We won't go through the whole thing for a second generation, but we can do the first step, which is to calculate Hardy-Weinberg genotype frequencies for the second generation. We calculate these from the allele frequencies we just calculated, p-0.135 and q=0.865 (right? Check your work if you didn't get these allele frequencies) Genotype Formula Genotype frequency RR RS SS p² 2pQ 9² 0233 0.748

We won't go through the whole thing for a second generation, but we can do the first step, which is to calculate Hardy-Weinberg genotype frequencies for the second generation. We calculate these from the allele frequencies we just calculated, p-0.135 and q=0.865 (right? Check your work if you didn't get these allele frequencies) Genotype Formula Genotype frequency RR RS SS p² 2pQ 9² 0233 0.748

Name: Please atleast answer this question ? We won't go through the whole th
Uploaded: 2024-03-20T06:42:55.000Z
Channel: Bartleby
Description: Please atleast answer this question ? We won't go through the whole thing for a second generation, but we can do the first step, which is to calculate Hardy-Weinberg genotypefrequencies for the second generation. We calculate these from the allele fr

Human Heredity: Principles and Issues (MindTap Course List)

11th Edition

ISBN:9781305251052

Author:Michael Cummings

Publisher:Michael Cummings

Chapter19: Population Genetics And Human Evolution

Section: Chapter Questions

Problem 9QP: Using the HardyWeinberg Law in Human Genetics Suppose you are monitoring the allelic and genotypic...

See similar textbooks

Similar questions

Hardy-Weinberg Problems Please be sure to SHOW ALL WORK in order to get credit. This assignment will be graded for accuracy. *Hint: Remember what p and q represent. Determine first if I am asking for allele frequency or genotype/phenotype frequency. Then determine which equation is appropriate. What does p and q represent in the equations? Which equation do you use if I am asking for allele frequency? If the frequency of the recessive allele is 0.1, what is the frequency of the dominant allele? If the frequency of the dominant allele is 0.4, what is the frequency of the recessive allele? If the frequency of the dominant allele is 0.6, what is the frequency of the homozygous dominant genotype? If the frequency of the homozygous recessive genotype is 0.81, what is the frequency of the recessive allele? If the frequency of the homozygous dominant genotype is 0.25, what is the frequency of the dominant allele? If the frequency of the…
I'm confused about how I would figure out these two questions as I don't really understand the difference or where to start. What would genotypic frequencies be for Wildrose at pt-8 if it were in equilibrium? and How many individuals (to 2 decimal places) of each genotype would there be from Wildrose at pt-8 if it were in equilibrium?
The gel image above shows 7 alleles, let's call them 1-7 in order of size, with 1 being the largest and 7 being the smallest. What is the approximate size in Kbp of allele 4? Please type your answer as a number, please do not add units. ANSWER: The approximate size of allele 4 in the gel image below is Blank 1 Kbp Photograph of UV illuminated 1 % agarose TBE gel run for 40 minutes at 120 V, showing the result of PCR from a variable number tandem repeat region in 11 different individuals (A-K) 2000 1650 1000 850 600 500 Key: Lane 1: Lanes 2-12: A B C D E F G H I J K DNA ladder, see image for fragment sizes in base pairs (bp) PCR Products from the same variable number tandem repeat (VNTR) autosomal region of DNA from 11 different individuals (A-K)
I'm confused about how I would figure out these two questions as I don't really understand the difference or where to start. What are the observed genotypic frequencies for Wildrose at the pt-8 locus? and What are the observed allelic frequencies for Wildrose at the pt-8 locus?
The genotype at one CODIS Core Locus for the mother is (3,8) and for the father is (5, 7). Answer the questions below as they relate to that one CODIS Core Locus. Show your calculations and explain your logic. What is the probability the sons will show one matching allele to each other? If a forensic profile is (7, 8) for this CODIS Core locus, what is the probability that one of the two sons will match at both alleles and the other will match at just one allele?
The genotype at one CODIS Core Locus for the mother is (3,8) and for the father is (5, 7). Answer the questions below as they relate to that one CODIS Core Locus. Show your calculations and explain your logic. If a forensic profile is (7, 8) for this CODIS Core locus, what is the probability that one of the two sons will match at both alleles and the other will match at just one allele?
In your F2 light treatment vial, you observe the following data: 5 white-eyed males, 18 wild-type males, 7 white-eyed females, and 10 wild-type females. What is the white-eyed allele frequency in this generation? Leave your answer as a decimal.
The gel image below shows 7 alleles, let's call them 1-7 in order of size, with 1 being the largest and 7 being the smallest. In this sample of 11 individuals, what percentage of individuals have allele 7? Please type your answer as a number, rounded to the nearest whole percentage, just type the number, not the symbol. Answer: In the gel image below 0 percent of individuals have allele 7. Photograph of UV illuminated 1% agarose TBE gel run for 40 minutes at 120 V, showing the result of PCR from a variable number tandem repeat region in 11 different individuals (A-K) ... A B C DE F G H IJK 2000| 1650 1000 850 600 500 Кey: Lane 1: DNA ladder, see image for fragment sizes (bp). Lanes 2-13: PCR products from the same variable number tandem repeat (VNTR) autosomal region of DNA from 11 different individuals (A-K).
What is the first variable that can be calculated given these data, and what is the final variable we are requesting you to calculate? "In Finland, 256 people out of 10,000 are homozygous for the CCR5 allele mutation resulting in HIV resistance. Assuming the locus is in Hardy-Weinberg equilibrium, what is the expected genotype frequency of heterozygous carriers for the CCR5 mutation?"
Using the HardyWeinberg Law in Human Genetics Suppose you are monitoring the allelic and genotypic frequencies of the MN blood group locus (see Question 2 for a description of the MN blood group) in a small human population. You find that for 1-year-old children, the genotypic frequencies are MM = 0.25, MN = 0.5, and NN = 0.25, whereas the genotypic frequencies for adults are MM = 0.3, MN = 0.4, and NN = 0.3. a. Compute the M and N allele frequencies for 1-year-olds and adults. b. Are the allele frequencies in equilibrium in this population? c. Are the genotypic frequencies in equilibrium?
Assume you know the frequency of each allele p=0.8 so q=0.2. How can we calculate the heterozygote? Think about the punnett square. Either the father donated the freckle allele ie. (Ff = pq) or the mother did (fF = qp) so the equation for heterozygotes should be 2pq Determine the frequency of the heterozygote 2pq=
****Note for question 1 - you have been given the frequency of the two alleles (dominant and recessive = p + q=1) and you are using those allele frequencies to calculate the genotype frequencies. p2 + 2pq + p2