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’