a03d_1f80

Phenotype Diversity in Hybrid Cross

Mikaela and Sam are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Work in order: (a) and (b) count the different gametes each person can produce; (c) give the Punnett square dimensions (rows × columns) and total number of cells; then count the different offspring outcomes in the remaining row(s). You do not need to draw the full Punnett square.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Mikaela genotype	Aa	bb	CC	Dd
Sam genotype	AA	Bb	Cc	Dd
(a) Mikaela gametes
(b) Sam gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

2² = 4 (i.e. 2 genes with two forms) Correct 2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Incorrect 2³ = 8 (i.e. 3 genes with two forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect MC

5ac2_1f80

Phenotype Diversity in Hybrid Cross

Rulaa and Het are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Rulaa genotype	AA	Bb	cc	Dd
Het genotype	Aa	bb	Cc	DD
(a) Rulaa gametes
(b) Het gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

5016_1f80

Phenotype Diversity in Hybrid Cross

Emaad and Mudrika are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Emaad genotype	AA	Bb	CC	Dd
Mudrika genotype	aa	bb	Cc	dd
(a) Emaad gametes
(b) Mudrika gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

e1f6_1f80

Phenotype Diversity in Hybrid Cross

Aye and Salume are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Aye genotype	aa	Bb	Cc	DD
Salume genotype	Aa	Bb	Cc	dd
(a) Aye gametes
(b) Salume gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

2² = 4 (i.e. 2 genes with two forms) Incorrect 2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Incorrect 2³ = 8 (i.e. 3 genes with two forms) Correct 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect MC

6676_1f80

Phenotype Diversity in Hybrid Cross

Shal and Kenza are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Shal genotype	AA	bb	cc	Dd
Kenza genotype	aa	Bb	Cc	dd
(a) Shal gametes
(b) Kenza gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

c57f_1f80

Phenotype Diversity in Hybrid Cross

Brenda and Silver are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Brenda genotype	Aa	Bb	Cc	Dd
Silver genotype	AA	Bb	cc	Dd
(a) Brenda gametes
(b) Silver gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

38fd_1f80

Phenotype Diversity in Hybrid Cross

Rafiaa and Jake are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Rafiaa genotype	aa	Bb	Cc	Dd
Jake genotype	Aa	Bb	CC	Dd
(a) Rafiaa gametes
(b) Jake gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

b13c_319e

Phenotype Diversity in Hybrid Cross

Jane and Mit are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Jane genotype	Aa	Bb	Cc	Dd
Mit genotype	Aa	Bb	cc	dd
(a) Jane gametes
(b) Mit gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

2² = 4 (i.e. 2 genes with two forms) Incorrect 2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Incorrect 2³ = 8 (i.e. 3 genes with two forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2⁴ = 16 (i.e. 4 genes with two forms) Correct MC

44a5_1f80

Phenotype Diversity in Hybrid Cross

Tricia and Firdose are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Tricia genotype	aa	BB	Cc	Dd
Firdose genotype	Aa	Bb	Cc	Dd
(a) Tricia gametes
(b) Firdose gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

d1b2_1f80

Phenotype Diversity in Hybrid Cross

Pravalika and Dan are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Pravalika genotype	Aa	BB	cc	Dd
Dan genotype	aa	Bb	Cc	DD
(a) Pravalika gametes
(b) Dan gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

3e37_1f80

Phenotype Diversity in Hybrid Cross

Deanna and Vibhuti are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Deanna genotype	aa	BB	Cc	Dd
Vibhuti genotype	aa	BB	Cc	Dd
(a) Deanna gametes
(b) Vibhuti gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

f2f8_319e

Phenotype Diversity in Hybrid Cross

Alishah and Serene are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Alishah genotype	aa	Bb	Cc	Dd
Serene genotype	Aa	Bb	cc	Dd
(a) Alishah gametes
(b) Serene gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

517b_1f80

Phenotype Diversity in Hybrid Cross

Medard and Anjali are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Medard genotype	Aa	Bb	Cc	Dd
Anjali genotype	AA	Bb	Cc	Dd
(a) Medard gametes
(b) Anjali gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

2c8d_319e

Phenotype Diversity in Hybrid Cross

Agnes and Isabel are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Agnes genotype	Aa	Bb	Cc	dd
Isabel genotype	Aa	Bb	Cc	Dd
(a) Agnes gametes
(b) Isabel gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

84dd_1f80

Phenotype Diversity in Hybrid Cross

Nihar and Dishank are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Nihar genotype	Aa	Bb	Cc	dd
Dishank genotype	AA	Bb	Cc	Dd
(a) Nihar gametes
(b) Dishank gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

a613_1f80

Phenotype Diversity in Hybrid Cross

Mackenzye and Leonardo are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Mackenzye genotype	AA	BB	cc	Dd
Leonardo genotype	Aa	Bb	Cc	Dd
(a) Mackenzye gametes
(b) Leonardo gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

f6ce_319e

Phenotype Diversity in Hybrid Cross

Jayasurya and Marta are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Jayasurya genotype	Aa	bb	Cc	dd
Marta genotype	aa	Bb	cc	Dd
(a) Jayasurya gametes
(b) Marta gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

