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Shingo Murakami

Researcher at Toho University

Publications -  26
Citations -  2207

Shingo Murakami is an academic researcher from Toho University. The author has contributed to research in topics: Graded Lie algebra & Real form. The author has an hindex of 15, co-authored 26 publications receiving 1945 citations. Previous affiliations of Shingo Murakami include University of New Mexico & University of Tokyo.

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Inwardly Rectifying Potassium Channels: Their Structure, Function, and Physiological Roles

TL;DR: The crystal structure of different Kir channels is opening the way to understanding the structure-function relationships of this simple but diverse ion channel family.
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Contributions of principal neocortical neurons to magnetoencephalography and electroencephalography signals

TL;DR: A realistically shaped three‐dimensional single‐neuron model was constructed for each of four principal cell types in the neocortex in order to infer their contributions to magnetoencephalography (MEG) and electroencephalographic signals.
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Physiological origins of evoked magnetic fields and extracellular field potentials produced by guinea-pig CA3 hippocampal slices

TL;DR: This study examined whether evoked magnetic fields and intra‐ and extracellular potentials from longitudinal CA3 slices of guinea‐pig can be interpreted within a single theoretical framework that incorporates ligand‐ and voltage‐sensitive conductances in the dendrites and soma of the pyramidal cells.
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Contribution of Ionic Currents to Magnetoencephalography (MEG) and Electroencephalography (EEG) Signals Generated by Guinea‐Pig CA3 Slices

TL;DR: A mathematical model was used to analyse the contributions of different types of ionic currents in the pyramidal cells of longitudinal CA3 slices to the magnetic fields and field potentials generated by this preparation and found the intrinsic conductances were found to be more important than the synaptic conductances in determining the shape and magnitude of Q.
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The unique electrical properties in an extracellular fluid of the mammalian cochlea; their functional roles, homeostatic processes, and pathological significance

TL;DR: A computational model, which reconstitutes unidirectional K+ transport by incorporating channels and transporters in the lateral wall and connects this transport to hair cell transcellular K+ fluxes, simulates the circulation current flowing between the endolymph and the perilymph.