MC

ba8d_1dbe

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Vraj genotypeaaBbCcDd 
Nur genotypeAaBbCcDd 
(a) Vraj gametes     
(b) Nur gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Vraj and Nur produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

2   = 2 (i.e. 1 gene with two forms) Incorrect 24   = 16 (i.e. 4 genes with two 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 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

4b2d_450f

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Fadi genotypeaaBbCCDd 
Madalyn genotypeAaBbCcDd 
(a) Fadi gametes     
(b) Madalyn gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Fadi and Madalyn produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

22   = 4 (i.e. 2 genes with two forms) Incorrect 23   = 8 (i.e. 3 genes with two forms) Correct 24   = 16 (i.e. 4 genes with two 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) Incorrect 34   = 81 (i.e. 4 genes with three forms) Incorrect MC

8adb_42b0

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Raul genotypeAABbCcDD 
Brinda genotypeAabbccDd 
(a) Raul gametes     
(b) Brinda gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Raul and Brinda produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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

8594_0d7b

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Sharada genotypeAaBbccDd 
Asmita genotypeAABbCcDd 
(a) Sharada gametes     
(b) Asmita gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Sharada and Asmita produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

3   = 3 (i.e. 1 gene with three 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 24   = 16 (i.e. 4 genes with two forms) Incorrect 33   = 27 (i.e. 3 genes with three forms) Incorrect 34   = 81 (i.e. 4 genes with three forms) Incorrect MC

4e5b_83e0

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Luis genotypeAaBbccDd 
Jessica genotypeAaBbccDD 
(a) Luis gametes     
(b) Jessica gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Luis and Jessica produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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 × 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 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

158c_f6ff

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Chrissy genotypeAabbCcDd 
Claudia genotypeaaBBCcDd 
(a) Chrissy gametes     
(b) Claudia gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Chrissy and Claudia produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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 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 MC

7246_c181

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Shahd genotypeAaBbccDd 
Sthefani genotypeAABbCCDd 
(a) Shahd gametes     
(b) Sthefani gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Shahd and Sthefani produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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 32   = 9 (i.e. 2 genes with three forms) Incorrect 24   = 16 (i.e. 4 genes with two forms) Incorrect 33   = 27 (i.e. 3 genes with three forms) Incorrect MC

184a_0e6b

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Raseal genotypeAaBBCCDd 
Hanan genotypeAaBBCCDd 
(a) Raseal gametes     
(b) Hanan gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Raseal and Hanan produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

22   = 4 (i.e. 2 genes with two forms) Correct 32   = 9 (i.e. 2 genes 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 22 × 32   = 36 (i.e. 2 genes with two forms and 2 genes with three forms) Incorrect MC

81fb_921d

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Francisco genotypeAaBBCcDd 
Segun genotypeAaBbCcdd 
(a) Francisco gametes     
(b) Segun gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Francisco and Segun produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

2   = 2 (i.e. 1 gene with two 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 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) Incorrect MC

b399_4ff5

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Yusur genotypeAABbCcDD 
Jinalben genotypeaabbCcDd 
(a) Yusur gametes     
(b) Jinalben gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Yusur and Jinalben produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 2   = 2 (i.e. 1 gene with two forms) Incorrect 3   = 3 (i.e. 1 gene with three forms) Incorrect 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 34   = 81 (i.e. 4 genes with three forms) Incorrect MC

fe47_5b41

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Yusur genotypeAABbCcdd 
Doha genotypeAaBbCcDd 
(a) Yusur gametes     
(b) Doha gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Yusur and Doha produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 22   = 4 (i.e. 2 genes with two 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 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) Incorrect MC

a175_8dd3

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Faryal genotypeAABbCcdd 
Heydi genotypeaaBbCcDd 
(a) Faryal gametes     
(b) Heydi gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Faryal and Heydi produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

3   = 3 (i.e. 1 gene with three forms) Incorrect 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 32   = 9 (i.e. 2 genes with three forms) Incorrect 33   = 27 (i.e. 3 genes with three forms) Incorrect MC

0ac4_a3d5

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Neha genotypeAaBbccDD 
Miraj genotypeaaBbCCDd 
(a) Neha gametes     
(b) Miraj gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Neha and Miraj produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 22   = 4 (i.e. 2 genes with two forms) Correct 23   = 8 (i.e. 3 genes with two 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 34   = 81 (i.e. 4 genes with three forms) Incorrect MC

e6c8_d416

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Anthony genotypeAaBBCcDd 
Kareem genotypeaabbCcDd 
(a) Anthony gametes     
(b) Kareem gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Anthony and Kareem produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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

2757_730b

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Itzel genotypeAaBBCcDd 
Julia genotypeaaBbCcDD 
(a) Itzel gametes     
(b) Julia gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Itzel and Julia produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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

2e3b_c247

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Roxana genotypeAaBbccDD 
Swati genotypeaaBbCcDD 
(a) Roxana gametes     
(b) Swati gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Roxana and Swati produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 3   = 3 (i.e. 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 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

