Although most ancient DNA studies have focused on the last 50,000 years, paleogenomic approaches can now reach into the early Pleistocene, an epoch of repeated environmental changes that shaped present-day biodiversity. Emerging deep-time genomic transects, including from DNA preserved in sediments, will enable inference of adaptive evolution, discovery of unrecognized species, and exploration of how glaciations, volcanism, and paleomagnetic reversals shaped demography and community composition. In this Review, we explore the state-of-the-art in paleogenomics and discuss key challenges, including technical limitations, evolutionary divergence and associated biases, and the need for more precise dating of remains and sediments. We conclude t...
Evolutionary processes, including selection, can be indirectly inferred based on patterns of genomic...
In-depth knowledge about spatial and temporal variation in microbial diversity and function is neede...
Palaeoenvironmental DNA (PalEnDNA) is defined as ancient DNA (aDNA) originating from disseminated ge...
Although most ancient DNA studies have focused on the last 50,000 years, paleogenomic approaches can...
Although most ancient DNA studies have focused on the last 50,000 years, paleogenomic approaches can...
Ancient DNA provides a unique means to record genetic change through time and directly observe evolu...
Technological innovations such as next generation sequencing and DNA hybridisation enrichment have r...
The publication of partial and complete paleogenomes within the last few years has reinvigorated res...
Ever since its emergence in 1984, the field of ancient DNA has struggled to overcome the challenges ...
Sedimentary ancient DNA is becoming more widely used in paleoeocology, as methods for sampling of se...
In only a few short years, the ancient DNA field has transformed from an anecdotal and artisanal dis...
International audienceHow contemporary plant genomes originated and evolved is a fascinating questio...
Paleopathology, the science that studies the diseases of the past, has always been addressed to the ...
Ancient DNA has revolutionised our ability to study past evolutionary processes by enabling direct o...
Evolutionary processes, including selection, can be indirectly inferred based on patterns of genomic...
In-depth knowledge about spatial and temporal variation in microbial diversity and function is neede...
Palaeoenvironmental DNA (PalEnDNA) is defined as ancient DNA (aDNA) originating from disseminated ge...
Although most ancient DNA studies have focused on the last 50,000 years, paleogenomic approaches can...
Although most ancient DNA studies have focused on the last 50,000 years, paleogenomic approaches can...
Ancient DNA provides a unique means to record genetic change through time and directly observe evolu...
Technological innovations such as next generation sequencing and DNA hybridisation enrichment have r...
The publication of partial and complete paleogenomes within the last few years has reinvigorated res...
Ever since its emergence in 1984, the field of ancient DNA has struggled to overcome the challenges ...
Sedimentary ancient DNA is becoming more widely used in paleoeocology, as methods for sampling of se...
In only a few short years, the ancient DNA field has transformed from an anecdotal and artisanal dis...
International audienceHow contemporary plant genomes originated and evolved is a fascinating questio...
Paleopathology, the science that studies the diseases of the past, has always been addressed to the ...
Ancient DNA has revolutionised our ability to study past evolutionary processes by enabling direct o...
Evolutionary processes, including selection, can be indirectly inferred based on patterns of genomic...
In-depth knowledge about spatial and temporal variation in microbial diversity and function is neede...
Palaeoenvironmental DNA (PalEnDNA) is defined as ancient DNA (aDNA) originating from disseminated ge...