00:01
This plane in complete dominance for flower color.
00:06
And it has determined by one allele with one gene with two alleles.
00:12
It has 60 individual with red flowers, homozygous kappa r, 20 with pink flower homozygous and 20 plan with white flower homozygous r.
00:21
What would you expect the phenotypic ratio to be in the future, assuming the population is allowed to move to harding -wimper equilibrium.
00:29
So what we know is that when a population is in harding -wimper equilibrium, the phenotypic ratio doesn't change with generations.
00:40
So let's say phenotypic ratio are constant.
00:49
So basically if we calculate the phenotypic ratio of this generation, it's going to be the same as the future generations.
00:57
So let's take a look at the phenotypic ratio of this generation.
01:00
So the phenotypic ratio of homozygous kappa r red is going to be the total, which is a total of 60 divided by the entire population.
01:17
So the total population is 60 red plus 20 pink plus 20 white.
01:23
So you got a hundred individuals...