70b4_1f80

Phenotype Diversity in Hybrid Cross

Marta and Miraj are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Marta genotype	AA	Bb	Cc	dd
Miraj genotype	Aa	Bb	Cc	DD
(a) Marta gametes
(b) Miraj gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

990d_1f80

Phenotype Diversity in Hybrid Cross

Jane and Alex are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Jane genotype	aa	bb	cc	Dd
Alex genotype	aa	Bb	Cc	DD
(a) Jane gametes
(b) Alex gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

fda7_319e

Phenotype Diversity in Hybrid Cross

Rutuja and Travis are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Rutuja genotype	Aa	bb	cc	Dd
Travis genotype	Aa	Bb	Cc	dd
(a) Rutuja gametes
(b) Travis gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

69cd_1f80

Phenotype Diversity in Hybrid Cross

Firdose and Sierra are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Firdose genotype	Aa	Bb	cc	DD
Sierra genotype	Aa	bb	cc	Dd
(a) Firdose gametes
(b) Sierra gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

1094_1f80

Phenotype Diversity in Hybrid Cross

Yuritzy and Leila are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Yuritzy genotype	Aa	BB	Cc	Dd
Leila genotype	Aa	Bb	CC	Dd
(a) Yuritzy gametes
(b) Leila gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

9963_1f80

Phenotype Diversity in Hybrid Cross

Arinola and Kirk are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Arinola genotype	Aa	BB	cc	Dd
Kirk genotype	Aa	Bb	Cc	Dd
(a) Arinola gametes
(b) Kirk gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

b7f4_1f80

Phenotype Diversity in Hybrid Cross

Henry and Salman are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Henry genotype	AA	Bb	Cc	Dd
Salman genotype	Aa	bb	Cc	Dd
(a) Henry gametes
(b) Salman gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

80e8_1f80

Phenotype Diversity in Hybrid Cross

Alishah and Shahd are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Alishah genotype	AA	Bb	CC	Dd
Shahd genotype	Aa	Bb	cc	dd
(a) Alishah gametes
(b) Shahd gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

06bc_1f80

Phenotype Diversity in Hybrid Cross

Stefany and Jasmin are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Stefany genotype	Aa	Bb	cc	dd
Jasmin genotype	Aa	BB	Cc	DD
(a) Stefany gametes
(b) Jasmin gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

6f10_1f80

Phenotype Diversity in Hybrid Cross

Jullisa and Aye are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Jullisa genotype	aa	BB	Cc	DD
Aye genotype	Aa	Bb	cc	dd
(a) Jullisa gametes
(b) Aye gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

51b1_1f80

Phenotype Diversity in Hybrid Cross

Simranjit and Eunbi are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Simranjit genotype	Aa	bb	cc	DD
Eunbi genotype	Aa	Bb	Cc	Dd
(a) Simranjit gametes
(b) Eunbi gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

fcbb_1f80

Phenotype Diversity in Hybrid Cross

Richa and Danny are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Richa genotype	Aa	Bb	cc	DD
Danny genotype	aa	BB	Cc	Dd
(a) Richa gametes
(b) Danny gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

2694_1f80

Phenotype Diversity in Hybrid Cross

Hilary and Shaheryar are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Hilary genotype	AA	Bb	Cc	DD
Shaheryar genotype	aa	Bb	Cc	dd
(a) Hilary gametes
(b) Shaheryar gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

2a32_1f80

Phenotype Diversity in Hybrid Cross

Daisy and Felipe are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Daisy genotype	AA	Bb	cc	Dd
Felipe genotype	aa	BB	Cc	Dd
(a) Daisy gametes
(b) Felipe gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

3f0c_1f80

Phenotype Diversity in Hybrid Cross

Naba and Jazzmyne are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Naba genotype	Aa	BB	Cc	Dd
Jazzmyne genotype	aa	Bb	cc	Dd
(a) Naba gametes
(b) Jazzmyne gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

5d78_1f80

Phenotype Diversity in Hybrid Cross

Nicole and Brittnie are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Nicole genotype	AA	Bb	Cc	Dd
Brittnie genotype	Aa	bb	Cc	dd
(a) Nicole gametes
(b) Brittnie gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

6b9c_1f80

Phenotype Diversity in Hybrid Cross

Shaheryar and Mireya are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Shaheryar genotype	Aa	Bb	Cc	Dd
Mireya genotype	Aa	Bb	CC	Dd
(a) Shaheryar gametes
(b) Mireya gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

