Two base pairs of double-stranded DNA are shown in the figure. Use your knowledge of base structure, hydrogen bonding, and strand polarity to write the sequence of each strand of DNA in a 5' to 3' direction. Left strand Right strand P- 0--H-N он CH N-H- N-H-0 CH N-H---O H-N CH, Left strand 5'- -3" Right strand 5'- -3'

Two base pairs of double-stranded DNA are shown in the figure. Use your knowledge of base structure, hydrogen bonding, and strand polarity to write the sequence of each strand of DNA in a 5' to 3' direction. Left strand Right strand P- 0--H-N он CH N-H- N-H-0 CH N-H---O H-N CH, Left strand 5'- -3" Right strand 5'- -3'

Human Heredity: Principles and Issues (MindTap Course List)

11th Edition

ISBN:9781305251052

Author:Michael Cummings

Publisher:Michael Cummings

Chapter8: The Structure, Replication, And Chromosomal Organization Of Dna

Section: Chapter Questions

Problem 22QP: Make the complementary strand for the following DNA template and label both strands as 5 to 3 or 3...

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Make the complementary strand for the following DNA template and label both strands as 5 to 3 or 3 to 5 (P = phosphate in the diagram). Draw an arrow showing the direction of synthesis of the new strand. How many hydrogen bonds are in this double strand of DNA? template: PAGGCTCGOH new strand:
Translate the .sequence of bases in the previous question, starting at the second base.
Using Figures 8.7 and 8.9 as a guide, draw a dinucleotide composed of C and A. Next to this, draw the complementary dinucleotide in an antiparallel fashion. Connect the dinucleotides with the appropriate hydrogen bonds. FIGURE 8.9 The two polynucleotide chains in DNA run in opposite directions. The left strand runs 5 to 3, and the right strand runs 3 to 5. The base sequences in each strand are complementary. An A in one strand pairs with a T in the other strand, and a C in one strand is paired with a G in the opposite strand. FIGURE 8.7 Nucleotides can be joined together to form chains caled polynucleotides. Polynucleotides are polar molecules with a 5 end (at the phosphate group) and a 3 end (at the sugar group). An RNA polynucleotide is shown at the left, and a DNA polynucleotide is shown at the right.
What is the function of DNA polymerase? a. It degrades DNA in cells. b. It adds RNA nucleotides to a new strand. c. It coils DNA around histones to form chromosomes. d. It adds DNA nucleotides to a replicating strand. e. None of these.
What is the complimentary DNA sequence to the strand below? C-G-G-T-T-A-G
Given the sequence of DNA strand 1, determine the correct sequence for DNA strand 2 based on nucleotide base-pairing rules. DNA strand 1: 5’ A T G A G A C T G A T T 3’ DNA strand 2:
The DNA sequence you use will be the following: T - A - G - C - C - A. You will need to make the complementary strand - fill in the table below with the complementary base pairs (remember Chargaff’s rule: A = T and C = G) 5’ T A G C C A 3’ 3’ 5’
Draw a stylized diagram of double-stranded DNA. Use a pentagon for sugar, a circle for phosphate and a square for bases. Label each base A, T, C or G. Show two pairs of nucleotides connected via hydrogen bonds (use all 4 letters). Show the polarity of each strand and clearly indicate the number of hydrogen bonds in each pair of nucleotides. Draw a solid-line circle around a nucleotide. Draw a dashed-line circle around a nucleoside. Indicate a phosphodiester bond using an arrow.
Suppose the following base sequence was found in a segment of one strand of a DNA molecule: 3’ A-A-T-A-C-C-T-C-C-T-A-A-C-T 5’ What would be the bases in the complementary strand? Label the 3’ and the 5’ ends. Illustrate the DNA molecule below. Label the 3’ and the 5’ ends of both strands. Separate the above DNA molecule up to the seventh base. Add one primer for the leading strand complementary to the first base Adenine of the template strand. Add one primer for the lagging strand complementary to the seventh base Adenine of the template strand. Illustrate the DNA molecule. Label the 3’ and 5’ ends. Elongate the new strands up the seventh base by adding DNA bases complementary to the template strand. Illustrate the resulting DNA molecule. Label the 3’ and the 5’ ends of the template strands and the complementary strands. Elongate the new strands up the seventh base by adding DNA bases complementary to the template strand. Illustrate the resulting DNA molecule. Label the 3’ and the 5’…
If the sequence T-A-C-C-C-T appears on the informational strand of DNA, what sequence appears opposite it on the template strand? Label your answer with 3′ and 5′ ends.
Shown below is a DNA coding strand. A base (*G*) mutates to Adenine (A). What will be the resulting amino acid sequence as a result of the mutation? What type of mutation occured? Hint: Determine the template, then first determine the amino acid sequence before the mutation, and then determine the amino acid sequence after the mutation. Show how you got your answer. 5' T-A-C-T-T-C-C-A-*G*-C-C-G-C-T-C 3'
A strand of DNA runs the following direction with the following base sequence: 3'-AUG CCC CAG TTA - 5' please note the direction of the strand and the sequence. Give the complimentary sequence of DNA, noting the direction of the sequence.