Homework Help is Here – Start Your Trial Now!
Science
Biology
Is this the correct phenotype frequency? Environment: Clean Forest Moths Released 810 190 1000 Typica Carbonaria Phenotype Frequency Typica Carbonaria Color Light Dark G₁ 405 72 G₂ 468 66 534 Initial Frequency 0.81 0.19 G₁ 569 64 633 G4 691 61 752 G₁ 857 56 013 Frequency G5 (Round to 2 decimal places) q 0.75

Is this the correct phenotype frequency? Environment: Clean Forest Moths Released 810 190 1000 Typica Carbonaria Phenotype Frequency Typica Carbonaria Color Light Dark G₁ 405 72 G₂ 468 66 534 Initial Frequency 0.81 0.19 G₁ 569 64 633 G4 691 61 752 G₁ 857 56 013 Frequency G5 (Round to 2 decimal places) q 0.75

Human Anatomy & Physiology (11th Edition)
Human Anatomy & Physiology (11th Edition)
11th Edition
ISBN:9780134580999
Author:Elaine N. Marieb, Katja N. Hoehn
Publisher:Elaine N. Marieb, Katja N. Hoehn
Chapter1: The Human Body: An Orientation
Section: Chapter Questions
Problem 1RQ: The correct sequence of levels forming the structural hierarchy is A. (a) organ, organ system,...
See similar textbooks
icon
Related questions
icon
Concept explainers
Question
100%
Can someone help me? T
2:09 × be4a59ef93e98e52064e89c5c... < NATURAL SELECTION NATURAL SELECTION IN INSECTS INTRODUCTION LABORATORY SIMULATION Lab Data Is this the correct phenotype frequency? Environment: Clean Forest Typica Carbonaria Total Moths Released Typica Carbonaria Allele Frequency Phenotype Frequency 810 Moths 190 q² Typica 2pq Carbonaria p² Carbonaria 1000 Allele q P Genotype Frequency d D Color Light Dark Genotype dd Dd DD Environment: Polluted Forest Phenotype Frequency Allele Frequency Genotype Frequency G₁ 405 72 477 Color G₂ Light Dark Dark 468 66 534 Initial Frequency Initial Allele Frequency 0.90 0.10 0.81 180 0.19 Moths Released 810 10 G3 569 64 633 Initial Frequency 0.81 0.18 0.01 How to Calculate Phenotype Frequency G4 691 61 752 o 0.75 764 Frequency Gs ... 56 - X G5 857 Frequency G (Round to 2 decimal places) G5 Allele Frequency (Round to 2 decimal places) Number of Moths G
Transcribed Image Text:2:09 × be4a59ef93e98e52064e89c5c... < NATURAL SELECTION NATURAL SELECTION IN INSECTS INTRODUCTION LABORATORY SIMULATION Lab Data Is this the correct phenotype frequency? Environment: Clean Forest Typica Carbonaria Total Moths Released Typica Carbonaria Allele Frequency Phenotype Frequency 810 Moths 190 q² Typica 2pq Carbonaria p² Carbonaria 1000 Allele q P Genotype Frequency d D Color Light Dark Genotype dd Dd DD Environment: Polluted Forest Phenotype Frequency Allele Frequency Genotype Frequency G₁ 405 72 477 Color G₂ Light Dark Dark 468 66 534 Initial Frequency Initial Allele Frequency 0.90 0.10 0.81 180 0.19 Moths Released 810 10 G3 569 64 633 Initial Frequency 0.81 0.18 0.01 How to Calculate Phenotype Frequency G4 691 61 752 o 0.75 764 Frequency Gs ... 56 - X G5 857 Frequency G (Round to 2 decimal places) G5 Allele Frequency (Round to 2 decimal places) Number of Moths G
How to Calculate Phenotype Frequency 1) How to Calculate Genotypic Ratios By using phenotypic ratios of a characteristic like math color in a parent population, we can predict the genotypic ratios in the next generation. There are 3 genotypes present . Homozygous dominant (Carbonaria, DD) represented by the p value in the Hardy- Weinberg equation. ▪ Homozygous recessive (Typica, do) represented by the of value in the Hardy Weinberg aquation. Heterozygous (Carbonaria, Da) is represented by the 200 value in the Hardy-Weinberg equation. 2) This shows a population where 20% of the moths have the dominant dark color (Carbonaria) and 20% have a light color (Typica). P Generation: Phenotypic Ratio 20% Carbonarie Allele Frequencies Hardy-Weinberg Equation P Generation: 3) Using the phenotypic ratio, we can determine allele frequencies in the parental generation. If the homozygous tralt (a) is 0.8 than a la 0.89. Phenotypic Retic: 20% Carbonarie Allele Frequencies Hardy-Weinberg Equation: P Generation: Allele Frequencies Hardy-Weinberg Equation Phenotypic Ratio: 20% Carbonarie D-011, 4) Now that we know a la 0.89, pla 1.0-0.89. Therefore, p=0.11. P Generation: p²+210)q²-1 Allele Frequencies: F, Generation Genotypes Genotype Frequencies: Hardy-Weinberg Equation: ifa=0.8, then q p2|pq) q-1 Phenotypic Ratio: 20% Carbonaria D 0.11 P Generation: 5) Now that we knowp-0.11 and 0-0.89 in the parental generation, we can plug these numbers into the Hardy-Weinberg equation to predict the genotypic frequencies in the next generation. F Generation Genotypes: Genotype Frequencies: Hardy-Weinberg Equation: HOA TY CH DD p+c-10 p+ 0.89-10 or p-1.0-0.89-0.m p²2jpg) q-1 Phenotypic Retic 20% Carbonarie Allele Frequencies D=0.11 ĐƠN TY DỊCH d-0.89 0.89 DD B0% TY DICH d-0.89 0.01 6) Here we see that p² (homozygous dominant) la 0.01 and of (homozygous recessive) is 0.79. Lastly, 200 (heterozygous) is 0.20 as shown below. BON. Typica d=0.89 0.01 0.20 0.79 10.11 + 2(0.11 x 0.89) (0.899-10 0.01 +0.20 +0.79-1.0 p+21pq) q² =1 Dd ĐỘNG TY DỊCH d-0.80 dd Dd 0.20 p²+20pql+q-1 X dd 0.79
Transcribed Image Text:How to Calculate Phenotype Frequency 1) How to Calculate Genotypic Ratios By using phenotypic ratios of a characteristic like math color in a parent population, we can predict the genotypic ratios in the next generation. There are 3 genotypes present . Homozygous dominant (Carbonaria, DD) represented by the p value in the Hardy- Weinberg equation. ▪ Homozygous recessive (Typica, do) represented by the of value in the Hardy Weinberg aquation. Heterozygous (Carbonaria, Da) is represented by the 200 value in the Hardy-Weinberg equation. 2) This shows a population where 20% of the moths have the dominant dark color (Carbonaria) and 20% have a light color (Typica). P Generation: Phenotypic Ratio 20% Carbonarie Allele Frequencies Hardy-Weinberg Equation P Generation: 3) Using the phenotypic ratio, we can determine allele frequencies in the parental generation. If the homozygous tralt (a) is 0.8 than a la 0.89. Phenotypic Retic: 20% Carbonarie Allele Frequencies Hardy-Weinberg Equation: P Generation: Allele Frequencies Hardy-Weinberg Equation Phenotypic Ratio: 20% Carbonarie D-011, 4) Now that we know a la 0.89, pla 1.0-0.89. Therefore, p=0.11. P Generation: p²+210)q²-1 Allele Frequencies: F, Generation Genotypes Genotype Frequencies: Hardy-Weinberg Equation: ifa=0.8, then q p2|pq) q-1 Phenotypic Ratio: 20% Carbonaria D 0.11 P Generation: 5) Now that we knowp-0.11 and 0-0.89 in the parental generation, we can plug these numbers into the Hardy-Weinberg equation to predict the genotypic frequencies in the next generation. F Generation Genotypes: Genotype Frequencies: Hardy-Weinberg Equation: HOA TY CH DD p+c-10 p+ 0.89-10 or p-1.0-0.89-0.m p²2jpg) q-1 Phenotypic Retic 20% Carbonarie Allele Frequencies D=0.11 ĐƠN TY DỊCH d-0.89 0.89 DD B0% TY DICH d-0.89 0.01 6) Here we see that p² (homozygous dominant) la 0.01 and of (homozygous recessive) is 0.79. Lastly, 200 (heterozygous) is 0.20 as shown below. BON. Typica d=0.89 0.01 0.20 0.79 10.11 + 2(0.11 x 0.89) (0.899-10 0.01 +0.20 +0.79-1.0 p+21pq) q² =1 Dd ĐỘNG TY DỊCH d-0.80 dd Dd 0.20 p²+20pql+q-1 X dd 0.79
Expert Solution
trending now

