Project description:Exoproteomes generated from Synechococcus sp. WH7803 and Prochlorococcus sp. MIT9313 cultures grown under different nutrient, light and temperature conditions. The aim was to see how the production of the pili were affected. Exoproteomes of marine Synechococcus under different nutrient limitations analysed by LC-MS/MS
Project description:Exoproteomes generated from Synechococcus sp. WH7803 and Prochlorococcus sp. MIT9313 cultures grown under different nutrient, light and temperature conditions. The aim was to see how the production of the pili were affected. Exoproteomes of marine Synechococcus under different nutrient regimes analysed by LC-MS/MS
Project description:Exoproteomes generated from Synechococcus sp. WH7803 and Prochlorococcus sp. MIT9313 cultures grown under different nutrient, light and temperature conditions. The aim was to see how the production of the pili were affected. Exoproteomes of marine Synechococcus under different light regimes analysed by LC-MS/MS
Project description:Exoproteomes generated from Synechococcus sp. WH7803 and Prochlorococcus sp. MIT9313 cultures grown under different nutrient, light and temperature conditions. The aim was to see how the production of the pili were affected. Exoproteomes of marine Prochlorococcus under different growth regimes analysed by LC-MS/MS
Project description:Cell- and extracellular proteomes obtained from Prochlorococcus sp. MED4 cultures exposed to nTiO2 were analysed to investigate any molecular features of toxicity.
Project description:Phosphorus is a critical nutrient controlling phytoplankton growth. Availability of this limiting factor can vary significantly in space and time, particularly in dynamic aquatic ecosystems. Diatoms are important eukaryotic phytoplankton that thrive in regions of pulsed phosphate supply, yet little is known of the sensory mechanisms enabling them to detect and rapidly respond to phosphorus availability. Here we show that phosphorus-starved diatoms utilise a novel Ca2+-dependent signalling pathway to sense and regulate cellular recovery following phosphorus resupply. This pathway, which has not previously been described in eukaryotes, is sensitive to sub-micromolar concentrations of phosphate, alongside a range of environmentally relevant phosphorus forms. Using comparative proteomics, we have characterised early adaptations governing diatom cellular recovery from phosphorus limitation. Strikingly, the dominant response was substantial enhancement of nitrogen assimilation proteins. This led to 12-fold increases in absolute nitrate uptake rates, relative to phosphorus-starved cells. Moreover, we find that the novel phosphorus-Ca2+ signalling pathway controls this primary recovery response. Our findings highlight that fundamental cross-talk between the essential nutrients phosphorus and nitrogen drive diatom recovery from phosphorus limitation. Moreover, a novel Ca2+-dependent phosphorus signalling pathway governs such ecological acclimation responses, and is thus likely critical to the success of diatoms in regions of episodic nutrient supply.
Project description:To investigate initial changes to chromatin accessibility associated with resistance to lapatinib, we performed ATAC-seq on WTSI-OESO_009 cells treated with 1000 nM lapatinib for 24 hours and vehicle control (DMSO) for 24 hours.
Project description:To investigate initial changes to chromatin accessibility associated with resistance to lapatinib, we performed ATAC-seq on KYAE1 cells treated with 500 nM lapatinib for 24 hours and vehicle control (DMSO) for 24 hours.
Project description:To investigate initial changes to chromatin accessibility associated with resistance to lapatinib, we performed ATAC-seq on NCI-N87 cells treated with 250nM lapatinib for 24 hours and vehicle control (DMSO) for 24 hours.
Project description:To investigate changes to chromatin accessibility associated with resistance to lapatinib, we performed ATAC-seq on OE19 cells treated with 500 nM lapatinib for 1, 7 and 35 days and vehicle control (DMSO) for 1 day.