Research into genomic imprinting has provided a foundation for the study of epigenetic mechanisms, especially during development, and has also shed light on a range of rare genetic disorders and common diseases.
The analysis of 18th century Y. pestis genomes reveals a bacterial lineage that might be responsible for the 400-year period of European plague epidemics from the Renaissance through early modern times.
Dissection of a cis-regulatory element (CRM) in its native chromosomal context using CRISPR/Cas9 editing and novel 'Active Genetics' reveals new features of CRM function and insights into how such regulatory elements change during evolution.
Empirical patterns of genomic and phenotypic variation across the landscape are used to develop a predictive model that will help build resilient ecological communities.
The foundations of genomic complexity in multicellular animals have deep roots in their unicellular prehistory, both in terms of innovations in gene content, as well as the evolutionary dynamics of genome architecture.
The coalescent history of a population can be learned just from the present genomic diversity, without having detailed prior knowledge of the pattern of recombination or the forces driving coalescence.
The reanalysis of data from a recent study that claimed retrotransposon mutations are ubiquitous in the human brain outlines a general framework for the design and analysis of single-cell genomics studies.
Genomic associations with lifespan principally reflect heart disease/smoking/dementia but not other cancers, and distinguish lifespan differences of five years between top/bottom deciles of a score derived from DNA alone.
