Linked from

The 31 pages that link to Population bottleneck, each with the reason it gives.

• Captive breedingRelated: Small founding groups can constrain the diversity of later captive generations.

• Selective breedingRelated: Intense selection or use of few breeding parents can narrow inherited diversity.

• Genetic driftBroader topic: The brief small population intensifies drift and can randomly discard alleles.

• DomesticationRelated: Small founding populations can leave domesticated lineages with reduced diversity.

• Endangered speciesRelated: Past declines can reduce genetic diversity and make recovery harder.

• ExtinctionRelated: Bottlenecks can leave surviving populations less able to adapt to new threats.

• Genetic diversityBroader topic: Bottlenecks can discard variants by chance and leave lasting diversity loss.

• Plant domesticationRelated: Domestication often reduced crop genetic diversity as a subset of wild plants was propagated.

• Founder effectRelated: A bottleneck can intensify the drift already caused by a small founding population.

• Linkage disequilibriumRelated: Bottlenecks can elevate and reshape allele associations through drift.

• Effective population sizeRelated: A bottleneck can depress effective size long after census numbers recover.

• Peopling of the AmericasRelated: Genomes indicate that founding populations entering the Americas passed through a severe bottleneck.

• Cat breedRelated: Small breeding populations can concentrate inherited disorders and reduce diversity.

• Minimum viable populationRelated: A brief decline can shape viability even when later counts recover.

• De-extinctionRelated: A small number of founders could leave a proxy population vulnerable to inbreeding.

• Dog breedRelated: Small breeding populations can narrow the genetic diversity available within a breed.

• HeterozygosityRelated: Bottlenecks can rapidly lower heterozygosity through chance loss of alleles.

• Woolly mammothRelated: Small, isolated mammoth populations experienced genetic losses before their extinction.

• Extinction vortexRelated: Bottlenecks can leave populations small enough for genetic and demographic feedbacks to begin.

• Neanderthal admixtureRelated: Small ancestral populations may have amplified the effects of Neanderthal ancestry and later selection.

• Coalescent theoryRelated: A bottleneck changes lineage merger rates and leaves a coalescent signal.

• California condorRelated: The condor’s near-extinction left lasting genetic and management challenges.

• Sumatran rhinocerosRelated: Small, isolated populations face inbreeding and reduced reproductive success.

• Steller's sea cowRelated: The sea cow's restricted known range invites investigation into how small or isolated its population had become.

• Neanderthal extinctionRelated: Low population numbers could have amplified the effects of environmental stress and chance.

• Asiatic lionRelated: The population’s history of near-extinction raises concerns about limited genetic diversity.

• Early human migrationsRelated: Bottlenecks complicate attempts to infer migration sizes and population histories from DNA.

• HomozygousRelated: Bottlenecks can increase the chance that individuals inherit matching alleles.

• Human evolutionary geneticsBroader topic: Bottlenecks left detectable signatures in human genetic diversity.

• PurebredRelated: Small founding populations can narrow the genetic diversity of a breed.

• LimitingBroader topic: A temporary restriction in population size can leave lasting genetic effects.