Animation dna
- 1. Legend: Strand 2 Adenine Thymine Strand 1 Cytosine Guanine Helicase DNA Strand
- 2. The Helicase comes in and unravels and splits the DNA.
- 3. The Helicase comes in and unravels and splits the DNA.
- 4. The Helicase comes in and unravels and splits the DNA.
- 5. The Helicase comes in and unravels and splits the DNA.
- 6. The Helicase comes in and unravels and splits the DNA.
- 7. The Helicase comes in and unravels and splits the DNA.
- 8. The Helicase comes in and unravels and splits the DNA.
- 9. The Helicase comes in and unravels and splits the DNA.
- 10. The Helicase comes in and unravels and splits the DNA.
- 11. The Helicase comes in and unravels and splits the DNA.
- 12. The Helicase comes in and unravels and splits the DNA.
- 13. The Helicase comes in and unravels and splits the DNA.
- 14. The Helicase comes in and unravels and splits the DNA.
- 15. The Helicase comes in and unravels and splits the DNA.
- 16. The Helicase comes in and unravels and splits the DNA.
- 17. The Helicase comes in and unravels and splits the DNA.
- 18. The Helicase comes in and unravels and splits the DNA.
- 19. The Helicase comes in and unravels and splits the DNA.
- 20. The Helicase comes in and unravels and splits the DNA.
- 21. The Helicase comes in and unravels and splits the DNA.
- 22. The Helicase comes in and unravels and splits the DNA.
- 23. The Helicase comes in and unravels and splits the DNA.
- 29. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 30. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 31. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 32. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 33. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 34. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 35. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 36. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 37. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 38. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 39. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 40. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 41. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 42. DNA polymerase comes in and gives the first strand matching pairs of bases.
- 46. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 47. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 48. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 49. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 50. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 51. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 52. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 53. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 54. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 55. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 56. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 57. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 58. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 59. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 60. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 61. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 62. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 63. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 64. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 65. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 66. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 67. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 68. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 69. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 70. An RNA primer starts the right strand and Okazaki fragments can then match up with the bases.
- 72. • Telomeres- A compound structure at the end of a chromosome. • Okazaki fragments- a section of complementary strand • DNA ligase-It plays a role in repairing single-strand breaks in duplex DNA in living organisms • Telomerase- an enzyme that adds telomere repeat sequences to the 3' end of DNA strands • Cancer- The disease caused by an uncontrolled division of abnormal cells in a part of the body • Transplanted cells-a procedure that replaces unhealthy stem cells with healthy ones. • Cloning-a procedure for producing multiple copies of genetically identical organisms or cells or of individual genes. • Aging-a consequence of unrepaired accumulation of naturally occurring DNA damages. • DNA replication happens in the synthesis stage, or the third stage.