Project description:Single H358 cells analyzed using SCOPE2 on a TIMSTOF Flex mass spectrometer. Bruker .d folders, MGFs, Proteome Discoverer 2.5 and MaxQuant 1.6.17 results are uploaded.
Project description:Bruker .d files in support of a multiomics analysis of the KRASG12D inhibitor MRTX1133. Files are broken into multiple repositories because uploading 3,000 single cell proteomes plus the bulk proteomics and the metabolomics and the metabolism stuff is really painful. This is the multiplexed (SCOPE2 on a TIMSTOF Flex) .d files for approximately 2,000 single human cells. Metadata will be provided in Orsburn, 2023
Project description:Bruker .d files in support of a multiomics analysis of the KRASG12D inhibitor MRTX1133. Files are broken into multiple repositories because uploading 3,000 single cell proteomes plus the bulk proteomics and the metabolomics and the metabolism stuff is really painful. This is the multiplexed (SCOPE2 on a TIMSTOF Flex) .d files for approximately 2,000 single human cells. Metadata will be provided in Orsburn, 2023
Project description:The fate and physiology of individual cells are controlled by protein interactions. Yet, our ability to quantitatively analyze proteins in single cells has remained limited. To overcome this barrier, we developed SCoPE2. It lowers cost and hands-on time by introducing automated and miniaturized sample preparation while substantially increasing quantitative accuracy. These advances enabled us to analyze the emergence of cellular heterogeneity as homogeneous monocytes differentiated into macrophage-like cells in the absence of polarizing cytokines. SCoPE2 quantified over 2,700 proteins in 1,018 single monocytes and macrophages in ten days of instrument time, and the quantified proteins allowed us to discern single cells by cell type. Furthermore, the data uncovered a continuous gradient of proteome states for the macrophage-like cells, suggesting that macrophage heterogeneity may emerge even in the absence of polarizing cytokines. Parallel measurements of transcripts by 10x Genomics scRNA-seq suggest that SCoPE2 samples 20-fold more copies per gene, thus supporting quantification with improved count statistics. Joint analysis of the data indicated that most genes had similar responses at the protein and RNA levels, though the responses of hundreds of genes differed. Our methodology lays the foundation for automated and quantitative single-cell analysis of proteins by mass-spectrometry.
Project description:Ethanolic extracts of piper plants (leafs, fruits) were dissolved in H2O/ACN (75/25) and analysed on a timsTOF fleX mass spectrometer.
Project description:Ethanolic extracts of piper plants (leafs, fruits) were dissolved in H2O/ACN (75/25) and analysed on a timsTOF fleX mass spectrometer.
Project description:This repository is an amalgamation of different single cells analyzed using label free approaches (both DDA/PASEF and DIAPASEF) on a TIMSTOF SCP system. Cells analyzed including multiple immoratalized cancer cell lines and primary human hepatocytes isolated from a single donor
Project description:Single-cell proteomics data of dermal sheath cells (DSCs) during wound healing, generated using SCoPE2-MS, highlighting dynamic protein expression and functional changes across different healing stages.
Project description:KRAS-mutant pancreatic ductal adenocarcinoma (PDAC) is highly immunosuppressive and resistant to targeted therapies, immune checkpoint blockade and engineered T cells. In this study, we performed a systematic high throughput combinatorial drug screen and identified a synergistic interaction between the MEK inhibitor trametinib and the multi- kinase inhibitor nintedanib. Using single cell RNA sequencing and immunophenotyping, we show that the combination therapy reprograms the immunosuppressive microenvironment and primes cytotoxic and memory T cells to infiltrate the tumors, thereby sensitizing mesenchymal PDAC to PD-L1 inhibition.
Project description:The fate and physiology of individual cells are controlled by proteins. Yet, our ability to quantitatively analyze proteins in single cells has remained limited. To overcome this barrier, we developed SCoPE2. It substantially increases quantitative accuracy and throughput while lowering cost and hands-on time by introducing automated and miniaturized sample preparation. These advances enabled us to analyze the emergence of cellular heterogeneity as homogeneous monocytes differentiated into macrophage-like cells in the absence of polarizing cytokines. SCoPE2 quantified over 3,042 proteins in 1,490 single monocytes and macrophages in ten days of instrument time, and the quantified proteins allowed us to discern single cells by cell type. Furthermore, the data uncovered a continuous gradient of proteome states for the macrophage-like cells, suggesting that macrophage heterogeneity may emerge even in the absence of polarizing cytokines. Parallel measurements of transcripts by 10x Genomics scRNA-seq suggest that our measurements sampled 20-fold more protein copies than RNA copies per gene, and thus SCoPE2 supports quantification with improved count statistics. Joint analysis of the data illustrates how variability across single cells can reveal transcriptional and post-transcriptional gene regulation. Our methodology lays the foundation for automated and quantitative single-cell analysis of proteins by mass-spectrometry.