File | Title | Manuscript Id |
Chapter Introduction | lodish8e_ch3_1.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_1_dlap.xml | 571fba59757a2e5f23000000 |
3.1 Hierarchical Structure of Proteins
| lodish8e_ch3_2.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_2_dlap.xml | 571fba59757a2e5f23000000 |
The Primary Structure of a Protein Is Its Linear Arrangement of Amino Acids
| lodish8e_ch3_3.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_3_dlap.xml | 571fba59757a2e5f23000000 |
Secondary Structures Are the Core Elements of Protein Architecture
| lodish8e_ch3_4.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_4_dlap.xml | 571fba59757a2e5f23000000 |
Tertiary Structure Is the Overall Folding of a Polypeptide Chain
| lodish8e_ch3_5.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_5_dlap.xml | 571fba59757a2e5f23000000 |
There Are Four Broad Structural Categories of Proteins
| lodish8e_ch3_6.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_6_dlap.xml | 571fba59757a2e5f23000000 |
Different Ways of Depicting the Conformation of Proteins Convey Different Types of Information
| lodish8e_ch3_7.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_7_dlap.xml | 571fba59757a2e5f23000000 |
Structural Motifs Are Regular Combinations of Secondary Structures
| lodish8e_ch3_8.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_8_dlap.xml | 571fba59757a2e5f23000000 |
Domains Are Modules of Tertiary Structure
| lodish8e_ch3_9.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_9_dlap.xml | 571fba59757a2e5f23000000 |
Multiple Polypeptides Assemble into Quaternary Structures and Supramolecular Complexes
| lodish8e_ch3_10.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_10_dlap.xml | 571fba59757a2e5f23000000 |
Comparing Protein Sequences and Structures Provides Insight into Protein Function and Evolution
| lodish8e_ch3_11.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_11_dlap.xml | 571fba59757a2e5f23000000 |
Key Concepts of Section 3.1 | lodish8e_ch3_12.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_12_dlap.xml | 571fba59757a2e5f23000000 |
3.2 Protein Folding
| lodish8e_ch3_13.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_13_dlap.xml | 571fba59757a2e5f23000000 |
Planar Peptide Bonds Limit the Shapes into Which Proteins Can Fold
| lodish8e_ch3_14.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_14_dlap.xml | 571fba59757a2e5f23000000 |
The Amino Acid Sequence of a Protein Determines How It Will Fold
| lodish8e_ch3_15.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_15_dlap.xml | 571fba59757a2e5f23000000 |
Folding of Proteins in Vivo Is Promoted by Chaperones
| lodish8e_ch3_16.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_16_dlap.xml | 571fba59757a2e5f23000000 |
Protein Folding Is Promoted by Proline Isomerases
| lodish8e_ch3_17.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_17_dlap.xml | 571fba59757a2e5f23000000 |
Abnormally Folded Proteins Can Form Amyloids That Are Implicated in Diseases
| lodish8e_ch3_18.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_18_dlap.xml | 571fba59757a2e5f23000000 |
Key Concepts of Section 3.2 | lodish8e_ch3_19.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_19_dlap.xml | 571fba59757a2e5f23000000 |
3.3 Protein Binding and Enzyme Catalysis
| lodish8e_ch3_20.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_20_dlap.xml | 571fba59757a2e5f23000000 |
Specific Binding of Ligands Underlies the Functions of Most Proteins
| lodish8e_ch3_21.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_21_dlap.xml | 571fba59757a2e5f23000000 |
Enzymes Are Highly Efficient and Specific Catalysts
| lodish8e_ch3_22.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_22_dlap.xml | 571fba59757a2e5f23000000 |
An Enzyme’s Active Site Binds Substrates and Carries Out Catalysis
| lodish8e_ch3_23.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_23_dlap.xml | 571fba59757a2e5f23000000 |
Serine Proteases Demonstrate How an Enzyme’s Active Site Works
| lodish8e_ch3_24.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_24_dlap.xml | 571fba59757a2e5f23000000 |
Enzymes in a Common Pathway Are Often Physically Associated with One Another
| lodish8e_ch3_25.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_25_dlap.xml | 571fba59757a2e5f23000000 |
Key Concepts of Section 3.3 | lodish8e_ch3_26.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_26_dlap.xml | 571fba59757a2e5f23000000 |
3.4 Regulating Protein Function
| lodish8e_ch3_27.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_27_dlap.xml | 571fba59757a2e5f23000000 |
Regulated Synthesis and Degradation of Proteins Is a Fundamental Property of Cells
