FileTitleManuscript Id
Chapter Introductionlodish8e_ch5_1.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_1_dlap.xml572b8030757a2e1c31000000
5.1 Structure of Nucleic Acids lodish8e_ch5_2.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_2_dlap.xml572b8030757a2e1c31000000
A Nucleic Acid Strand Is a Linear Polymer with End-to-End Directionality lodish8e_ch5_3.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_3_dlap.xml572b8030757a2e1c31000000
Native DNA Is a Double Helix of Complementary Antiparallel Strands lodish8e_ch5_4.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_4_dlap.xml572b8030757a2e1c31000000
DNA Can Undergo Reversible Strand Separation lodish8e_ch5_5.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_5_dlap.xml572b8030757a2e1c31000000
Torsional Stress in DNA Is Relieved by Enzymes lodish8e_ch5_6.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_6_dlap.xml572b8030757a2e1c31000000
Different Types of RNA Exhibit Various Conformations Related to Their Functions lodish8e_ch5_7.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_7_dlap.xml572b8030757a2e1c31000000
Key Concepts of Section 5.1lodish8e_ch5_8.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_8_dlap.xml572b8030757a2e1c31000000
5.2 Transcription of Protein-Coding Genes and Formation of Functional mRNA lodish8e_ch5_9.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_9_dlap.xml572b8030757a2e1c31000000
A Template DNA Strand Is Transcribed into a Complementary RNA Chain by RNA Polymerase lodish8e_ch5_10.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_10_dlap.xml572b8030757a2e1c31000000
Organization of Genes Differs in Prokaryotic and Eukaryotic DNA lodish8e_ch5_11.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_11_dlap.xml572b8030757a2e1c31000000
Eukaryotic Precursor mRNAs Are Processed to Form Functional mRNAs lodish8e_ch5_12.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_12_dlap.xml572b8030757a2e1c31000000
Alternative RNA Splicing Increases the Number of Proteins Expressed from a Single Eukaryotic Gene lodish8e_ch5_13.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_13_dlap.xml572b8030757a2e1c31000000
Key Concepts of Section 5.2lodish8e_ch5_14.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_14_dlap.xml572b8030757a2e1c31000000
5.3 The Decoding of mRNA by tRNAs lodish8e_ch5_15.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_15_dlap.xml572b8030757a2e1c31000000
Messenger RNA Carries Information from DNA in a Three-Letter Genetic Code lodish8e_ch5_16.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_16_dlap.xml572b8030757a2e1c31000000
The Folded Structure of tRNA Promotes Its Decoding Functions lodish8e_ch5_17.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_17_dlap.xml572b8030757a2e1c31000000
Nonstandard Base Pairing Often Occurs Between Codons and Anticodons lodish8e_ch5_18.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_18_dlap.xml572b8030757a2e1c31000000
Amino Acids Become Activated When Covalently Linked to tRNAs lodish8e_ch5_19.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_19_dlap.xml572b8030757a2e1c31000000
Key Concepts of Section 5.3lodish8e_ch5_20.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_20_dlap.xml572b8030757a2e1c31000000
5.4 Stepwise Synthesis of Proteins on Ribosomes lodish8e_ch5_21.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_21_dlap.xml572b8030757a2e1c31000000
Ribosomes Are Protein-Synthesizing Machines lodish8e_ch5_22.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_22_dlap.xml572b8030757a2e1c31000000
Methionyl-tRNAiMet Recognizes the AUG Start Codon lodish8e_ch5_23.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_23_dlap.xml572b8030757a2e1c31000000
Eukaryotic Translation Initiation Usually Occurs at the First AUG Downstream from the 5′ End of an mRNA lodish8e_ch5_24.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_24_dlap.xml572b8030757a2e1c31000000
During Chain Elongation Each Incoming Aminoacyl-tRNA Moves Through Three Ribosomal Sites lodish8e_ch5_25.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_25_dlap.xml572b8030757a2e1c31000000
Translation Is Terminated by Release Factors When a Stop Codon Is Reached lodish8e_ch5_26.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_26_dlap.xml572b8030757a2e1c31000000
Polysomes and Rapid Ribosome Recycling Increase the Efficiency of Translation lodish8e_ch5_27.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_27_dlap.xml572b8030757a2e1c31000000
GTPase-Superfamily Proteins Function in Several Quality-Control Steps of Translation lodish8e_ch5_28.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_28_dlap.xml572b8030757a2e1c31000000
