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6014 Data files visible to you, out of a total of 8248

Primers_TiMet_AnnaFlis2013 (from BioDare)

Creator: Anna Flis

Submitter: Daniel Thedie

RNA LD to Both LL and DD (from BioDare)

Creator: Anna Flis

Submitter: Daniel Thedie

List of samples used in the assay (extracted from original BioDare metadata and converted to csv)

Creator: Anna Flis

Submitter: Daniel Thedie

Original BioDare metadata, converted to json format

Creator: Anna Flis

Submitter: Daniel Thedie

Readme file

Creator: Anna Flis

Submitter: Daniel Thedie

300915_Ham2_GA_p97_experiment (from BioDare)

Creator: Daniel Seaton

Submitter: Daniel Thedie

metamorph_output_abridged.2 (from BioDare)

Creator: Daniel Seaton

Submitter: Daniel Thedie

List of samples used in the assay (extracted from original BioDare metadata and converted to csv)

Creator: Daniel Seaton

Submitter: Daniel Thedie

No description specified

Excel file enabling computation of transformed reference chemical potentials. This is an excel file with two sheets. The first and most important of these is a computation facility calculating the transformed chemical potentials of more than 360 compounds of biochemical interest and 1200 forms thereof. This sheet uses the second sheet as the work horse of the computations. The magnitudes of various transformed reference potentials are listed in the file https://fairdomhub.org/data_files/9798, ...

Creators: Hans V. Westerhoff, Johann Rohwer, Peter J. Halling, Carsten Kettner, Yanhua Liu. HVW collected physical chemical reference potentials from the literature and developed and carried out all transformations thereto writing an excel file. YL checked the values obtained from the literature. PJH and HVW developed the CNPS gauge shifts. PJH checked the methodology used as well as the naming of the compounds. JR developed a Python program to compute the transformed reference potentials and thereby checked the values obtained by HVW. (A limited number of errors was identified and eliminated in this manner).

Submitter: Hans V. Westerhoff

DOI: 10.15490/fairdomhub.1.datafile.9800.2

12 variously transformed reference potentials for 320 compounds of biochemical interest in unit kJ/mol.

Approximately 1360 of each type of transform are listed in columns 3 - 14. The number 1360 > 320 because a chemical compound often has multiple entries. This reflects that there are multiple data sources, phases, protonation states or Mg complexation states for that compound.

Column 2 contains the familiar reference (standard at the physical chemical reference state) physical chemical ...

Creators: Hans V. Westerhoff, Peter J. Halling, Johann Rohwer, Carsten Kettner, Yanhua Liu, Yanhua Liu, HVW collected physical chemical reference potentials from the literature and developed and carried out all transformations thereto writing an excel file. YL checked the values obtained from the literature. PJH and HVW developed the CNPS gauge shifts. PJH checked the methodology used as well as the naming of the compounds. JR developed a Python program to compute the transformed reference potentials and thereby checked the values obtained by HVW. (A limited number of errors was identified and eliminated in this manner).

Submitter: Hans V. Westerhoff

DOI: 10.15490/fairdomhub.1.datafile.9798.2

No description specified

AT0068 (from BioDare)

Creator: Adrian Thomson

Submitter: Daniel Thedie

AT0039BRASS_Derandomised (from BioDare)

Creator: Adrian Thomson

Submitter: Daniel Thedie

Plt15&16-TOC-200710-Prog.1 (from BioDare)

Creator: Aurora Pinas-Fernandez

Submitter: Daniel Thedie

No description specified

Creators: None

Submitter: Taïsha Joseph-Risch

Cell-type-specific marker genes were identified from the KPMP-derived transcriptomic dataset. For each cell type, a protein-protein interaction network was generated using STRING interactions among the identified genes. Network topology was analyzed using NetworkX, and multiple centrality metrics were computed to characterize gene importance and identify potential hub genes within each cellular context.

Cell-type-specific marker genes were identified from the KPMP-derived transcriptomic dataset. For each cell type, a protein-protein interaction network was generated using STRING interactions among the identified genes. Network topology was analyzed using NetworkX, and multiple centrality metrics were computed to characterize gene importance and identify potential hub genes within each cellular context.

Cell-type-specific marker genes were identified from the KPMP-derived transcriptomic dataset. For each cell type, a protein-protein interaction network was generated using STRING interactions among the identified genes. Network topology was analyzed using NetworkX, and multiple centrality metrics were computed to characterize gene importance and identify potential hub genes within each cellular context.

Cell-type-specific marker genes were identified from the KPMP-derived transcriptomic dataset. For each cell type, a protein-protein interaction network was generated using STRING interactions among the identified genes. Network topology was analyzed using NetworkX, and multiple centrality metrics were computed to characterize gene importance and identify potential hub genes within each cellular context.

Cell-type-specific marker genes were identified from the KPMP-derived transcriptomic dataset. For each cell type, a protein-protein interaction network was generated using STRING interactions among the identified genes. Network topology was analyzed using NetworkX, and multiple centrality metrics were computed to characterize gene importance and identify potential hub genes within each cellular context.

Cell-type-specific marker genes were identified from the KPMP-derived transcriptomic dataset. For each cell type, a protein-protein interaction network was generated using STRING interactions among the identified genes. Network topology was analyzed using NetworkX, and multiple centrality metrics were computed to characterize gene importance and identify potential hub genes within each cellular context.

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