Study / S6F0F7VI72023-03-15

Machine learning dissection of human accelerated regions in primate neurodevelopment

Sean Whalen, Fumitaka Inoue, Hane Ryu, Tyler Fair, Eirene Markenscoff-Papadimitriou et al.

About this study

Using machine learning (ML), we interrogated the function of all human-chimpanzee variants in 2,645 Human Accelerated Regions (HARs), finding 43% of HARs have variants with large opposing effects on chromatin state and 14% on neurodevelopmental enhancer activity. This pattern, consistent with compensatory evolution, was confirmed using massively parallel reporter assays in chimpanzee and human neural progenitor cells. The species-specific enhancer activity of HARs was accurately predicted from the presence and absence of transcription factor footprints in each species. Despite these striking cis effects, activity of a given HAR sequence was nearly identical in human and chimpanzee cells. This suggests that HARs did not evolve to compensate for changes in the trans environment but instead altered their ability to bind factors present in both species. Thus, ML prioritized variants with functional effects on human neurodevelopment and revealed an unexpected reason why HARs may have evolved so rapidly.

Full author list & citation

Sean Whalen, Fumitaka Inoue, Hane Ryu, Tyler Fair, Eirene Markenscoff-Papadimitriou, Kathleen Keough, Martin Kircher, Beth Martin, Beatriz Alvarado, Orry Elor, Dianne Laboy Cintron, Alex Williams, Md. Abul Hassan Samee, Sean Thomas, Robert Krencik, Erik M. Ullian, Arnold Kriegstein, John L. Rubenstein, Jay Shendure, Alex A. Pollen, Nadav Ahituv, Katherine S. Pollard. Machine learning dissection of human accelerated regions in primate neurodevelopment. 2023-03-15. https://doi.org/10.1016/j.neuron.2022.12.026

Experiments 2

E0ZAOM652

Main HAR lentiMPRA library in human and chimpanzee neural progenitor cells

A lentivirus-integrated MPRA tested 171-bp human and chimpanzee orthologous sequences from 714 HARs together with positive and negative controls. The library was measured in human WTC and HS1-11 and chimpanzee Pt2A iPSC-derived neural cells at N2 and N3 stages; the deposited Pt5C runs are retained in raw_data but excluded from this QC-passed table.

Integrated lentiMPRANot reportedhg19
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E55X60OOK

Permutation HAR lentiMPRA library

A separate lentiMPRA library tested designed evolutionary intermediates between chimpanzee and human HAR alleles, together with the deposited controls. The available count files cover human WTC and chimpanzee Pt2A iPSC-derived neural cells at N2 and N3 stages, with three technical replicates per condition.

Integrated lentiMPRANot reportedhg19
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Raw source data 80 files

Original supplemental and deposited inputs retained for this study. Download files individually or together as a ZIP; nested folders are preserved. Source reuse terms apply, and sequencing reads may be omitted.

