepatopancreas). Under acute thermal stress, RNA sequencing and real-time quantitative PCR identified several thermoresponsive TRP paralogs, including TRPA1- and TRPV-like genes, exhibiting distinct transcriptional regulation. These results elucidate the evolutionary complexity and functional diversification of TRP channels in marine gastropods, and highlight the potential role of these molecules in thermal sensing and adaptation. This study provides a molecular framework for understanding TRP-mediated environmental responses in mollusks, contributing to broader insights into marine invertebrate resilience under climate change.
2026-03-18 | GSE305557 | GEO