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Data for spatial characterization of AC signal propagation over primary neuron dendrites
Author(s) -
Hojeong Kim,
C. J. Heckman
Publication year - 2015
Publication title -
data in brief
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.122
H-Index - 30
ISSN - 2352-3409
DOI - 10.1016/j.dib.2015.12.018
Subject(s) - soma , dendritic spike , signal (programming language) , attenuation , neuroscience , neuron , dendrite (mathematics) , physics , biological system , cable theory , computer science , biology , mathematics , inhibitory postsynaptic potential , optics , geometry , telecommunications , excitatory postsynaptic potential , cable harness , cable gland , programming language
Action potentials generated near the soma propagate not only into the axonal nerve connecting to the adjacent neurons but also into the dendrites interacting with a diversity of synaptic inputs as well as voltage gated ion channels. Measuring voltage attenuation factors between the soma and all single points of the dendrites in the anatomically reconstructed primary neurons with the same cable properties, we report the signal propagation data showing how the alternating current (AC) signal such as action potentials back-propagates over the dendrites among different types of primary neurons. Fitting equations and their parameter values for the data are also presented to quantitatively capture the spatial profile of AC signal propagation from the soma to the dendrites in primary neurons. Our data is supplemental to our original study for the dependency of dendritic signal propagation and excitability, and their relationship on the cell type-specific structure in primary neurons (DOI: 10.1016/j.neulet.2015.10.017 [1]).

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