6372_ea2d

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Raul genotypeAaBbCCdd 
Harika genotypeAaBBCcDd 
(a) Raul gametes     
(b) Harika gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Raul and Harika produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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

2fc4_3522

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Sony genotypeAaBBCcdd 
Hailey genotypeAABbCcDd 
(a) Sony gametes     
(b) Hailey gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Sony and Hailey produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

2   = 2 (i.e. 1 gene with two forms) Incorrect 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 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 MC

741b_449e

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Isha genotypeAaBBccDd 
Yusur genotypeAaBbccDd 
(a) Isha gametes     
(b) Yusur gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Isha and Yusur produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

3   = 3 (i.e. 1 gene with three forms) Incorrect 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 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

f467_c86c

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Simranjit genotypeAaBbCcDD 
Mehul genotypeAABbCcdd 
(a) Simranjit gametes     
(b) Mehul gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Simranjit and Mehul produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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 32   = 9 (i.e. 2 genes 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 MC

d120_46a9

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Miriam genotypeaaBbCcDd 
Amparo genotypeAaBbCcDD 
(a) Miriam gametes     
(b) Amparo gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Miriam and Amparo produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

22   = 4 (i.e. 2 genes with two forms) Incorrect 23   = 8 (i.e. 3 genes with two 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

1fdd_d7f2

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Hamida genotypeAaBbCcDD 
Themarr genotypeaaBbCcdd 
(a) Hamida gametes     
(b) Themarr gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Hamida and Themarr produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

22   = 4 (i.e. 2 genes with two 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 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

b028_ea0e

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Mihir genotypeAabbCcDd 
Jhelam genotypeAABbCcDd 
(a) Mihir gametes     
(b) Jhelam gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Mihir and Jhelam produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

2   = 2 (i.e. 1 gene with two forms) Incorrect 23   = 8 (i.e. 3 genes with two 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 2 × 33   = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect MC

c0e0_84e2

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Noelle genotypeAaBbCcdd 
Noel genotypeAaBbCCDd 
(a) Noelle gametes     
(b) Noel gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Noelle and Noel produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

3   = 3 (i.e. 1 gene with three forms) Incorrect 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 32   = 9 (i.e. 2 genes with three forms) Incorrect 24   = 16 (i.e. 4 genes with two forms) Incorrect MC

44fd_27e5

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Afreen genotypeAaBBccDd 
Reyna genotypeAabbCcDd 
(a) Afreen gametes     
(b) Reyna gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Afreen and Reyna produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 23   = 8 (i.e. 3 genes with two forms) Correct 32   = 9 (i.e. 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

4330_e3b2

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Arinola genotypeAaBbccDd 
Nihar genotypeAaBBCCDd 
(a) Arinola gametes     
(b) Nihar gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Arinola and Nihar produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

3   = 3 (i.e. 1 gene with three forms) Incorrect 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 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

4792_3ef9

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Janelle genotypeAaBbCcDd 
Hetul genotypeAaBbCcDD 
(a) Janelle gametes     
(b) Hetul gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Janelle and Hetul produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 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 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

c9de_2bca

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Harriet genotypeAaBbccdd 
Doha genotypeAABbCcDd 
(a) Harriet gametes     
(b) Doha gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Harriet and Doha produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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

e5c1_5273

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Hafsa genotypeAaBbCCdd 
Samiyah genotypeAaBbCcDD 
(a) Hafsa gametes     
(b) Samiyah gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Hafsa and Samiyah produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

2   = 2 (i.e. 1 gene with two forms) Incorrect 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 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

44a2_0a03

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Mihir genotypeAaBbccDd 
Roshni genotypeAaBbccdd 
(a) Mihir gametes     
(b) Roshni gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Mihir and Roshni produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 3   = 3 (i.e. 1 gene with three forms) Incorrect 23   = 8 (i.e. 3 genes with two forms) Correct 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 34   = 81 (i.e. 4 genes with three forms) Incorrect MC

8e07_da3a

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Brinn genotypeAaBbCCdd 
Neha genotypeAabbccDd 
(a) Brinn gametes     
(b) Neha gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Brinn and Neha produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

22   = 4 (i.e. 2 genes with two forms) Incorrect 23   = 8 (i.e. 3 genes with two 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 34   = 81 (i.e. 4 genes with three forms) Incorrect MC

904d_e0d5

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Swati genotypeAaBbCcdd 
Arti genotypeAaBBCcdd 
(a) Swati gametes     
(b) Arti gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Swati and Arti produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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

25ad_fe28

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Amparo genotypeaabbCcDd 
Brinda genotypeAaBbCcDD 
(a) Amparo gametes     
(b) Brinda gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Amparo and Brinda produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

23   = 8 (i.e. 3 genes with two 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 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

59ee_a255

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Eleanor genotypeAabbCcDD 
Nur genotypeAaBbCCDd 
(a) Eleanor gametes     
(b) Nur gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Eleanor and Nur produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

2   = 2 (i.e. 1 gene with two forms) Incorrect 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 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

