If the frequency of heterozygotes in a population of mice is 0.48 for a particular gene, what would be the frequency of heterozygotes in future generations if the population is in Hardy-Weinberg equilibrium?Multiple choice question.0.160.360.240.48

Which of the following describes a situation, in which the predominant genotype in a population in Hardy-Weinberg equilibrium is the heterozygote? Assume that the gene of interest has only two alleles: G and g.Multiple choice question.The allele frequencies of both G and g are intermediate in value.The allele frequency of g is low.The allele frequencies of G and g are very low.Incorrect. The allele frequencies of G and g are very high.

A gene is found in two forms in a population of plants. The two alleles are denoted as B and b. You determine that the frequency of the B allele in this population is 0.2. If this population is in a Hardy-Weinberg equilibrium, calculate the probability of a heterozygote in the next generation.Multiple choice question.0.160.320.640.04

In a population of 200 mice, 168 mice are black, and 32 mice are white. 96 of the black mice are heterozygous for the color trait. What is the frequency of the black allele in the population? (Assume simple dominance/recessiveness of a single gene with two alleles for the fur color trait.)Multiple Choice0.360.60.70.84

Consider a gene with two alleles, one dominant, and the other recessive. If this population is in Hardy-Weinberg equilibrium with respect to this gene, what would happen to the dominant allele from generation to generation?Multiple choice question.Its frequency will remain unchangedIts frequency will slowly decreaseIts frequency will slowly increase

Use the Hardy-Weinberg equations: p + q = 1 and p2 + 2pq + q2 = 1. If the dominant allele frequency is 0.8, what percentage of the population will be heterozygous?Multiple Choice32%16%64%4%20%