FileTitleManuscript Id
Chapter Introductionlodish8e_ch22_1.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_1_dlap.xml57335f41757a2ede7e000005
22.1 Neurons and Glia: Building Blocks of the Nervous System lodish8e_ch22_2.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_2_dlap.xml57335f41757a2ede7e000005
Information Flows Through Neurons from Dendrites to Axons lodish8e_ch22_3.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_3_dlap.xml57335f41757a2ede7e000005
Information Moves Along Axons as Pulses of Ion Flow Called Action Potentials lodish8e_ch22_4.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_4_dlap.xml57335f41757a2ede7e000005
Information Flows Between Neurons via Synapses lodish8e_ch22_5.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_5_dlap.xml57335f41757a2ede7e000005
The Nervous System Uses Signaling Circuits Composed of Multiple Neurons lodish8e_ch22_6.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_6_dlap.xml57335f41757a2ede7e000005
Glial Cells Form Myelin Sheaths and Support Neurons lodish8e_ch22_7.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_7_dlap.xml57335f41757a2ede7e000005
Neural Stem Cells Form Nerve and Glial Cells in the Central Nervous System lodish8e_ch22_8.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_8_dlap.xml57335f41757a2ede7e000005
Key Concepts of Section 22.1lodish8e_ch22_9.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_9_dlap.xml57335f41757a2ede7e000005
22.2 Voltage-Gated Ion Channels and the Propagation of Action Potentials lodish8e_ch22_10.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_10_dlap.xml57335f41757a2ede7e000005
The Magnitude of the Action Potential Is Close to ENa and Is Caused by Na+ Influx Through Open Na+ Channels lodish8e_ch22_11.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_11_dlap.xml57335f41757a2ede7e000005
Sequential Opening and Closing of Voltage-Gated Na+ and K+ Channels Generate Action Potentials lodish8e_ch22_12.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_12_dlap.xml57335f41757a2ede7e000005
Action Potentials Are Propagated Unidirectionally Without Diminution lodish8e_ch22_13.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_13_dlap.xml57335f41757a2ede7e000005
Nerve Cells Can Conduct Many Action Potentials in the Absence of ATP lodish8e_ch22_14.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_14_dlap.xml57335f41757a2ede7e000005
All Voltage-Gated Ion Channels Have Similar Structures lodish8e_ch22_15.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_15_dlap.xml57335f41757a2ede7e000005
Voltage-Sensing S4 α Helices Move in Response to Membrane Depolarization lodish8e_ch22_16.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_16_dlap.xml57335f41757a2ede7e000005
Movement of the Channel-Inactivating Segment into the Open Pore Blocks Ion Flow lodish8e_ch22_17.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_17_dlap.xml57335f41757a2ede7e000005
Myelination Increases the Velocity of Impulse Conduction lodish8e_ch22_18.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_18_dlap.xml57335f41757a2ede7e000005
Action Potentials “Jump” from Node to Node in Myelinated Axons lodish8e_ch22_19.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_19_dlap.xml57335f41757a2ede7e000005
Two Types of Glia Produce Myelin Sheaths lodish8e_ch22_20.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_20_dlap.xml57335f41757a2ede7e000005
Light-Activated Ion Channels and Optogenetics lodish8e_ch22_21.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_21_dlap.xml57335f41757a2ede7e000005
Key Concepts of Section 22.2lodish8e_ch22_22.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_22_dlap.xml57335f41757a2ede7e000005
22.3 Communication at Synapses lodish8e_ch22_23.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_23_dlap.xml57335f41757a2ede7e000005
Formation of Synapses Requires Assembly of Presynaptic and Postsynaptic Structures lodish8e_ch22_24.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_24_dlap.xml57335f41757a2ede7e000005
Neurotransmitters Are Transported into Synaptic Vesicles by H+-Linked Antiport Proteins lodish8e_ch22_25.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_25_dlap.xml57335f41757a2ede7e000005