342a_1f80

Phenotype Diversity in Hybrid Cross

Robert and Ashur are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Robert genotype	Aa	BB	Cc	Dd
Ashur genotype	Aa	bb	Cc	Dd
(a) Robert gametes
(b) Ashur gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

0f61_1f80

Phenotype Diversity in Hybrid Cross

Stefany and Alina are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Stefany genotype	Aa	Bb	cc	dd
Alina genotype	Aa	BB	Cc	Dd
(a) Stefany gametes
(b) Alina gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

003a_1f80

Phenotype Diversity in Hybrid Cross

Najmeh and Shubham are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Najmeh genotype	Aa	Bb	cc	Dd
Shubham genotype	Aa	bb	CC	dd
(a) Najmeh gametes
(b) Shubham gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

22db_1f80

Phenotype Diversity in Hybrid Cross

Melissa and Ibrahim are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Melissa genotype	Aa	bb	CC	dd
Ibrahim genotype	aa	Bb	CC	Dd
(a) Melissa gametes
(b) Ibrahim gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

e26d_1f80

Phenotype Diversity in Hybrid Cross

Doha and Norhan are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Doha genotype	AA	Bb	cc	dd
Norhan genotype	Aa	Bb	Cc	Dd
(a) Doha gametes
(b) Norhan gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

a802_1f80

Phenotype Diversity in Hybrid Cross

Phylicia and Sejal are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Phylicia genotype	AA	Bb	cc	dd
Sejal genotype	Aa	bb	CC	Dd
(a) Phylicia gametes
(b) Sejal gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

e388_1f80

Phenotype Diversity in Hybrid Cross

Pravalika and Jas are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Pravalika genotype	Aa	Bb	CC	Dd
Jas genotype	Aa	Bb	cc	Dd
(a) Pravalika gametes
(b) Jas gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

26bd_1f80

Phenotype Diversity in Hybrid Cross

Rusul and Matthew are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Rusul genotype	Aa	Bb	cc	Dd
Matthew genotype	Aa	Bb	CC	Dd
(a) Rusul gametes
(b) Matthew gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

450a_1f80

Phenotype Diversity in Hybrid Cross

Nate and Maricarmen are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Nate genotype	aa	Bb	cc	Dd
Maricarmen genotype	Aa	Bb	Cc	DD
(a) Nate gametes
(b) Maricarmen gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

7eec_1f80

Phenotype Diversity in Hybrid Cross

Jagoda and Mary are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Jagoda genotype	Aa	bb	Cc	DD
Mary genotype	Aa	bb	Cc	Dd
(a) Jagoda gametes
(b) Mary gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

cdba_1f80

Phenotype Diversity in Hybrid Cross

Sydney and Marianne are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Sydney genotype	AA	BB	Cc	Dd
Marianne genotype	AA	bb	cc	Dd
(a) Sydney gametes
(b) Marianne gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

6d56_1f80

Phenotype Diversity in Hybrid Cross

Lisa and Krystyna are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Lisa genotype	AA	Bb	cc	dd
Krystyna genotype	Aa	BB	Cc	Dd
(a) Lisa gametes
(b) Krystyna gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

bbde_1f80

Phenotype Diversity in Hybrid Cross

Ava and Silver are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Ava genotype	aa	Bb	Cc	Dd
Silver genotype	aa	bb	cc	Dd
(a) Ava gametes
(b) Silver gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

8bb8_1f80

Phenotype Diversity in Hybrid Cross

Erick and Alex are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Erick genotype	aa	Bb	CC	Dd
Alex genotype	aa	bb	CC	Dd
(a) Erick gametes
(b) Alex gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

5481_1f80

Phenotype Diversity in Hybrid Cross

Sonia and Alex are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Sonia genotype	Aa	bb	Cc	dd
Alex genotype	aa	Bb	Cc	DD
(a) Sonia gametes
(b) Alex gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes

80bd_319e

Phenotype Diversity in Hybrid Cross

Abram and Vikram are crossed. Use their genotypes to determine the number of different phenotypes possible in their offspring. An uppercase letter represents a dominant allele; a lowercase letter represents a recessive allele.

Hint: At each gene, Aa × Aa and Aa × aa can produce two phenotypes. All other crosses produce one phenotype. Multiply the counts across all genes.

Assume complete dominance and the principle of independent assortment for all genes.

Given these principles, how many unique PHENOTYPES could result from a hybrid cross between the following individuals?

Use the blank table to organize your work. For each gene, enter the number of possibilities, then multiply across the row to find the total.

Fill in the white cells and shaded TOTAL cells. Use your final total to select the answer below.

Genes →	A	B	C	D
Abram genotype	Aa	Bb	Cc	Dd
Vikram genotype	aa	bb	Cc	Dd
(a) Abram gametes
(b) Vikram gametes
(c) Punnett square size	→
(d) Number of cross genotypes
(e) Number of cross phenotypes