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).
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Accelerated evolution of the ASPM gene controlling brain size begins prior to human brain expansion.
PMID 15045028 · PMC374243 · PLoS biology · 2004 · 8 claims · 6 setups
The ASPM gene shows accelerated (positively selected) evolution in the African hominoid clade, and this acceleration precedes hominid brain expansion by several million years.
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Comparative analysis of cancer genes in the human and chimpanzee genomes.
PMID 16438707 · PMC1382208 · BMC genomics · 2006 · 7 claims · 6 setups
All 333 examined human cancer genes have intact, highly conserved orthologs in the chimpanzee genome (99.38% protein identity).
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Ancient adaptive evolution of the primate antiviral DNA-editing enzyme APOBEC3G.
PMID 15269786 · PMC479043 · PLoS biology · 2004 · 7 claims · 6 setups
APOBEC3G has been under strong, recurrent positive selection throughout primate evolution (~33 million years)
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Phylogenomic approaches to common problems encountered in the analysis of low copy repeats: the sulfotransferase 1A gene family example.
PMID 15752422 · PMC555591 · BMC evolutionary biology · 2005 · 8 claims · 8 setups
A previously unidentified fourth human SULT1A gene (SULT1A4) exists on chromosome 16 and is transcriptionally active
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Increased constraints on MC4R during primate and human evolution.
PMID 19011902 · PMC9947067 · Human genetics · 2009 · 6 claims · 7 setups
There is a significant paucity of genetic diversity at MC4R in humans but not in chimpanzees.
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Comparative genomics search for losses of long-established genes on the human lineage.
PMID 18085818 · PMC2134963 · PLoS computational biology · 2007 · 8 claims · 6 setups
A novel comparative genomics method (TransMap-based syntenic mapping of gene structures between human, mouse, and dog) can detect losses of well-established single-copy genes without relying on sequence homology to a parental gene, distinguishing them from typical duplication- or retrotransposition-derived pseudogenes.