In peas, a gene controls flower color such that R = purple and r = white. In an isolated pea patch, there are 64 purple-flowering plants and 36 white-flowering plants. Assuming Hardy-Weinberg equilibrium, what is the value of p for this population? 1 point

Explanation:

Here,a gene controls flower color:

R= purple flower color gene

r= white flower color gene

Number of purple flowering plants= 64

Number of white flowering plants= 36

Total number of flowering plants= 64+36=100

In this case it is clearly visible that purple color is dominant and white color is recessive(number of purple colored flowers are more)

According to Hardy Weinberg equilibrium sum of frequency of alleles(both dominant and recessive) is constant and given by,

p+q= 1

p is frequency of dominant allele(purple color of flower)

q is frequency of recessive allele(white color of flower)

Sum of frequency of genotypes (both dominant and recessive) is constant and given by

is frequency of dominant genotype(purple colored flowers)

is frequency of recessive genotype(white colored flowers)

2pq is frequency of heterozygous genotype

Frequency of dominant genotype() can be calculated as:

number of purple flowering plants/total number of flowers

=64/100

= 0.64

== 0.8

hence value of p will be 0.8

nucleic acid molecules are incredibly complex, containing the code that guarantees the four different nucleotide units comprise dna, the nucleic acid of interest to the genealogist. and one of four nitrogen-containing molecules called nucleotides

the solute can move "downhill," from regions of higher to lower concentration, relying on the specificity of the protein carrier to pass through the membrane. this process is called passive transport or facilitated diffusion, and does not require energy.