e1ba_fe12

Genotype Diversity in Hybrid Cross

Mary and Rebecca are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Hint: For each gene pair from the parents, you can get 1, 2, or 3 unique genotypes.
This is based on the combinations: homozygous x homozygous (1), homozygous x heterozygous (2), and heterozygous x heterozygous (3).

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Mary genotype	Aa	bb	Cc	DD
Rebecca genotype	aa	Bb	Cc	DD
(a) Mary gametes
(b) Rebecca gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Correct 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

a52f_3280

Genotype Diversity in Hybrid Cross

Ravikumar and Xavier are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Ravikumar genotype	aa	BB	CC	Dd
Xavier genotype	aa	BB	Cc	Dd
(a) Ravikumar gametes
(b) Xavier gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Correct 2³ = 8 (i.e. 3 genes with two forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

df22_e57f

Genotype Diversity in Hybrid Cross

Jocelyn and Lupe are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Jocelyn genotype	aa	Bb	Cc	Dd
Lupe genotype	aa	Bb	CC	Dd
(a) Jocelyn gametes
(b) Lupe gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² = 4 (i.e. 2 genes with two 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 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Correct 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

78fc_6444

Genotype Diversity in Hybrid Cross

Vanessa and Toni are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Vanessa genotype	Aa	Bb	Cc	Dd
Toni genotype	aa	Bb	Cc	Dd
(a) Vanessa gametes
(b) Toni gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Correct 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

0752_ecef

Genotype Diversity in Hybrid Cross

Silvana and Marta are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Silvana genotype	aa	Bb	Cc	Dd
Marta genotype	AA	Bb	cc	dd
(a) Silvana gametes
(b) Marta gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Correct 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

71c8_6cc7

Genotype Diversity in Hybrid Cross

Antonia and Namrah are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Antonia genotype	AA	BB	Cc	dd
Namrah genotype	Aa	Bb	cc	Dd
(a) Antonia gametes
(b) Namrah gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² = 4 (i.e. 2 genes with two 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 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

c6b9_e1f9

Genotype Diversity in Hybrid Cross

Praveena and Amanda are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Praveena genotype	AA	bb	cc	Dd
Amanda genotype	AA	Bb	CC	dd
(a) Praveena gametes
(b) Amanda gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 3² = 9 (i.e. 2 genes with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

7f3d_204c

Genotype Diversity in Hybrid Cross

Nivedha and Aysun are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Nivedha genotype	aa	Bb	Cc	DD
Aysun genotype	Aa	BB	Cc	dd
(a) Nivedha gametes
(b) Aysun gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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) Correct 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

4a84_a96a

Genotype Diversity in Hybrid Cross

Itzel and Megan are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Itzel genotype	Aa	BB	CC	Dd
Megan genotype	Aa	bb	CC	Dd
(a) Itzel gametes
(b) Megan gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 3² = 9 (i.e. 2 genes with three forms) Correct 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

66a1_b04b

Genotype Diversity in Hybrid Cross

Rudmine and Sunya are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Rudmine genotype	Aa	Bb	CC	dd
Sunya genotype	Aa	Bb	CC	DD
(a) Rudmine gametes
(b) Sunya gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Incorrect 3² = 9 (i.e. 2 genes with three forms) Correct 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

16ee_6cc7

Genotype Diversity in Hybrid Cross

Ramon and Mackenzye are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Ramon genotype	aa	Bb	Cc	DD
Mackenzye genotype	Aa	bb	cc	Dd
(a) Ramon gametes
(b) Mackenzye gametes
(c) Punnett square size	→
(d) Number of cross genotypes

5bc4_1865

Genotype Diversity in Hybrid Cross

Abbey and Perla are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Abbey genotype	Aa	BB	Cc	Dd
Perla genotype	Aa	Bb	Cc	DD
(a) Abbey gametes
(b) Perla gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three 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) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Correct MC

3473_80f4

Genotype Diversity in Hybrid Cross

Misbah and Alona are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Misbah genotype	Aa	Bb	cc	dd
Alona genotype	Aa	bb	Cc	dd
(a) Misbah gametes
(b) Alona gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² = 4 (i.e. 2 genes with two forms) Incorrect 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Correct 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