| lodish8e_ch3_28.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_28_dlap.xml | 571fba59757a2e5f23000000 |
The Proteasome Is a Molecular Machine Used to Degrade Proteins
| lodish8e_ch3_29.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_29_dlap.xml | 571fba59757a2e5f23000000 |
Ubiquitin Marks Cytosolic Proteins for Degradation in Proteasomes
| lodish8e_ch3_30.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_30_dlap.xml | 571fba59757a2e5f23000000 |
Noncovalent Binding Permits Allosteric, or Cooperative, Regulation of Proteins
| lodish8e_ch3_31.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_31_dlap.xml | 571fba59757a2e5f23000000 |
Noncovalent Binding of Calcium and GTP Are Widely Used as Allosteric Switches to Control Protein Activity
| lodish8e_ch3_32.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_32_dlap.xml | 571fba59757a2e5f23000000 |
Phosphorylation and Dephosphorylation Covalently Regulate Protein Activity
| lodish8e_ch3_33.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_33_dlap.xml | 571fba59757a2e5f23000000 |
Ubiquitinylation and Deubiquitinylation Covalently Regulate Protein Activity
| lodish8e_ch3_34.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_34_dlap.xml | 571fba59757a2e5f23000000 |
Proteolytic Cleavage Irreversibly Activates or Inactivates Some Proteins
| lodish8e_ch3_35.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_35_dlap.xml | 571fba59757a2e5f23000000 |
Higher-Order Regulation Includes Control of Protein Location
| lodish8e_ch3_36.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_36_dlap.xml | 571fba59757a2e5f23000000 |
Key Concepts of Section 3.4 | lodish8e_ch3_37.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_37_dlap.xml | 571fba59757a2e5f23000000 |
3.5 Purifying, Detecting, and Characterizing Proteins
| lodish8e_ch3_38.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_38_dlap.xml | 571fba59757a2e5f23000000 |
Centrifugation Can Separate Particles and Molecules That Differ in Mass or Density
| lodish8e_ch3_39.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_39_dlap.xml | 571fba59757a2e5f23000000 |
Electrophoresis Separates Molecules on the Basis of Their Charge-to-Mass Ratio
| lodish8e_ch3_40.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_40_dlap.xml | 571fba59757a2e5f23000000 |
Liquid Chromatography Resolves Proteins by Mass, Charge, or Affinity
| lodish8e_ch3_41.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_41_dlap.xml | 571fba59757a2e5f23000000 |
Highly Specific Enzyme and Antibody Assays Can Detect Individual Proteins
| lodish8e_ch3_42.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_42_dlap.xml | 571fba59757a2e5f23000000 |
Radioisotopes Are Indispensable Tools for Detecting Biological Molecules
| lodish8e_ch3_43.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_43_dlap.xml | 571fba59757a2e5f23000000 |
Mass Spectrometry Can Determine the Mass and Sequence of Proteins
| lodish8e_ch3_44.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_44_dlap.xml | 571fba59757a2e5f23000000 |
Protein Primary Structure Can Be Determined by Chemical Methods and from Gene Sequences
| lodish8e_ch3_45.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_45_dlap.xml | 571fba59757a2e5f23000000 |
Protein Conformation Is Determined by Sophisticated Physical Methods
| lodish8e_ch3_46.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_46_dlap.xml | 571fba59757a2e5f23000000 |
Key Concepts of Section 3.5 | lodish8e_ch3_47.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_47_dlap.xml | 571fba59757a2e5f23000000 |
3.6 Proteomics
| lodish8e_ch3_48.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_48_dlap.xml | 571fba59757a2e5f23000000 |
Proteomics Is the Study of All or a Large Subset of Proteins in a Biological System
| lodish8e_ch3_49.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_49_dlap.xml | 571fba59757a2e5f23000000 |
Advanced Techniques in Mass Spectrometry Are Critical to Proteomic Analysis
| lodish8e_ch3_50.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_50_dlap.xml | 571fba59757a2e5f23000000 |
Key Concepts of Section 3.6 | lodish8e_ch3_51.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_51_dlap.xml | 571fba59757a2e5f23000000 |
Key Terms
| lodish8e_ch3_52.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_52_dlap.xml | 571fba59757a2e5f23000000 |
Review the Concepts
| lodish8e_ch3_53.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_53_dlap.xml | 571fba59757a2e5f23000000 |
Extended References
| lodish8e_ch3_54.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_54_dlap.xml | 571fba59757a2e5f23000000 |
Perspectives for the Future
| lodish8e_ch3_55.html | 571fba59757a2e5f23000000 |
DLAP questions | lodish8e_ch3_55_dlap.xml | 571fba59757a2e5f23000000 |