Linked from

The 95 pages that link to Ancient DNA, each with the reason it gives.

• Molecular phylogeneticsRelated: Ancient sequences can directly test relationships among extinct and living populations.

• PleistoceneRelated: It reveals past population histories that fossils alone cannot resolve.

• Polymerase chain reactionRelated: PCR enabled analysis of scarce DNA from preserved remains, though contamination is a major risk.

• Human evolutionRelated: It reveals relationships and interbreeding that skeletal evidence alone cannot establish.

• Black DeathRelated: DNA from plague victims identified Yersinia pestis as the Black Death’s cause.

• PaleoanthropologyRelated: Where preservation allows, genomes test relationships inferred from skeletal anatomy.

• HomininRelated: It has revealed interbreeding and relationships that fossil anatomy alone could not establish.

• MaizeRelated: Ancient maize genomes help reconstruct how domestication and later dispersal changed the crop.

• Pleistocene megafaunaRelated: It reveals relationships and population histories that bones alone cannot resolve.

• Animal domesticationRelated: Genomes from old animal remains help trace ancestry and domestication histories.

• Archaeological cultureRelated: Ancient DNA can test population histories that artifact-based cultural maps cannot resolve alone.

• Indo-European migrationsRelated: It documents ancestry changes that can be compared with archaeological and linguistic chronologies.

• BeringiaRelated: It helps test relationships among ancient Beringian populations and animals.

• Domestication of the horseRelated: Genomes from archaeological horses changed the picture of domestication's origins and spread.

• Proto-Indo-EuropeansRelated: It has documented major steppe ancestry movements relevant to proposed Indo-European dispersals.

• ArchaeobotanyRelated: Ancient plant DNA can identify taxa and trace crop histories beyond morphology.

• Pontic–Caspian steppeRelated: Genome studies have traced ancestry shifts involving steppe communities.

• MegafaunaRelated: Genetic records help trace population decline and range change before species vanished.

• Yamnaya cultureRelated: Ancient genomes have clarified Yamnaya ancestry and the scale of later movements from the steppe.

• PaleopathologyRelated: Pathogen and host DNA can test diagnoses based on visible remains.

• Human genetic variationRelated: Ancient genomes reveal population changes that living genomes alone cannot date.

• Kurgan hypothesisRelated: Genomic evidence has tested whether steppe ancestry accompanied proposed dispersals.

• De-extinctionRelated: Its degradation and contamination constrain which extinct genomes can be studied.

• Dog domesticationRelated: Ancient genomes can trace dog ancestry more directly than modern breeds alone.

• La Brea Tar PitsRelated: Preserved genetic evidence can complement the site’s exceptionally abundant bones.

• Bering Land BridgeRelated: Ancient genomes help test hypotheses about isolation and movement through Beringia.

• Genetic ancestryRelated: Direct ancient genomes can test ancestry models built from living populations.

• Indo-Aryan migrationRelated: Ancient genomes from Central and South Asia test whether population movements accompanied language change.

• PrehistoryRelated: It reveals ancestry and population movement that artifacts alone cannot establish.

• Anatolian hypothesisRelated: It reveals population movements relevant to competing accounts, but cannot directly identify spoken languages.

• LeprosyRelated: Ancient pathogen genomes help reconstruct leprosy’s historical diversity and spread.

• ÖtziRelated: Ötzi's genome has been used to study his ancestry, traits, and health.

• ThylacineRelated: Museum specimens have supplied DNA for reconstructing thylacine evolutionary history.

• Woolly mammothRelated: Preserved mammoth DNA has revealed relationships and population changes beyond fossil anatomy.

• KurganRelated: DNA from kurgan burials helps investigate kinship, ancestry, and population movement.

• Neanderthal admixtureRelated: Ancient genomes let researchers compare Neanderthals directly with early modern humans.

• Overkill hypothesisRelated: Population histories can reveal megafaunal declines that bones and kill sites alone cannot resolve.

• Hominin taxonomyRelated: It has exposed interbreeding and lineages absent from morphology-based classifications.

• Mammoth SteppeRelated: Environmental DNA records show that the steppe’s plant communities changed over time.

• Meromictic lakeRelated: Anoxic, undisturbed sediments can preserve biological traces useful for reconstructing past ecosystems.

• Denisova CaveRelated: DNA preservation in cave fossils enabled the identification of Denisovans.

• Denisovan admixtureRelated: Denisovan genomes provide the reference for identifying inherited Denisovan segments.

• La Tène cultureRelated: Genomic evidence can test population histories but cannot identify archaeological culture by itself.

• MummyRelated: Mummies can preserve DNA that helps investigate ancestry, kinship, and past populations.

• Tarim mummiesRelated: Genomes from some Tarim individuals reshape claims about their ancestry.

• AurochsRelated: Ancient DNA helps reconstruct aurochs populations and their relationship to cattle.

• Corded Ware cultureRelated: Genomic evidence revealed major ancestry shifts associated with Corded Ware expansion.

• DoggerlandRelated: Sediment DNA can identify species that lived in the submerged landscape.

• GravettianRelated: Ancient genomes help test how Gravettian-associated populations relate to other prehistoric Europeans.

• Greek colonisationRelated: Genetic evidence may clarify mobility and ancestry, though it cannot alone identify ancient cultural identities.