70a0_d07e

Genotype Diversity in Hybrid Cross

Mehul and Riddhi are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Mehul genotype	Aa	Bb	Cc	Dd
Riddhi genotype	Aa	Bb	Cc	dd
(a) Mehul gametes
(b) Riddhi gametes
(c) Punnett square size	→
(d) Number of cross genotypes

3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Correct 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

31a6_bd8e

Genotype Diversity in Hybrid Cross

Anupam and Nur are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Anupam genotype	Aa	BB	CC	DD
Nur genotype	Aa	BB	CC	Dd
(a) Anupam gametes
(b) Nur gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Correct 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

d2f9_6cc7

Genotype Diversity in Hybrid Cross

Dulce and Monika are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Dulce genotype	aa	Bb	cc	Dd
Monika genotype	Aa	bb	Cc	dd
(a) Dulce gametes
(b) Monika gametes
(c) Punnett square size	→
(d) Number of cross genotypes

4dfc_f99c

Genotype Diversity in Hybrid Cross

Kirstin and Kayla are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Kirstin genotype	AA	Bb	Cc	Dd
Kayla genotype	Aa	BB	CC	Dd
(a) Kirstin gametes
(b) Kayla gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² = 4 (i.e. 2 genes with two forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Correct 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

9ec5_6b70

Genotype Diversity in Hybrid Cross

Haneef and Yamini are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Haneef genotype	aa	Bb	CC	Dd
Yamini genotype	aa	BB	Cc	Dd
(a) Haneef gametes
(b) Yamini gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Correct 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect MC

5542_948e

Genotype Diversity in Hybrid Cross

Valbhi and kushil are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Valbhi genotype	Aa	bb	Cc	Dd
kushil genotype	AA	Bb	Cc	dd
(a) Valbhi gametes
(b) kushil gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Correct 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

78eb_6cc7

Genotype Diversity in Hybrid Cross

Rosanna and Karen are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Rosanna genotype	aa	Bb	Cc	DD
Karen genotype	Aa	BB	cc	Dd
(a) Rosanna gametes
(b) Karen gametes
(c) Punnett square size	→
(d) Number of cross genotypes

1fe7_2acf

Genotype Diversity in Hybrid Cross

Yoana and Hasena are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Yoana genotype	Aa	Bb	Cc	Dd
Hasena genotype	Aa	Bb	Cc	Dd
(a) Yoana gametes
(b) Hasena gametes
(c) Punnett square size	→
(d) Number of cross genotypes

3² = 9 (i.e. 2 genes with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect 3⁴ = 81 (i.e. 4 genes with three forms) Correct MC

9395_57cb

Genotype Diversity in Hybrid Cross

Abram and Jamie are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Jamie genotype	AA	bb	Cc	Dd
(a) Abram gametes
(b) Jamie gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² = 4 (i.e. 2 genes with two forms) Incorrect 2³ = 8 (i.e. 3 genes with two forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Correct 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

797a_3459

Genotype Diversity in Hybrid Cross

Husna and Rory are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Husna genotype	aa	Bb	CC	Dd
Rory genotype	Aa	Bb	Cc	Dd
(a) Husna gametes
(b) Rory gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2³ = 8 (i.e. 3 genes with two forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Correct 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

265f_d4f6

Genotype Diversity in Hybrid Cross

Abdul and Nathickshi are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Abdul genotype	Aa	bb	cc	Dd
Nathickshi genotype	Aa	bb	CC	DD
(a) Abdul gametes
(b) Nathickshi gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Correct 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect MC

369d_1a9b

Genotype Diversity in Hybrid Cross

Harika and Rachel are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Harika genotype	Aa	bb	Cc	dd
Rachel genotype	Aa	Bb	cc	Dd
(a) Harika gametes
(b) Rachel gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² = 4 (i.e. 2 genes with two 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 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Correct 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

0088_17b9

Genotype Diversity in Hybrid Cross

Salman and Sthefani are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Salman genotype	aa	BB	CC	Dd
Sthefani genotype	Aa	BB	Cc	dd
(a) Salman gametes
(b) Sthefani gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