Trending now

This is a popular solution!

steps

Step by step

Solved in 2 steps

SEE SOLUTIONCheck out a sample Q&A here
Blurred answer
Knowledge Booster
Population evolution
Learn more about
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, biology and related others by exploring similar questions and additional content below.
Recommended textbooks for you
Human Anatomy & Physiology (11th Edition)
Human Anatomy & Physiology (11th Edition)
Biology
ISBN:
9780134580999
Author:
Elaine N. Marieb, Katja N. Hoehn
Publisher:
PEARSON
Biology 2e
Biology 2e
Biology
ISBN:
9781947172517
Author:
Matthew Douglas, Jung Choi, Mary Ann Clark
Publisher:
OpenStax
Anatomy & Physiology
Anatomy & Physiology
Biology
ISBN:
9781259398629
Author:
McKinley, Michael P., O'loughlin, Valerie Dean, Bidle, Theresa Stouter
Publisher:
Mcgraw Hill Education,
Molecular Biology of the Cell (Sixth Edition)
Molecular Biology of the Cell (Sixth Edition)
Biology
ISBN:
9780815344322
Author:
Bruce Alberts, Alexander D. Johnson, Julian Lewis, David Morgan, Martin Raff, Keith Roberts, Peter Walter
Publisher:
W. W. Norton & Company
Laboratory Manual For Human Anatomy & Physiology
Laboratory Manual For Human Anatomy & Physiology
Biology
ISBN:
9781260159363
Author:
Martin, Terry R., Prentice-craver, Cynthia
Publisher:
McGraw-Hill Publishing Co.
Inquiry Into Life (16th Edition)
Inquiry Into Life (16th Edition)
Biology
ISBN:
9781260231700
Author:
Sylvia S. Mader, Michael Windelspecht
Publisher:
McGraw Hill Education
SEE MORE TEXTBOOKS