Three Pools of Synaptic Vesicles Loaded with Neurotransmitter Are Present in the Presynaptic Terminal lodish8e_ch22_26.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_26_dlap.xml57335f41757a2ede7e000005
Influx of Ca2+ Triggers Release of Neurotransmitters lodish8e_ch22_27.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_27_dlap.xml57335f41757a2ede7e000005
A Calcium-Binding Protein Regulates Fusion of Synaptic Vesicles with the Plasma Membrane lodish8e_ch22_28.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_28_dlap.xml57335f41757a2ede7e000005
Fly Mutants Lacking Dynamin Cannot Recycle Synaptic Vesicles lodish8e_ch22_29.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_29_dlap.xml57335f41757a2ede7e000005
Signaling at Synapses Is Terminated by Degradation or Reuptake of Neurotransmitters lodish8e_ch22_30.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_30_dlap.xml57335f41757a2ede7e000005
Opening of Acetylcholine-Gated Cation Channels Leads to Muscle Contraction lodish8e_ch22_31.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_31_dlap.xml57335f41757a2ede7e000005
All Five Subunits in the Nicotinic Acetylcholine Receptor Contribute to the Ion Channel lodish8e_ch22_32.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_32_dlap.xml57335f41757a2ede7e000005
Nerve Cells Integrate Many Inputs to Make an All-or-None Decision to Generate an Action Potential lodish8e_ch22_33.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_33_dlap.xml57335f41757a2ede7e000005
Gap Junctions Allow Direct Communication Between Neurons and Between Glia lodish8e_ch22_34.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_34_dlap.xml57335f41757a2ede7e000005
Key Concepts of Section 22.3lodish8e_ch22_35.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_35_dlap.xml57335f41757a2ede7e000005
22.4 Sensing the Environment: Touch, Pain, Taste, and Smell lodish8e_ch22_36.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_36_dlap.xml57335f41757a2ede7e000005
Mechanoreceptors Are Gated Cation Channels lodish8e_ch22_37.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_37_dlap.xml57335f41757a2ede7e000005
Pain Receptors Are Also Gated Cation Channels lodish8e_ch22_38.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_38_dlap.xml57335f41757a2ede7e000005
Five Primary Tastes Are Sensed by Subsets of Cells in Each Taste Bud lodish8e_ch22_39.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_39_dlap.xml57335f41757a2ede7e000005
A Plethora of Receptors Detect Odors lodish8e_ch22_40.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_40_dlap.xml57335f41757a2ede7e000005
Each Olfactory Receptor Neuron Expresses a Single Type of Odorant Receptor lodish8e_ch22_41.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_41_dlap.xml57335f41757a2ede7e000005
Key Concepts of Section 22.4lodish8e_ch22_42.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_42_dlap.xml57335f41757a2ede7e000005
22.5 Forming and Storing Memories lodish8e_ch22_43.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_43_dlap.xml57335f41757a2ede7e000005
Memories Are Formed by Changing the Number or Strength of Synapses Between Neurons lodish8e_ch22_44.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_44_dlap.xml57335f41757a2ede7e000005
The Hippocampus Is Required for Memory Formation lodish8e_ch22_45.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_45_dlap.xml57335f41757a2ede7e000005
Multiple Molecular Mechanisms Contribute to Synaptic Plasticity lodish8e_ch22_46.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_46_dlap.xml57335f41757a2ede7e000005
Formation of Long-Term Memories Requires Gene Expression lodish8e_ch22_47.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_47_dlap.xml57335f41757a2ede7e000005
Key Concepts of Section 22.5lodish8e_ch22_48.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_48_dlap.xml57335f41757a2ede7e000005
Key Terms lodish8e_ch22_49.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_49_dlap.xml57335f41757a2ede7e000005
Review the Concepts lodish8e_ch22_50.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_50_dlap.xml57335f41757a2ede7e000005
Extended References lodish8e_ch22_51.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_51_dlap.xml57335f41757a2ede7e000005
Perspectives for the Future lodish8e_ch22_52.html57335f41757a2ede7e000005
DLAP questionslodish8e_ch22_52_dlap.xml57335f41757a2ede7e000005