Understanding the relationship between the gene pool and Hardy-Weinberg equilibrium is essential in the field of population genetics. The gene pool represents the total genetic diversity within a population, while the Hardy-Weinberg principle describes the conditions under which allele and genotype frequencies in a population remain constant from generation to generation.
The gene pool refers to the sum of all alleles (the different versions of genes) present in a population. It represents the total genetic variation available to the population.
The Hardy-Weinberg principle states that allele and genotype frequencies in a population will remain constant from generation to generation if no evolutionary forces are acting on the population. This equilibrium assumes the absence of the following factors:
The Hardy-Weinberg equilibrium is disturbed by the following evolutionary factors:
While the gene pool represents the total genetic variation within a population, it does *not* directly disturb the Hardy-Weinberg equilibrium. Instead, it is the *evolutionary processes* that act on the gene pool—such as mutation, gene flow, genetic drift, natural selection, and non-random mating—that disrupt the equilibrium.
List-I (Scientists) | List-II (Discovery) |
---|---|
(A) Sutton and Boveri | (II) Chromosomal Theory of Inheritance |
(B) Sturtevant | (IV) Genetic maps |
(C) Henking | (I) X-Body |
(D) Griffith | (III) Transformation in bacteria |
List-I (Genes) | List-II (Proteins– Codes for lac operon) |
(A) i | (I) permease |
(B) a | (II) β-galactosidase |
(C) y | (III) transacetylase |
(D) z | (IV) repressor |