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Opener A “Smart Drug”

Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

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Page 1: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Opener A “Smart Drug”

Page 2: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.1 One Gene, One Enzyme (Part 1)

Page 3: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.1 One Gene, One Enzyme (Part 2)

Page 4: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.2 Hemoglobin Polymorphism

Page 5: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.3 Genetic Diseases of Membrane Proteins (Part 1)

Page 6: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.3 Genetic Diseases of Membrane Proteins (Part 2)

Page 7: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.3 Genetic Diseases of Membrane Proteins (Part 3)

Page 8: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.3 Genetic Diseases of Membrane Proteins (Part 4)

Page 9: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.4 Prion Proteins

Page 10: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.5 A Fragile-X Chromosome at Metaphase

Page 11: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.6 Strategies for Isolating Human Genes

Page 12: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.7 RFLP Mapping (Part 1)

Page 13: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.7 RFLP Mapping (Part 2)

Page 14: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.8 5-Methylcytosine in DNA Is a “Hot Spot” for Mutagenesis (Part 1)

Page 15: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.8 5-Methylcytosine in DNA Is a “Hot Spot” for Mutagenesis (Part 2)

Page 16: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.9 The CGG Repeat in the Fragile-X Gene Expands with Each Generation

Page 17: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.10 Genetic Screening of Newborns for Phenylketonuria (Part 1)

Page 18: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.10 Genetic Screening of Newborns for Phenylketonuria (Part 2)

Page 19: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.11 DNA Testing by Allele-Specific Cleavage

Page 20: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.12 DNA Testing by Allele-Specific Oligonucleotide Hybridization (Part 1)

Page 21: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.12 DNA Testing by Allele-Specific Oligonucleotide Hybridization (Part 2)

Page 22: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.13 A Cancer Cell with Its Normal Neighbors

Page 23: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.14 Dividing Cells Are Especially Susceptible to Genetic Damage

Page 24: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.15 Oncogene Products Stimulate Cell Division

Page 25: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.16 The “Two-Hit” Hypothesis for Cancer

Page 26: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.17 Tumor Suppressor Gene Products Inhibit Cell Division and Cancer

Page 27: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.18 Multiple Mutations Transform a Normal Colon Epithelial Cell into a Cancer Cell (1)

Page 28: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.18 Multiple Mutations Transform a Normal Colon Epithelial Cell into a Cancer Cell (2)

Page 29: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.18 Multiple Mutations Transform a Normal Colon Epithelial Cell into a Cancer Cell (3)

Page 30: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.19 Strategies for Killing Cancer Cells

Page 31: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.20 Gene Therapy: The Ex Vivo Approach (Part 1)

Page 32: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.20 Gene Therapy: The Ex Vivo Approach (Part 2)

Page 33: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.21 Two Approaches to Sequencing DNA

Page 34: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.22 The Human Genome

Page 35: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.23 Is This the Future of Medicine?

Page 36: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.24 Proteomics (Part 1)

Page 37: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Figure 17.24 Proteomics (Part 2)

Page 38: Opener A “Smart Drug”. Figure 17.1 One Gene, One Enzyme (Part 1)

Table 17.1 Human Cancers Known To Be Caused by Viruses