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BBizousky_DNA_Replication_Animation

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Prepare your eyes for the greatest DNA animation you have ever seen...

Prepare your eyes for the greatest DNA animation you have ever seen...

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  • Put in the DNA polymerase III
  • Change the key and put in the different enzymes
  • Transcript

    • 1. DNA Replication Blake Bizousky
    • 2. 5’ 3’ DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase 3’ 5’ - Nucleotide
    • 3. 5’ 3’ DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase 3’ 5’ - Nucleotide
    • 4. 5’ 3’ DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase 3’ 5’ - Nucleotide
    • 5. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 6. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 7. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 8. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 9. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 10. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 11. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 12. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 13. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 14. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 15. DNA replication is a process where DNA is copied. This process occurs in a cell stage called interphase. In order for the DNA molecule to “unzip” the hydrogen bonds shared between the different nitrogen bases such as adenine, thymine, guanine, and cytosine, must break apart. The enzyme that unwinds and unzips the molecule is DNA helicase. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - DNA helicase - Nucleotide
    • 16. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 17. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 18. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 19. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 20. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 21. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 22. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 23. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 24. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 25. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 26. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 27. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 28. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 29. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 30. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 31. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 32. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 33. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 34. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 35. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 36. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 37. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 38. Once the DNA molecule is completely “unzipped”, new nucleotides are linked together to make exact copies of the DNA. The strand on the left is strand 1 and the strand on the right is strand 2. This strand coming into the DNA would be a complementary strand to strand 1. Only certain bases can bond together. Mutations can occur during this process, though they can only happen few times. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 39. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 40. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 41. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 42. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 43. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 44. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 45. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 46. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 47. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 48. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 49. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 50. Strand 1 is now zipped up in a continuous way. The strand zips from a 5’ prime to 3’ prime. These two stands are paired together by DNA polymerase III in complete part these strands are called the leading strand. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 51. Now that one DNA molecule has been copied the other strand must be paired with it’s complementary strand too. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 52. Now that one DNA molecule has been copied the other strand must be paired with it’s complementary strand too. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 53. Now that one DNA molecule has been copied the other strand must be paired with it’s complementary strand too. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 54. Now that one DNA molecule has been copied the other strand must be paired with it’s complementary strand too. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 55. Now that one DNA molecule has been copied the other strand must be paired with it’s complementary strand too. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 56. Now that one DNA molecule has been copied the other strand must be paired with it’s complementary strand too. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 57. Now that one DNA molecule has been copied the other strand must be paired with it’s complementary strand too. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 58. Now that one DNA molecule has been copied the other strand must be paired with it’s complementary strand too. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 59. Now that one DNA molecule has been copied the other strand must be paired with it’s complementary strand too. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 60. Strand 2 from the original DNA molecule must still be paired together with complementary nucleotides to form the second copy of the DNA. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 61. Strand 2 from the original DNA molecule must still be paired together with complementary nucleotides to form the second copy of the DNA. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 62. Strand 2 from the original DNA molecule must still be paired together with complementary nucleotides to form the second copy of the DNA. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 63. Strand 2 from the original DNA molecule must still be paired together with complementary nucleotides to form the second copy of the DNA. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 64. Strand 2 from the original DNA molecule must still be paired together with complementary nucleotides to form the second copy of the DNA. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 65. Strand 2 from the original DNA molecule must still be paired together with complementary nucleotides to form the second copy of the DNA. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 66. Strand 2 from the original DNA molecule must still be paired together with complementary nucleotides to form the second copy of the DNA. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 67. Strand 2 from the original DNA molecule must still be paired together with complementary nucleotides to form the second copy of the DNA. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III
    • 68. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 69. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 70. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 71. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 72. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 73. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 74. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 75. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 76. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 77. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 78. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 79. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 80. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 81. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 82. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 83. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 84. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 85. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 86. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 87. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 88. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 89. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 90. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 91. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 92. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 93. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 94. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 95. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 96. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 97. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 98. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 99. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 100. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 101. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 102. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 103. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 104. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 105. This DNA molecule will be pair together in 3’ to 5’. This strand is the lagging strand and is paired up in small segments called Okazaki fragments. Once a starting point is given by Primase, DNA polymerase III then finishes pairing the nucleotides with the help of DNA ligase and DNA polymerase I. - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 106. We now have two identical DNA molecule! - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 107. We now have two identical DNA molecule! - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 108. We now have two identical DNA molecule! - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 109. We now have two identical DNA molecule! - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I
    • 110. 5’ 3’ 5’ 3’ We now have two identical DNA molecule! - Adenine - Phosphate -Thymine - Sugar -Guanine -Cytosine - Nucleotide -DNA Polymerase III -DNA Ligase - DNA Polymerase I 3’ 5’ 3’ 5’