FileTitleManuscript Id
Chapter Introductionlodish8e_ch11_1.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_1_dlap.xml572b8b0d757a2efc31000000
11.1 Overview of Transmembrane Transport lodish8e_ch11_2.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_2_dlap.xml572b8b0d757a2efc31000000
Only Gases and Small Uncharged Molecules Cross Membranes by Simple Diffusion lodish8e_ch11_3.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_3_dlap.xml572b8b0d757a2efc31000000
Three Main Classes of Membrane Proteins Transport Molecules and Ions Across Cellular Membranes lodish8e_ch11_4.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_4_dlap.xml572b8b0d757a2efc31000000
Key Concepts of Section 11.1lodish8e_ch11_5.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_5_dlap.xml572b8b0d757a2efc31000000
11.2 Facilitated Transport of Glucose and Water lodish8e_ch11_6.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_6_dlap.xml572b8b0d757a2efc31000000
Uniport Transport Is Faster and More Specific than Simple Diffusion lodish8e_ch11_7.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_7_dlap.xml572b8b0d757a2efc31000000
The Low Km of the GLUT1 Uniporter Enables It to Transport Glucose into Most Mammalian Cells lodish8e_ch11_8.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_8_dlap.xml572b8b0d757a2efc31000000
The Human Genome Encodes a Family of Sugar-Transporting GLUT Proteins lodish8e_ch11_9.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_9_dlap.xml572b8b0d757a2efc31000000
Transport Proteins Can Be Studied Using Artificial Membranes and Recombinant Cells lodish8e_ch11_10.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_10_dlap.xml572b8b0d757a2efc31000000
Osmotic Pressure Causes Water to Move Across Membranes lodish8e_ch11_11.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_11_dlap.xml572b8b0d757a2efc31000000
Aquaporins Increase the Water Permeability of Cellular Membranes lodish8e_ch11_12.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_12_dlap.xml572b8b0d757a2efc31000000
Key Concepts of Section 11.2lodish8e_ch11_13.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_13_dlap.xml572b8b0d757a2efc31000000
11.3 ATP-Powered Pumps and the Intracellular Ionic Environment lodish8e_ch11_14.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_14_dlap.xml572b8b0d757a2efc31000000
There Are Four Main Classes of ATP-Powered Pumps lodish8e_ch11_15.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_15_dlap.xml572b8b0d757a2efc31000000
ATP-Powered Ion Pumps Generate and Maintain Ionic Gradients Across Cellular Membranes lodish8e_ch11_16.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_16_dlap.xml572b8b0d757a2efc31000000
Muscle Relaxation Depends on Ca2+ ATPases That Pump Ca2+ from the Cytosol into the Sarcoplasmic Reticulum lodish8e_ch11_17.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_17_dlap.xml572b8b0d757a2efc31000000
The Mechanism of Action of the Ca2+ Pump Is Known in Detail lodish8e_ch11_18.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_18_dlap.xml572b8b0d757a2efc31000000
Calmodulin Regulates the Plasma-Membrane Pumps That Control Cytosolic Ca2+ Concentrations lodish8e_ch11_19.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_19_dlap.xml572b8b0d757a2efc31000000
The Na+/K+ ATPase Maintains the Intracellular Na+ and K+ Concentrations in Animal Cells lodish8e_ch11_20.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_20_dlap.xml572b8b0d757a2efc31000000
V-Class H+ ATPases Maintain the Acidity of Lysosomes and Vacuoles lodish8e_ch11_21.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_21_dlap.xml572b8b0d757a2efc31000000
ABC Proteins Export a Wide Variety of Drugs and Toxins from the Cell lodish8e_ch11_22.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_22_dlap.xml572b8b0d757a2efc31000000
Certain ABC Proteins “Flip” Phospholipids and Other Lipid-Soluble Substrates from One Membrane Leaflet to the Other lodish8e_ch11_23.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_23_dlap.xml572b8b0d757a2efc31000000
The ABC Cystic Fibrosis Transmembrane Regulator Is a Chloride Channel, Not a Pump lodish8e_ch11_24.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_24_dlap.xml572b8b0d757a2efc31000000
Key Concepts of Section 11.3lodish8e_ch11_25.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_25_dlap.xml572b8b0d757a2efc31000000
11.4 Nongated Ion Channels and the Resting Membrane Potential lodish8e_ch11_26.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_26_dlap.xml572b8b0d757a2efc31000000
