1. In-Text Art, Ch. 9, p. 166

2. In-Text Art, Ch. 3, p. 37

3. Figure 3.1 Nucleotides Have Three Components

4. Figure 3.2 Linking Nucleotides Together

5. In-Text Art, Ch. 3, p. 36

6. Figure 3.3 RNA

7. Figure 3.4 DNA

8. Figure 3.5 DNA Replication and Transcription

9. In-Text Art, Ch. 9, p. 169

11. Figure 9.5 DNA Is a Double Helix

12. Figure 9.6 Base Pairs in DNA Can Interact with Other Molecules

13. In-Text Art, Ch. 9, p. 172

14. Figure 9.7 Each New DNA Strand Grows by the Addition of Nucleotides to Its 3′ End

15. Figure 9.8 The Origin of DNA Replication

16. Figure 9.9 DNA Forms with a Primer

17. Figure 9.10 DNA Polymerase Binds to the Template Strand

18. Figure 9.11 The Two New Strands Form in Different Ways

19. Figure 9.12 The Lagging Strand Story

20. Figure 9.12 The Lagging Strand Story (Part 1)

21. Figure 9.12 The Lagging Strand Story (Part 2)

22. Figure 9.12 The Lagging Strand Story (Part 3)

23. Figure 9.13 Telomeres and Telomerase

25. Figure 9.14 DNA Repair Mechanisms

26. Figure 9.14 DNA Repair Mechanisms (Part 2)

27. Figure 9.16 Mutation and Phenotype

28. Figure 9.18 Spontaneous and Induced Mutations

29. Figure 9.18 Spontaneous and Induced Mutations (Part 1)

30. Figure 9.18 Spontaneous and Induced Mutations (Part 2)

31. Figure 9.18 Spontaneous and Induced Mutations (Part 3)

32. Figure 9.19 5-Methylcytosine in DNA Is a “Hotspot” for Mutations

33. Figure 10.1 Metabolic Diseases and Enzymes

34. Figure 10.2 Gene Mutations and Amino Acid Changes

35. Figure 10.3 From Gene to Protein

36. Figure 10.5 DNA Is Transcribed to Form RNA

37. Figure 10.5 DNA Is Transcribed to Form RNA (Part 1)

38. Figure 10.5 DNA Is Transcribed to Form RNA (Part 2)

39. Figure 10.5 DNA Is Transcribed to Form RNA (Part 3)

40. Figure 10.5 DNA Is Transcribed to Form RNA (Part 4)

41. Figure 10.6 Transcription of a Eukaryotic Gene

42. Figure 10.6 Transcription of a Eukaryotic Gene (Part 1)

43. Figure 10.6 Transcription of a Eukaryotic Gene (Part 2)

44. Table 10.1 Differences between Prokaryotic and Eukaryotic Gene Expression

45. Figure 10.9 The Spliceosome: An RNA Splicing Machine

47. In-Text Art, Ch. 10, p. 195

48. Figure 10.11 The Genetic Code

49. Figure 10.12 Mutations

50. Figure 10.12 Mutations (Part 1)

51. Figure 10.12 Mutations (Part 2)

52. Figure 10.12 Mutations (Part 3)

53. Figure 10.12 Mutations (Part 4)

54. Figure 10.13 Transfer RNA

55. Figure 10.14 Ribosome Structure

56. Figure 10.15 The Initiation of Translation

58. Figure 10.15 The Initiation of Translation (Part 1)

59. Figure 10.15 The Initiation of Translation (Part 2)

60. Figure 10.16 The Elongation of Translation

61. Figure 10.16 The Elongation of Translation (Part 1)

62. Figure 10.16 The Elongation of Translation (Part 2)

63. Figure 10.17 The Termination of Translation

64. Figure 10.17 The Termination of Translation (Part 1)

65. Figure 10.17 The Termination of Translation (Part 2)

66. Table 10.2 Signals that Start and Stop Transcription and Translation

67. Figure 10.18 A Polysome

68. Figure 10.18 A Polysome (Part 1)

69. Figure 10.18 A Polysome (Part 2)

70. Figure 10.19 Destinations for Newly Translated Polypeptides in a Eukaryotic Cell

71. Figure 10.19 Destinations for Newly Translated Polypeptides in a Eukaryotic Cell (Part 2)

72. Figure 10.21 Posttranslational Modifications of Proteins

74. Figure 10.22 An Antibiotic at the Ribosome