Experiments

Searchable full-text extractions: founding hypothesis, core claims, experimental setups, key results and statistics — pulled out of each paper as structure. Search a cell line, an assay or an entity (e.g. HUH7) and find every paper that worked with it. This corpus stands on its own: most entries carry no reproduction assessment (yet).

• InSite: a computational method for identifying protein-protein interaction binding sites on a proteome-wide scale.

  PMID 17868464 · PMC2375030 · Genome biology · 2007 · 8 claims · 8 setups

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  InSite predicts protein-pair-specific binding motifs ('Motif M on protein A binds to protein B') by integrating heterogeneous PPI and motif-motif interaction evidence within a Bayesian network trained by EM

  saccharomyces homo bank computational yeast tandem

• From linear genome sequence to three-dimensional organization of the cell nucleus.

  PMID 12620101 · PMC153456 · Genome biology · 2003 · 8 claims · 8 setups

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  Chromosome conformation capture (3C) can quantify in vivo physical interaction frequencies between genomic loci by crosslinking, digestion, and intramolecular ligation followed by PCR

  saccharomyces mitotic nucleoplasm hela chromosome translocation stretched

• Exploration of the omics evidence landscape: adding qualitative labels to predicted protein-protein interactions.

  PMID 17880677 · PMC2375035 · Genome biology · 2007 · 7 claims · 8 setups

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  Combining pairs of omics evidence types into two-dimensional 'evidence landscapes' allows regions to be identified that specifically and purely predict either physical or metabolic protein interactions

  saccharomyces correlated chip-chip gene

• A cell biological perspective on genome research.

  PMID 8522596 · PMC2120688 · The Journal of cell biology · 1995 · 7 claims · 7 setups

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  Genome sequencing represents a sixth stage in the historical progression of structural biology (comparative anatomy through crystallography), and will be similarly valuable once related to function.

  saccharomyces caenorhabditis selected fruit genomic saturation physical

• Broad network-based predictability of Saccharomyces cerevisiae gene loss-of-function phenotypes.

  PMID 18053250 · PMC2246260 · Genome biology · 2007 · 8 claims · 4 setups

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  Loss-of-function phenotypes in yeast are predictable from a gene's connections in a functional gene network via guilt-by-association.

  saccharomyces guilt-by-association comparison network-guided