Download all 80 files (ZIP)GSE110758_family.soft.gzGSE110758_human/GSM3016026_human-WTc-N2-1-RNA.tsv.gzGSE110758_human/GSM3016027_human-WTc-N2-2-RNA.tsv.gzGSE110758_human/GSM3016028_human-WTc-N2-3-RNA.tsv.gzGSE110758_human/GSM3016029_human-WTc-N2-permut-1-RNA.tsv.gzGSE110758_human/GSM3016030_human-WTc-N2-permut-2-RNA.tsv.gzGSE110758_human/GSM3016031_human-WTc-N2-permut-3-RNA.tsv.gzGSE110758_human/GSM3016032_human-HS1-11-N2-1-RNA.tsv.gzGSE110758_human/GSM3016033_human-HS1-11-N2-2-RNA.tsv.gzGSE110758_human/GSM3016034_human-HS1-11-N2-3-RNA.tsv.gzGSE110758_human/GSM3016035_human-WTc-N3-1-RNA.tsv.gzGSE110758_human/GSM3016036_human-WTc-N3-2-RNA.tsv.gzGSE110758_human/GSM3016037_human-WTc-N3-3-RNA.tsv.gzGSE110758_human/GSM3016038_human-WTc-N3-permut-1-RNA.tsv.gzGSE110758_human/GSM3016039_human-WTc-N3-permut-2-RNA.tsv.gzGSE110758_human/GSM3016040_human-WTc-N3-permut-3-RNA.tsv.gzGSE110758_human/GSM3016041_human-HS1-11-N3-1-RNA.tsv.gzGSE110758_human/GSM3016042_human-HS1-11-N3-2-RNA.tsv.gzGSE110758_human/GSM3016043_human-HS1-11-N3-3-RNA.tsv.gzGSE110758_human/GSM3016044_human-WTc-N2-1-DNA.tsv.gzGSE110758_human/GSM3016045_human-WTc-N2-2-DNA.tsv.gzGSE110758_human/GSM3016046_human-WTc-N2-3-DNA.tsv.gzGSE110758_human/GSM3016047_human-WTc-N2-permut-1-DNA.tsv.gzGSE110758_human/GSM3016048_human-WTc-N2-permut-2-DNA.tsv.gzGSE110758_human/GSM3016049_human-WTc-N2-permut-3-DNA.tsv.gzGSE110758_human/GSM3016050_human-HS1-11-N2-1-DNA.tsv.gzGSE110758_human/GSM3016051_human-HS1-11-N2-2-DNA.tsv.gzGSE110758_human/GSM3016052_human-HS1-11-N2-3-DNA.tsv.gzGSE110758_human/GSM3016053_human-WTc-N3-1-DNA.tsv.gzGSE110758_human/GSM3016054_human-WTc-N3-2-DNA.tsv.gzGSE110758_human/GSM3016055_human-WTc-N3-3-DNA.tsv.gzGSE110758_human/GSM3016056_human-WTc-N3-permut-1-DNA.tsv.gzGSE110758_human/GSM3016057_human-WTc-N3-permut-2-DNA.tsv.gzGSE110758_human/GSM3016058_human-WTc-N3-permut-3-DNA.tsv.gzGSE110758_human/GSM3016059_human-HS1-11-N3-1-DNA.tsv.gzGSE110758_human/GSM3016060_human-HS1-11-N3-2-DNA.tsv.gzGSE110758_human/GSM3016061_human-HS1-11-N3-3-DNA.tsv.gzGSE110759_chimpanzee/GSM3016062_chimpanzee-Pt2A-N2-1-RNA.tsv.gzGSE110759_chimpanzee/GSM3016063_chimpanzee-Pt2A-N2-2-RNA.tsv.gzGSE110759_chimpanzee/GSM3016064_chimpanzee-Pt2A-N2-3-RNA.tsv.gzGSE110759_chimpanzee/GSM3016065_chimpanzee-Pt2A-N2-permut-1-RNA.tsv.gzGSE110759_chimpanzee/GSM3016066_chimpanzee-Pt2A-N2-permut-2-RNA.tsv.gzGSE110759_chimpanzee/GSM3016067_chimpanzee-Pt2A-N2-permut-3-RNA.tsv.gzGSE110759_chimpanzee/GSM3016068_chimpanzee-Pt5C-N2-1-RNA.tsv.gzGSE110759_chimpanzee/GSM3016069_chimpanzee-Pt5C-N2-2-RNA.tsv.gzGSE110759_chimpanzee/GSM3016070_chimpanzee-Pt5C-N2-3-RNA.tsv.gzGSE110759_chimpanzee/GSM3016071_chimpanzee-Pt2A-N3-1-RNA.tsv.gzGSE110759_chimpanzee/GSM3016072_chimpanzee-Pt2A-N3-2-RNA.tsv.gzGSE110759_chimpanzee/GSM3016073_chimpanzee-Pt2A-N3-3-RNA.tsv.gzGSE110759_chimpanzee/GSM3016074_chimpanzee-Pt2A-N3-permut-1-RNA.tsv.gzGSE110759_chimpanzee/GSM3016075_chimpanzee-Pt2A-N3-permut-2-RNA.tsv.gzGSE110759_chimpanzee/GSM3016076_chimpanzee-Pt2A-N3-permut-3-RNA.tsv.gzGSE110759_chimpanzee/GSM3016077_chimpanzee-Pt5C-N3-1-RNA.tsv.gzGSE110759_chimpanzee/GSM3016078_chimpanzee-Pt5C-N3-2-RNA.tsv.gzGSE110759_chimpanzee/GSM3016079_chimpanzee-Pt5C-N3-3-RNA.tsv.gzGSE110759_chimpanzee/GSM3016080_chimpanzee-Pt2A-N2-1-DNA.tsv.gzGSE110759_chimpanzee/GSM3016081_chimpanzee-Pt2A-N2-2-DNA.tsv.gzGSE110759_chimpanzee/GSM3016082_chimpanzee-Pt2A-N2-3-DNA.tsv.gzGSE110759_chimpanzee/GSM3016083_chimpanzee-Pt2A-N2-permut-1-DNA.tsv.gzGSE110759_chimpanzee/GSM3016084_chimpanzee-Pt2A-N2-permut-2-DNA.tsv.gzGSE110759_chimpanzee/GSM3016085_chimpanzee-Pt2A-N2-permut-3-DNA.tsv.gzGSE110759_chimpanzee/GSM3016086_chimpanzee-Pt5C-N2-1-DNA.tsv.gzGSE110759_chimpanzee/GSM3016087_chimpanzee-Pt5C-N2-2-DNA.tsv.gzGSE110759_chimpanzee/GSM3016088_chimpanzee-Pt5C-N2-3-DNA.tsv.gzGSE110759_chimpanzee/GSM3016089_chimpanzee-Pt2A-N3-1-DNA.tsv.gzGSE110759_chimpanzee/GSM3016090_chimpanzee-Pt2A-N3-2-DNA.tsv.gzGSE110759_chimpanzee/GSM3016091_chimpanzee-Pt2A-N3-3-DNA.tsv.gzGSE110759_chimpanzee/GSM3016092_chimpanzee-Pt2A-N3-permut-1-DNA.tsv.gzGSE110759_chimpanzee/GSM3016093_chimpanzee-Pt2A-N3-permut-2-DNA.tsv.gzGSE110759_chimpanzee/GSM3016094_chimpanzee-Pt2A-N3-permut-3-DNA.tsv.gzGSE110759_chimpanzee/GSM3016095_chimpanzee-Pt5C-N3-1-DNA.tsv.gzGSE110759_chimpanzee/GSM3016096_chimpanzee-Pt5C-N3-2-DNA.tsv.gzGSE110759_chimpanzee/GSM3016097_chimpanzee-Pt5C-N3-3-DNA.tsv.gzGSE110759_chimpanzee-HARctl_design.tsv.gzGSE110759_chimpanzee-Pt2A-N2-pooled-K27ac.narrowPeak.gzGSE110759_chimpanzee-Pt2A-N3-pooled-K27ac.narrowPeak.gzGSE110759_family.soft.gzGSE110760_family.soft.gzREADME.txtsource_manifest.tsv

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