Published in Nature Genetics
A new method for inferring genealogical histories from large-scale genetic data is used to characterize population structure using data from the 1000 Genomes Project, the UK Biobank and the Simons Genome Diversity Project.
Published in Nature Genetics
Inferring adaptation, migration and population history would be profoundly easier if we could use the genomes that we sequence to infer the true genealogical history of each locus. Two new papers bring us close to achieving this goal.
Published in Nature Genetics
A new technique called NET-CAGE identifies 5′ ends of nascent RNAs with high sensitivity, including enhancer-derived RNAs. This approach shows that enhancer–promoter pairs are generally activated simultaneously.
We report the first annotated chromosome-level reference genome assembly for pea, Gregor Mendel’s original genetic model. Phylogenetics and paleogenomics show genomic rearrangements across legumes and suggest a major role for repetitive elements in pea genome evolution. Compared to other sequenced Leguminosae genomes, the pea genome shows intense g...
Published in Nature Genetics
Transcriptional profiling of 61,052 cells undergoing epithelial-to-mesenchymal transition (EMT) shows continuous waves of gene regulation, not discrete stages. A CRISPR screen orders EMT regulators along EMT progression.
Published in Nature Genetics
Relate is a new method for evolutionary analysis of large genetic datasets that can estimate branch lengths, mutational ages and variable historical population sizes.
Published in Nature Genetics
An approach to estimate the contribution of all alleles to phenotypic variation is applied to transcription regulation using whole-genome sequencing and transcriptome data. Ultrarare variants contribute approximately 46% of cis heritability across genes.
Published in Nature Genetics
Systematic analyses of large-scale genome-wide association data provide an overview of pleiotropy and genetic architecture for hundreds of human complex traits and diseases.
Published in Nature Genetics
Far from being junk DNA, the pervasive retrotransposons that populate the genome have a powerful capacity to influence genes and chromatin. A new study demonstrates how the transcription of one such element, HERV-H, can modify the higher-order 3D structure of chromatin during early primate development.
Published in Nature Genetics
Genetic deletion or transcriptional silencing of HERV-H elements in human pluripotent stem cells (hPSCs) eliminates nearby topologically associating domain boundaries, while de novo insertion of HERV-H elements can introduce new ones. Mutations of specific HERV-H elements can impact hPSC differentiation.
