DNA Replication

By Cody Verostic

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

DNA Helicase comes in and unzips the double helix.

5’

3’

3’

5’

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

DNA Helicase comes in and unzips the double helix.

5’

3’

3’

5’

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

DNA Helicase comes in and unzips the double helix.

5’

3’

3’

5’

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

DNA Helicase comes in and unzips the double helix.

5’

3’

3’

5’

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

DNA Helicase comes in and unzips the double helix.

5’

3’

3’

5’

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

DNA Helicase comes in and unzips the double helix.

5’

3’

3’

5’

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

DNA Helicase comes in and unzips the double helix.

5’

3’

3’

5’

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

DNA Helicase comes in and unzips the double helix.

5’

3’

3’

5’

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

DNA Helicase comes in and unzips the double helix.

5’

3’

3’

5’

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.

Sugar

Phosphate

Adenine

Thymine

Cytosine

Guanine

DNA Helicase

5’

3’

3’

5’

The DNA strands are split up and connected with the other fragments in the process of Polymerase.