3c1f_320a

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Jay genotypeAABbCcDd 
Kenny genotypeAaBBCcDd 
(a) Jay gametes     
(b) Kenny gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Jay and Kenny produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 22   = 4 (i.e. 2 genes with two 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 MC

3b8a_84ee

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Jasmin genotypeAaBbccdd 
Claudia genotypeAABbCcDd 
(a) Jasmin gametes     
(b) Claudia gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Jasmin and Claudia produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 3   = 3 (i.e. 1 gene with three forms) Incorrect 22   = 4 (i.e. 2 genes with two forms) Incorrect 23   = 8 (i.e. 3 genes with two 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

3d9a_2cbc

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Sam genotypeaaBbCcDD 
Erick genotypeaaBbCcDd 
(a) Sam gametes     
(b) Erick gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Sam and Erick produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 22   = 4 (i.e. 2 genes with two forms) Correct 23   = 8 (i.e. 3 genes with two forms) Incorrect 24   = 16 (i.e. 4 genes with two 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) Incorrect MC

b290_c1aa

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Diamond genotypeaaBbCcDd 
Tatiana genotypeaaBbCcDd 
(a) Diamond gametes     
(b) Tatiana gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Diamond and Tatiana produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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

13d1_0b3b

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Myda genotypeAabbccDd 
Megan genotypeAaBBccDd 
(a) Myda gametes     
(b) Megan gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Myda and Megan produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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 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 34   = 81 (i.e. 4 genes with three forms) Incorrect MC

0f8a_15f0

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Anupam genotypeAaBbccDD 
Nivedha genotypeaaBbccDd 
(a) Anupam gametes     
(b) Nivedha gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Anupam and Nivedha produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 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 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 MC

897d_7b1e

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Srilatha genotypeAaBbCCDd 
Najmeh genotypeaaBbCCDd 
(a) Srilatha gametes     
(b) Najmeh gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Srilatha and Najmeh produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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 32   = 9 (i.e. 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

ff94_82c3

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Awais genotypeAabbccDd 
Isaac genotypeAABBCcDd 
(a) Awais gametes     
(b) Isaac gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Awais and Isaac produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 2   = 2 (i.e. 1 gene with two forms) Incorrect 22   = 4 (i.e. 2 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 33   = 27 (i.e. 3 genes with three forms) Incorrect MC

c034_f190

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Liza genotypeAABBCcDd 
Chanel genotypeAaBbCcDd 
(a) Liza gametes     
(b) Chanel gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Liza and Chanel produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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

4df2_800b

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Shifa genotypeAaBbccDD 
Yushi genotypeaaBbCcDd 
(a) Shifa gametes     
(b) Yushi gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Shifa and Yushi produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 2   = 2 (i.e. 1 gene with two forms) Incorrect 23   = 8 (i.e. 3 genes with two forms) Correct 32   = 9 (i.e. 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

e466_c365

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Brittany genotypeAaBbCCDd 
Chris genotypeAaBbCcdd 
(a) Brittany gametes     
(b) Chris gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Brittany and Chris produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

2   = 2 (i.e. 1 gene with two forms) Incorrect 3   = 3 (i.e. 1 gene with three 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 MC

79c6_e503

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Sharada genotypeAABbccDd 
Zain genotypeAaBbCcDD 
(a) Sharada gametes     
(b) Zain gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Sharada and Zain produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

2   = 2 (i.e. 1 gene with two forms) Incorrect 3   = 3 (i.e. 1 gene with three forms) Incorrect 22   = 4 (i.e. 2 genes with two forms) Correct 32   = 9 (i.e. 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

7dda_3108

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Radhika genotypeAABbCcDd 
Bilal genotypeAABBCcDd 
(a) Radhika gametes     
(b) Bilal gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Radhika and Bilal produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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

c20e_f00a

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Neha genotypeAaBbCcDd 
Chrissy genotypeAaBBCcDd 
(a) Neha gametes     
(b) Chrissy gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Neha and Chrissy produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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

7842_14b2

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Kareem genotypeAaBBCcDd 
Odalys genotypeAABbCcDd 
(a) Kareem gametes     
(b) Odalys gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Kareem and Odalys produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

1 Incorrect 22   = 4 (i.e. 2 genes with two forms) Correct 23   = 8 (i.e. 3 genes with two 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 MC

5eb4_a5ff

Independent Assortment in a Hybrid Cross

Assume independent assortment and complete dominance at every gene.

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 →ABCDTOTAL
Therese genotypeAaBbccdd 
Kristen genotypeaaBbCCDd 
(a) Therese gametes     
(b) Kristen gametes     
(c) Punnett square size→ 
(d) Number of cross genotypes     
(e) Number of cross phenotypes     

How many unique offspring phenotypes can the cross between Therese and Kristen produce?

Hint: Aa × Aa and Aa × aa produce two phenotypes. Other crosses produce one. Multiply across loci.

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 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 2 × 33   = 54 (i.e. 1 gene with two forms and 3 genes with three forms) Incorrect