3fdb_d25a

Genotype Diversity in Hybrid Cross

Hiedy and Mackenzye are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Hiedy genotype	Aa	BB	Cc	DD
Mackenzye genotype	Aa	Bb	Cc	DD
(a) Hiedy gametes
(b) Mackenzye gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Correct 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

b2f6_d20e

Genotype Diversity in Hybrid Cross

Nina and Ivanna are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Nina genotype	aa	Bb	Cc	dd
Ivanna genotype	Aa	BB	Cc	DD
(a) Nina gametes
(b) Ivanna gametes
(c) Punnett square size	→
(d) Number of cross genotypes

3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Correct 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

e0e0_e043

Genotype Diversity in Hybrid Cross

Tom and Naheda are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Tom genotype	aa	Bb	Cc	dd
Naheda genotype	AA	Bb	Cc	DD
(a) Tom gametes
(b) Naheda gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Incorrect 3² = 9 (i.e. 2 genes with three forms) Correct 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

d6f4_8abc

Genotype Diversity in Hybrid Cross

Clinton and Jenna are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Clinton genotype	AA	Bb	cc	Dd
Jenna genotype	AA	Bb	Cc	Dd
(a) Clinton gametes
(b) Jenna gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Correct 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

d2bd_9de8

Genotype Diversity in Hybrid Cross

Hilda and Nyah are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Hilda genotype	Aa	Bb	CC	Dd
Nyah genotype	Aa	Bb	Cc	Dd
(a) Hilda gametes
(b) Nyah gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Correct 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

e1df_46a9

Genotype Diversity in Hybrid Cross

Yamini and Tania are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Yamini genotype	Aa	BB	cc	Dd
Tania genotype	Aa	BB	Cc	dd
(a) Yamini gametes
(b) Tania gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² = 4 (i.e. 2 genes with two forms) Incorrect 2³ = 8 (i.e. 3 genes with two forms) Incorrect 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Correct 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect MC

9b3a_0a9d

Genotype Diversity in Hybrid Cross

Aditi and Safi are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Aditi genotype	aa	bb	cc	Dd
Safi genotype	aa	bb	Cc	Dd
(a) Aditi gametes
(b) Safi gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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) Correct 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

d9a1_c90e

Genotype Diversity in Hybrid Cross

Amtul and Ryan are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Amtul genotype	Aa	Bb	Cc	Dd
Ryan genotype	Aa	Bb	CC	dd
(a) Amtul gametes
(b) Ryan gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Incorrect 3² = 9 (i.e. 2 genes with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Correct MC

40b8_8632

Genotype Diversity in Hybrid Cross

Suchi and Katya are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Suchi genotype	Aa	bb	Cc	dd
Katya genotype	Aa	Bb	Cc	Dd
(a) Suchi gametes
(b) Katya gametes
(c) Punnett square size	→
(d) Number of cross genotypes

3² = 9 (i.e. 2 genes with three forms) Incorrect 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Correct 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

bf2b_d20e

Genotype Diversity in Hybrid Cross

Shal and Tempie are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Tempie genotype	aa	Bb	cc	Dd
(a) Shal gametes
(b) Tempie gametes
(c) Punnett square size	→
(d) Number of cross genotypes

cb34_205d

Genotype Diversity in Hybrid Cross

Jeanette and Aashi are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Jeanette genotype	Aa	bb	CC	Dd
Aashi genotype	Aa	bb	CC	Dd
(a) Jeanette gametes
(b) Aashi gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² = 4 (i.e. 2 genes with two forms) Incorrect 3² = 9 (i.e. 2 genes with three forms) Correct 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

1ac6_0f3c

Genotype Diversity in Hybrid Cross

Mackenzye and Praveena are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Praveena genotype	AA	bb	CC	Dd
(a) Mackenzye gametes
(b) Praveena gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² = 4 (i.e. 2 genes with two forms) Incorrect 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Correct 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

b541_03b9

Genotype Diversity in Hybrid Cross

Michael and Jamie are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Michael genotype	Aa	bb	Cc	Dd
Jamie genotype	AA	Bb	Cc	Dd
(a) Michael gametes
(b) Jamie gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 3² = 9 (i.e. 2 genes with three forms) Incorrect 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Correct MC

b22a_78e7

Genotype Diversity in Hybrid Cross

Suchi and Ethan are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Suchi genotype	Aa	bb	cc	Dd
Ethan genotype	aa	Bb	CC	DD
(a) Suchi gametes
(b) Ethan gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect MC