Selective Movement of Ions Creates a Transmembrane Electric Gradient lodish8e_ch11_27.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_27_dlap.xml572b8b0d757a2efc31000000
The Resting Membrane Potential in Animal Cells Depends Largely on the Outward Flow of K+ Ions Through Open K+ Channels lodish8e_ch11_28.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_28_dlap.xml572b8b0d757a2efc31000000
Ion Channels Are Selective for Certain Ions by Virtue of a Molecular “Selectivity Filter” lodish8e_ch11_29.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_29_dlap.xml572b8b0d757a2efc31000000
Patch Clamps Permit Measurement of Ion Movements Through Single Channels lodish8e_ch11_30.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_30_dlap.xml572b8b0d757a2efc31000000
Novel Ion Channels Can Be Characterized by a Combination of Oocyte Expression and Patch Clamping lodish8e_ch11_31.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_31_dlap.xml572b8b0d757a2efc31000000
Key Concepts of Section 11.4lodish8e_ch11_32.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_32_dlap.xml572b8b0d757a2efc31000000
11.5 Cotransport by Symporters and Antiporters lodish8e_ch11_33.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_33_dlap.xml572b8b0d757a2efc31000000
Na+ Entry into Mammalian Cells Is Thermodynamically Favored lodish8e_ch11_34.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_34_dlap.xml572b8b0d757a2efc31000000
Na+-Linked Symporters Enable Animal Cells to Import Glucose and Amino Acids Against High Concentration Gradients lodish8e_ch11_35.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_35_dlap.xml572b8b0d757a2efc31000000
A Bacterial Na+/Amino Acid Symporter Reveals How Symport Works lodish8e_ch11_36.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_36_dlap.xml572b8b0d757a2efc31000000
A Na+-Linked Ca2+ Antiporter Regulates the Strength of Cardiac Muscle Contraction lodish8e_ch11_37.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_37_dlap.xml572b8b0d757a2efc31000000
Several Cotransporters Regulate Cytosolic pH lodish8e_ch11_38.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_38_dlap.xml572b8b0d757a2efc31000000
An Anion Antiporter Is Essential for Transport of CO2 by Erythrocytes lodish8e_ch11_39.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_39_dlap.xml572b8b0d757a2efc31000000
Numerous Transport Proteins Enable Plant Vacuoles to Accumulate Metabolites and Ions lodish8e_ch11_40.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_40_dlap.xml572b8b0d757a2efc31000000
Key Concepts of Section 11.5lodish8e_ch11_41.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_41_dlap.xml572b8b0d757a2efc31000000
11.6 Transcellular Transport lodish8e_ch11_42.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_42_dlap.xml572b8b0d757a2efc31000000
Multiple Transport Proteins Are Needed to Move Glucose and Amino Acids Across Epithelia lodish8e_ch11_43.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_43_dlap.xml572b8b0d757a2efc31000000
Simple Rehydration Therapy Depends on the Osmotic Gradient Created by Absorption of Glucose and Na+lodish8e_ch11_44.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_44_dlap.xml572b8b0d757a2efc31000000
Parietal Cells Acidify the Stomach Contents While Maintaining a Neutral Cytosolic pH lodish8e_ch11_45.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_45_dlap.xml572b8b0d757a2efc31000000
Bone Resorption Requires the Coordinated Function of a V-Class Proton Pump and a Specific Chloride Channel lodish8e_ch11_46.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_46_dlap.xml572b8b0d757a2efc31000000
Key Concepts of Section 11.6lodish8e_ch11_47.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_47_dlap.xml572b8b0d757a2efc31000000
Key Terms lodish8e_ch11_48.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_48_dlap.xml572b8b0d757a2efc31000000
Review the Concepts lodish8e_ch11_49.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_49_dlap.xml572b8b0d757a2efc31000000
Extended References lodish8e_ch11_50.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_50_dlap.xml572b8b0d757a2efc31000000
Perspectives for the Future lodish8e_ch11_51.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_51_dlap.xml572b8b0d757a2efc31000000
Classic Experiment 11-1: Stumbling upon Active Transportlodish8e_ch11_52.html572b8b0d757a2efc31000000
DLAP questionslodish8e_ch11_52_dlap.xml572b8b0d757a2efc31000000