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EberhartDNAmodel
- 1. DNA Replication Animation By: Alex Eberhart
- 2. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 3. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 4. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 5. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 6. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 7. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 8. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 9. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 10. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 11. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 12. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 13. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 14. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 15. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 16. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 17. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 18. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 19. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 20. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 21. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 22. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Cytosine -Phosphate -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 23. 5’ 3’ Replication begins at the origin of replication. The DNA Helicase unwinds or unzips the double helix so there will be two separate DNA strands to begin replicating. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Helicase
- 29. 5’ 5’ 3’ Single-Stranded Binding Proteins bind to the leading strand to keep it stable while the enzyme, DNA Polymerase III comes in and synthesizes the leading strand constantly. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Polymerase III
- 30. 5’ 5’ 3’ Single-Stranded Binding Proteins bind to the leading strand to keep it stable while the enzyme, DNA Polymerase III comes in and synthesizes the leading strand constantly. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Polymerase III
- 31. 5’ 3’ Single-Stranded Binding Proteins bind to the leading strand to keep it stable while the enzyme, DNA Polymerase III comes in and synthesizes the leading strand constantly. 5’ -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Polymerase III
- 32. 5’ 3’ Single-Stranded Binding Proteins bind to the leading strand to keep it stable while the enzyme, DNA Polymerase III comes in and synthesizes the leading strand constantly. 5’ -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Polymerase III
- 33. 5’ 3’ Single-Stranded Binding Proteins bind to the leading strand to keep it stable while the enzyme, DNA Polymerase III comes in and synthesizes the leading strand constantly. 5’ -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Polymerase III
- 34. 5’ 3’ Single-Stranded Binding Proteins bind to the leading strand to keep it stable while the enzyme, DNA Polymerase III comes in and synthesizes the leading strand constantly. -Sugar 5’ -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’ -Thymine -DNA Polymerase III
- 35. 5’ 3’ Single-Stranded Binding Proteins bind to the leading strand to keep it stable while the enzyme, DNA Polymerase III comes in and synthesizes the leading strand constantly. -Sugar -Phosphate 5’ -Nucleotide -Adenine -Guanine 3’ -Cytosine 5’ -Thymine -DNA Polymerase III
- 36. 5’ 3’ Single-Stranded Binding Proteins bind to the leading strand to keep it stable while the enzyme, DNA Polymerase III comes in and synthesizes the leading strand constantly. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine 5’ 3’ -Guanine 5’ -Thymine -DNA Polymerase III
- 37. 5’ 3’ 3’ Single-Stranded Binding Proteins bind to the leading strand to keep it stable while the enzyme, DNA Polymerase III comes in and synthesizes the leading strand constantly. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’ 5’ -Thymine -DNA Polymerase III
- 52. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 53. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 54. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 55. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 56. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 57. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 58. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 59. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 60. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 61. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 62. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Cytosine -Nucleotide -Adenine -Guanine 3’ 5’3’ 5’ -Thymine -RNA -DNA Polymerase I
- 63. 5’ 3’5’ 3’ The enzyme, DNA Polymerase I then has to come in and synthesize the lagging strand to change the RNA into DNA. -Sugar -Phosphate -Adenine -Guanine 3 5’3’ 5’ -Thymine -Cytosine -Nucleotide
- 73. 5’ 3’5’ 3’ In the end there are now 4 strands of DNA. -Sugar -Phosphate -Adenine -Guanine 3 5’3’ 5’ -Thymine -Cytosine -Nucleotide