The linear electrical properties of skeletal muscle fibers have been analyzed using lumped circuit analogues of helicoidal T system. The geometry of a helicoid is assumed to produce two electrical effects, modeled separately. One model is motivated by the pitch or tilt of the T system, which forces the current flowing in the lumen of the tubules to have a longitudinal projection. The second model is motivated by the longitudinal continuity of a helicoid, which forms a structure similar to a cable within the fiber. The pitch or tilting of the T system plane modified the longitudinal resistance of the fiber, making it slightly frequency dependent; however, the magnitude of the change was less than 0.1%. The longitudinal connections between T ...
All in-text references underlined in blue are linked to publications on ResearchGate, letting you ac...
Conduction of the action potential in cardiac muscle is complicated by its multicellular structure, ...
<p>Electroporation is a biological cell's natural reaction to strong electric fields, where transien...
The linear electrical properties of skeletal muscle fibers have been analyzed using lumped circuit a...
This paper presents the construction, derivation, and test of a mesh model for the electrical proper...
The transverse electrical impedance of single frog skeletal muscle fibers was measured at 31 frequen...
Reconstruction from thick serial transverse slices of frog skeletal muscle fibers stained with perox...
The authors present equivalent circuit models of skeletal muscle tissue for the directions parallel ...
The electrical properties of the end of a muscle fiber were determined using three microelectrodes, ...
AT MICROSCOPIC scale skeletal muscle tissue as an electrical conductor is characterised by the intra...
Impedance measurements are necessary to determine the passive electrical properties of cells includi...
This work deals with the dielectric properties of biological tissues comprising tubular cells, such ...
Cable theory is used to model fibers (neural or muscular) subjected to an extracellular stimulus or ...
The capacitance C′e, presumed to be located across the walls of the transverse tubules of twitch fib...
The cable model of a passive, myelinated fiber is derived using the theory of electromagnetic propag...
All in-text references underlined in blue are linked to publications on ResearchGate, letting you ac...
Conduction of the action potential in cardiac muscle is complicated by its multicellular structure, ...
<p>Electroporation is a biological cell's natural reaction to strong electric fields, where transien...
The linear electrical properties of skeletal muscle fibers have been analyzed using lumped circuit a...
This paper presents the construction, derivation, and test of a mesh model for the electrical proper...
The transverse electrical impedance of single frog skeletal muscle fibers was measured at 31 frequen...
Reconstruction from thick serial transverse slices of frog skeletal muscle fibers stained with perox...
The authors present equivalent circuit models of skeletal muscle tissue for the directions parallel ...
The electrical properties of the end of a muscle fiber were determined using three microelectrodes, ...
AT MICROSCOPIC scale skeletal muscle tissue as an electrical conductor is characterised by the intra...
Impedance measurements are necessary to determine the passive electrical properties of cells includi...
This work deals with the dielectric properties of biological tissues comprising tubular cells, such ...
Cable theory is used to model fibers (neural or muscular) subjected to an extracellular stimulus or ...
The capacitance C′e, presumed to be located across the walls of the transverse tubules of twitch fib...
The cable model of a passive, myelinated fiber is derived using the theory of electromagnetic propag...
All in-text references underlined in blue are linked to publications on ResearchGate, letting you ac...
Conduction of the action potential in cardiac muscle is complicated by its multicellular structure, ...
<p>Electroporation is a biological cell's natural reaction to strong electric fields, where transien...