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Literature DB >> 6503387

Electrical conductivity of skeletal muscle tissue: experimental results from different muscles in vivo.

F L Gielen, W Wallinga-de Jonge, K L Boon.

Abstract

Mesh：

Year: 1984 PMID： 6503387 DOI： 10.1007/bf02443872

Source DB: PubMed Journal: Med Biol Eng Comput ISSN： 0140-0118 Impact factor: 2.602

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24 in total

1. LINEAR ELECTRICAL PROPERTIES OF STRIATED MUSCLE FIBRES OBSERVED WITH INTRACELLULAR ELECTRODES.

Authors: G FALK; P FATT
Journal: Proc R Soc Lond B Biol Sci Date: 1964-04-14

2. Analysis of the distribution of the action currents of nerve in volume conductors.

Authors: R LORENTE de NO
Journal: Stud Rockefeller Inst Med Res Repr Date: 1947

3. Spatial resolution of four electrode array.

Authors: P N Robillard; D Poussart
Journal: IEEE Trans Biomed Eng Date: 1979-08 Impact factor: 4.538

4. Extracellular potential field of a single striated muscle fibre immersed in anisotropic volume conductor.

Authors: G V Dimitrov; N A Dimitrova
Journal: Electromyogr Clin Neurophysiol Date: 1974 Oct-Dec

5. Considerations of quasi-stationarity in electrophysiological systems.

Authors: R Plonsey; D B Heppner
Journal: Bull Math Biophys Date: 1967-12

6. On modeling the single motor unit action potential.

Authors: D C Boyd; P D Lawrence; P J Bratty
Journal: IEEE Trans Biomed Eng Date: 1978-05 Impact factor: 4.538

7. Transverse impedance of single frog skeletal muscle fibers.

Authors: B A Mobley; G Eidt
Journal: Biophys J Date: 1982-10 Impact factor: 4.033

8. A study of the motor unit action potential by means of computer simulation.

Authors: P A Griep; K L Boon; D F Stegeman
Journal: Biol Cybern Date: 1978-09-28 Impact factor: 2.086

9. Frequency and time domain characteristics of single muscle fibre action potentials.

Authors: I Gath; E Stålberg
Journal: Electroencephalogr Clin Neurophysiol Date: 1975-10

10. Electrical constants of trabecular muscle from mammalian heart.

Authors: S Weidmann
Journal: J Physiol Date: 1970-11 Impact factor: 5.182

28 in total

1. Use of surface potential spectral characteristics for solving the inverse problem in electroneurography.

Authors: G V Dimitrov; Z C Lateva; N A Dimitrova
Journal: Med Biol Eng Comput Date: 1992-07 Impact factor: 2.602

2. Impact of surrounding tissue on conductance measurement of coronary and peripheral lumen area.

Authors: Hyo Won Choi; Benjamin Jansen; Zhen-Du Zhang; Ghassan S Kassab
Journal: J R Soc Interface Date: 2012-06-20 Impact factor: 4.118

3. Interpretation of skeletal muscle four-electrode impedance measurements using spatial and temporal frequency-dependent conductivities.

Authors: B J Roth
Journal: Med Biol Eng Comput Date: 1989-09 Impact factor: 2.602

Electrical conductivity of skeletal muscle tissue: experimental results from different muscles in vivo.

1. LINEAR ELECTRICAL PROPERTIES OF STRIATED MUSCLE FIBRES OBSERVED WITH INTRACELLULAR ELECTRODES.

2. Analysis of the distribution of the action currents of nerve in volume conductors.

3. Spatial resolution of four electrode array.

4. Extracellular potential field of a single striated muscle fibre immersed in anisotropic volume conductor.

5. Considerations of quasi-stationarity in electrophysiological systems.

6. On modeling the single motor unit action potential.

7. Transverse impedance of single frog skeletal muscle fibers.

8. A study of the motor unit action potential by means of computer simulation.

9. Frequency and time domain characteristics of single muscle fibre action potentials.

10. Electrical constants of trabecular muscle from mammalian heart.

1. Use of surface potential spectral characteristics for solving the inverse problem in electroneurography.

2. Impact of surrounding tissue on conductance measurement of coronary and peripheral lumen area.

3. Interpretation of skeletal muscle four-electrode impedance measurements using spatial and temporal frequency-dependent conductivities.

4. Sensor spacing affects the tissue impedance spectra of rabbit ventricular epicardium.

5. Sensitivity of the amplitude of the single muscle fibre action potential to microscopic volume conduction parameters.

6. A critique of impedance measurements in cardiac tissue.

7. A comparison of two models for calculating the electrical potential in skeletal muscle.

8. Model of electrical conductivity of skeletal muscle based on tissue structure.

9. Model for decomposition of the motor unit action potential. 2. Analysis of simulated motor unit action potentials.

10. Discriminating neurogenic from myopathic disease via measurement of muscle anisotropy.