Answer:
Frequency of allele S is p [tex]= 0.4939[/tex]
Frequency of allele C is q [tex]= 0.666[/tex]
The population is not in Hardy-Weinberg equilibrium
Explanation:
Given -
Number of individuals with straight hair [tex]= 244[/tex]
Number of individuals with curly hair [tex]= 444[/tex]
Number of individuals with Wavy hair [tex]= 312[/tex]
Let "p" represents the frequency for allele for straight hair and "q" represents the frequency for allele for curly hair
[tex]p^2[/tex] represents the frequency of genotype "SS"
[tex]p^{2} = \frac{244}{1000} \\= 0.244[/tex]
[tex]q^2[/tex] represents the frequency of genotype "CC"
[tex]p^{2} = \frac{444}{1000} \\= 0.444[/tex]
[tex]2pq[/tex] represents the frequency of genotype "SC"
[tex]2pq = \frac{312}{1000} \\= 0.312[/tex]
Frequency of allele S is p
[tex]= \sqrt{0.244} \\= 0.4939[/tex]
Frequency of allele C is q
tex]= \sqrt{0.444} \\= 0.666[/tex]
For being in Hardy Weinberg's equation-
[tex]p+q=1\\[/tex]
Substituting the values in above equation, we get -
[tex]0.4939+0.666\neq 1[/tex]
hence, the population is not in Hardy-Weinberg equilibrium