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Ionic Channels in Biological Membranes: Natural Nanotubes Described by the Drift-Diffusion Equations
Author(s) -
Bob Eisenberg
Publication year - 1998
Publication title -
vlsi design
Language(s) - English
Resource type - Journals
eISSN - 1065-514X
pISSN - 1026-7123
DOI - 10.1155/1998/78089
Subject(s) - ionic bonding , diffusion , chemical physics , ion , ion channel , nanotechnology , membrane , atom (system on chip) , molecular dynamics , materials science , chemistry , computational chemistry , computer science , physics , thermodynamics , organic chemistry , biochemistry , receptor , embedded system
An important class of biological molecules-proteins called ionic channels–conductions (like Na+, K+, Cl-) through a narrow tunnel of fixed charge (‘doping’). Ionic channels are the main pathway by which substances move into cells and so are of greatbiological and medical importance: a substantial fraction of all drugs used by physicians act on channels. Channels can be studied in the tradition of computational electronics. Drift diffusion equations form an adequate model of IV relations of 6 different channel proteins in ̴ 10 solutions over ±150 mV. Ionic channels can also be studied with thepowerful techniques of molecular biology. Atoms can be modified one at a time and the location of every atom can be determined. Ionic channels are natural nanotubes that can be controlled more precisely and easily than physical nanostructures but biologists need help if realistic simulations are to be done atomic detail

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