Electrical dynamics of the dendritic space /
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Author / Creator: | Korogod, Serge, 1949- |
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Imprint: | Cambridge ; New York : Cambridge University Press, 2009. |
Description: | xi, 211 p., [10] p. : ill. |
Language: | English |
Subject: | |
Format: | E-Resource Book |
URL for this record: | http://pi.lib.uchicago.edu/1001/cat/bib/8209564 |
Table of Contents:
- Preface
- 1. Definition of the neuron
- 1.1. The biologist
- 1.2. The physicist
- 1.3. The physicist and the biologist
- References
- 2. 3D geometry of dendritic arborizations
- 2.1. Brief historical background
- 2.2. Single neuron labelling
- 2.3. Dendritic quantification
- 2.4. Data quality and morphological noise
- 2.5. Models of neurons
- References
- 3. Basics in bioelectricity
- 3.1. Ions as carriers of current
- 3.2. Selective ion permeability of neuronal membrane
- 3.3. Ion pumps
- 3.4. Ion channels
- 3.5. Voltage dependence of membrane conductance
- 3.6. Effective equilibrium potential of multicomponent ion current
- 3.7. Membrane capacitance and capacitive current
- 3.8. External sources
- 3.9. Local current-voltage (I-V) relations
- Reference
- 4. Cable theory and dendrites
- 4.1. Dendrites as electrical cables
- 4.2. The cable equation
- 4.3. Additional conditions required for solution
- 4.4. Input-output (point-to-point) relations in dendritic cables
- References
- 5. Voltage transfer over dendrites
- 5.1. Dendritic cables in the steady state
- 5.2. Voltage transients in dendritic cables
- 6. Current transfer over dendrites
- 6.1. Charge transfer ratio
- 6.2. Somatopetal current transfer and somatofugal voltage spread
- 6.3. Current transfer ratio for passive paths at different boundary conditions
- 6.4. Local electro-geometrical coupling in non-uniform paths
- 6.5. Current transfer from distributed dendritic sources
- References
- 7. Electrical structure of an artificial dendritic path
- 7.1. Electrical structure of passive paths with single-site inputs
- 7.2. Electrical structure of paths with distributed tonic inputs
- References
- 8. Electrical structure of a bifurcation
- 8.1. Theory for different configurations
- 8.2. Electrical structure of passive branching paths with single-site inputs
- 8.3. Electrical structure of a bifurcation receiving distributed tonic inputs
- 8.4. Recapitulation and conclusions
- References
- 9. Geography of the dendritic space
- 9.1. Dendritic arborization in 3D and 2D representations
- 9.2. Distinct 3D dendritic landscapes
- 9.3. Digitized dendritic arborizations
- References
- 10. Electrical structures of biological dendrites
- 10.1. Geometry of an example dendrite
- 10.2. Passive dendrite with single-site inputs
- 10.3. Dendrites with distributed inputs
- 10.4. Reconfigurations of passive electrical structures
- References
- 11. Electrical structure of the whole arborization
- 11.1. Organization of the spatial electrical profiles
- 11.2. Robustness of the electrical bundles
- 11.3. Dynamic reconfigurations of the whole electrical structure
- 11.4. Spatial aspects of reconfigured electrical structure
- 11.5. Complexity of the whole arborization and its electrical domains
- References
- 12. Electrical structures in 3D dendritic space
- 12.1. The 3D electrical structures of Purkinje neurons
- 12.2. The 3D electrical structure of pyramidal neurons
- 12.3. The 3D electrical structures of motoneurons
- 12.4. High-efficiency domain of the motoneuronal arborizations in 3D
- 12.5. Bistable dendritic field
- References
- 13. Dendritic space as a coder of the temporal output patterns
- 13.1. Terminology to describe the repertoire of neuronal discharges
- 13.2. Geometry-induced features of Purkinje cell discharges
- 13.3. Geometry-dependent repertoire of pyramidal cell activity
- 13.4. Some general rules
- References
- 14. Concluding remarks
- 14.1. Impact for interpretation of neuronal discharges
- 14.2. The dancing dendrites
- 14.3. Speculation for the future
- References
- Index