46dc_3920

Genotype Diversity in Hybrid Cross

Cory and Urszula are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Cory genotype	aa	Bb	Cc	Dd
Urszula genotype	aa	Bb	cc	dd
(a) Cory gametes
(b) Urszula gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Correct 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect 2 × 3³ = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

0ce9_ec44

Genotype Diversity in Hybrid Cross

Abdul and Courtney are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Abdul genotype	aa	bb	Cc	Dd
Courtney genotype	Aa	Bb	Cc	Dd
(a) Abdul gametes
(b) Courtney gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 3² = 9 (i.e. 2 genes with three 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) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Correct MC

f432_7e5f

Genotype Diversity in Hybrid Cross

Daisy and Genesis are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Genesis genotype	Aa	Bb	cc	DD
(a) Daisy gametes
(b) Genesis gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Correct MC

8d8b_fd83

Genotype Diversity in Hybrid Cross

Katherine and Mikaela are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Katherine genotype	Aa	Bb	Cc	Dd
Mikaela genotype	Aa	BB	CC	Dd
(a) Katherine gametes
(b) Mikaela gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Incorrect 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Correct 3⁴ = 81 (i.e. 4 genes with three forms) Incorrect MC

d85d_fc76

Genotype Diversity in Hybrid Cross

Selena and Kathryn are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Selena genotype	AA	bb	Cc	dd
Kathryn genotype	Aa	bb	Cc	dd
(a) Selena gametes
(b) Kathryn gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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) Correct 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect MC

f483_c90e

Genotype Diversity in Hybrid Cross

Salume and Erick are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Salume genotype	Aa	BB	Cc	DD
Erick genotype	Aa	BB	cc	dd
(a) Salume gametes
(b) Erick gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2 × 3 = 6 (i.e. 1 gene with two forms and 1 gene with three forms) Correct 3² = 9 (i.e. 2 genes with three forms) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

d97f_1c4b

Genotype Diversity in Hybrid Cross

Conor and Dima are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Conor genotype	AA	Bb	Cc	Dd
Dima genotype	Aa	Bb	cc	Dd
(a) Conor gametes
(b) Dima gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect 2² × 3² = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Correct MC

b391_48cb

Genotype Diversity in Hybrid Cross

Isaac and Adria are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Isaac genotype	AA	bb	Cc	Dd
Adria genotype	Aa	bb	CC	Dd
(a) Isaac gametes
(b) Adria gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2³ = 8 (i.e. 3 genes with two forms) Incorrect 3² = 9 (i.e. 2 genes with three forms) Incorrect 2² × 3 = 12 (i.e. 2 genes with two forms and 1 gene with three forms) Correct 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect MC

aa22_81ba

Genotype Diversity in Hybrid Cross

Mikhail and Abbey are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Mikhail genotype	AA	bb	Cc	dd
Abbey genotype	Aa	Bb	Cc	dd
(a) Mikhail gametes
(b) Abbey gametes
(c) Punnett square size	→
(d) Number of cross genotypes

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) Correct 2⁴ = 16 (i.e. 4 genes with two forms) Incorrect 3³ = 27 (i.e. 3 genes with three forms) Incorrect MC

8a6f_76ae

Genotype Diversity in Hybrid Cross

Brenda and Miguel are crossed. Use their genotypes to determine the number of different genotypes possible in their offspring.

Assume that all genes sort independently and display complete dominance.

Considering the principle of independent assortment, how many unique GENOTYPES could be produced in 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
Miguel genotype	AA	Bb	cc	DD
(a) Brenda gametes
(b) Miguel gametes
(c) Punnett square size	→
(d) Number of cross genotypes

2² = 4 (i.e. 2 genes with two forms) Correct 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) Incorrect 2 × 3² = 18 (i.e. 1 gene with two forms and 2 genes with three forms) Incorrect 2³ × 3 = 24 (i.e. 3 genes with two forms and 1 gene with three forms) Incorrect