Nonsense Mutations Cause Premature Termination of Protein Synthesis lodish8e_ch5_29.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_29_dlap.xml572b8030757a2e1c31000000
Key Concepts of Section 5.4lodish8e_ch5_30.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_30_dlap.xml572b8030757a2e1c31000000
5.5 DNA Replication lodish8e_ch5_31.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_31_dlap.xml572b8030757a2e1c31000000
DNA Polymerases Require a Primer to Initiate Replication lodish8e_ch5_32.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_32_dlap.xml572b8030757a2e1c31000000
Duplex DNA Is Unwound, and Daughter Strands Are Formed at the DNA Replication Fork lodish8e_ch5_33.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_33_dlap.xml572b8030757a2e1c31000000
Several Proteins Participate in DNA Replication lodish8e_ch5_34.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_34_dlap.xml572b8030757a2e1c31000000
DNA Replication Occurs Bidirectionally from Each Origin lodish8e_ch5_35.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_35_dlap.xml572b8030757a2e1c31000000
Key Concepts of Section 5.5lodish8e_ch5_36.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_36_dlap.xml572b8030757a2e1c31000000
5.6 DNA Repair and Recombination lodish8e_ch5_37.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_37_dlap.xml572b8030757a2e1c31000000
DNA Polymerases Introduce Copying Errors and Also Correct Them lodish8e_ch5_38.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_38_dlap.xml572b8030757a2e1c31000000
Chemical and Radiation Damage to DNA Can Lead to Mutations lodish8e_ch5_39.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_39_dlap.xml572b8030757a2e1c31000000
High-Fidelity DNA Excision-Repair Systems Recognize and Repair Damage lodish8e_ch5_40.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_40_dlap.xml572b8030757a2e1c31000000
Base Excision Repairs T-G Mismatches and Damaged Bases lodish8e_ch5_41.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_41_dlap.xml572b8030757a2e1c31000000
Mismatch Excision Repairs Other Mismatches and Small Insertions and Deletions lodish8e_ch5_42.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_42_dlap.xml572b8030757a2e1c31000000
Nucleotide Excision Repairs Chemical Adducts that Distort Normal DNA Shape lodish8e_ch5_43.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_43_dlap.xml572b8030757a2e1c31000000
Two Systems Use Recombination to Repair Double-Strand Breaks in DNA lodish8e_ch5_44.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_44_dlap.xml572b8030757a2e1c31000000
Homologous Recombination Can Repair DNA Damage and Generate Genetic Diversity lodish8e_ch5_45.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_45_dlap.xml572b8030757a2e1c31000000
Key Concepts of Section 5.6lodish8e_ch5_46.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_46_dlap.xml572b8030757a2e1c31000000
5.7 Viruses: Parasites of the Cellular Genetic System lodish8e_ch5_47.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_47_dlap.xml572b8030757a2e1c31000000
Most Viral Host Ranges Are Narrow lodish8e_ch5_48.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_48_dlap.xml572b8030757a2e1c31000000
Viral Capsids Are Regular Arrays of One or a Few Types of Protein lodish8e_ch5_49.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_49_dlap.xml572b8030757a2e1c31000000
Viruses Can Be Cloned and Counted in Plaque Assays lodish8e_ch5_50.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_50_dlap.xml572b8030757a2e1c31000000
Lytic Viral Growth Cycles Lead to Death of Host Cells lodish8e_ch5_51.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_51_dlap.xml572b8030757a2e1c31000000
Viral DNA Is Integrated into the Host-Cell Genome in Some Nonlytic Viral Growth Cycles lodish8e_ch5_52.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_52_dlap.xml572b8030757a2e1c31000000
Key Concepts of Section 5.7lodish8e_ch5_53.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_53_dlap.xml572b8030757a2e1c31000000
Key Terms lodish8e_ch5_54.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_54_dlap.xml572b8030757a2e1c31000000
Review the Concepts lodish8e_ch5_55.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_55_dlap.xml572b8030757a2e1c31000000
Extended References lodish8e_ch5_56.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_56_dlap.xml572b8030757a2e1c31000000
Perspectives for the Future lodish8e_ch5_57.html572b8030757a2e1c31000000
DLAP questionslodish8e_ch5_57_dlap.xml572b8030757a2e1c31000000