Linked from

The 15 pages that link to Hardy–Weinberg principle, each with the reason it gives.

• Population geneticsRelated: Its equilibrium provides a baseline for detecting departures caused by evolutionary forces.

• AlleleRelated: It connects allele frequencies to expected genotype proportions.

• Genetic driftCompared with: Its infinite-population assumption removes the sampling fluctuations that cause drift.

• Evolutionary biologyRelated: Its equilibrium gives a baseline for detecting forces that alter genetic variation.

• GenotypeRelated: It predicts genotype frequencies from allele frequencies under specified assumptions.

• Allele frequencyRelated: It predicts genotype proportions from allele frequencies under its idealized conditions.

• Linkage disequilibriumCompared with: It concerns genotype proportions at one locus, unlike associations between loci.

• Null hypothesisRelated: The predicted frequencies provide a reference distribution tested against observed genetic data.

• InbreedingNarrower topic: Its assumptions clarify how nonrandom mating such as inbreeding changes genotype frequencies.

• HeterozygosityRelated: Its genotype-frequency predictions provide a baseline for comparing observed heterozygosity.

• Assortative matingCompared with: Assortative mating violates the model’s random-mating assumption and can alter genotype frequencies.

• G. H. HardyCompared with: It shares Hardy’s name but arose from a separate result, not his number-theoretic research.

• HeterozygousRelated: It predicts the expected frequency of heterozygotes from allele frequencies.

• MicroevolutionCompared with: Its equilibrium assumptions provide a baseline for detecting evolutionary change.

• Lethal alleleRelated: Selection against lethal genotypes can shift populations away from its expected genotype proportions.