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Information Journal Paper

Title

SIMULATION OF FIBER CONDUCTION BLOCK USING HIGH FREQUENCY ALTERNATING CURRENT WITH ASYMMETRIC BIPHASIC WAVEFORM AND ITS MECHANISM OF ACTION

Pages

  99-112

Abstract

 Introduction: HIGH FREQUENCY ALTERNATING CURRENT is a safe, reversible and selective method for NERVE CONDUCTION BLOCK that has been under study during the last decade as a treatment for the diseases involving abnormal neural impulses. However, reducing the stimulus amplitude, and the undesired onset response, as well as optimizing the stimulus parameters for more effective block is still researchable. In this article, simulation of the electrical stimulation of neural fibers was used to study the efficiency of the asymmetric biphasic waveforms in inducing the block condition, and to investigate its mechanism of action.Materials and Methods: COMPUTER SIMULATIONs were carried out based on a detailed model of mammalian peripheral nerve fibers. Electrical stimulation of a 51-node axon with two point-source electrodes was simulated, one for inducing conduction block, and the other for applying a test stimulus. Asymmetric biphasic waveform was applied and the neural responses including the block phenomena and its mechanism were studied.Results: High frequency stimulation induces three different responses in the fiber, based on its amplitude and position related to the electrode: no excitation, repetitive excitation and block. The proposed waveform provides lower block thresholds and by increasing the asymmetry of the waveform, the net charge required to induce conduction block was significantly reduced in comparison with the sine and symmetric rectangular waveforms. The stimulation increases the average membrane voltage and this is higher when asymmetric waveform is used which can explain the higher efficiency of this waveform for inducing conduction block.Conclusion: Lower thresholds for the proposed waveform is very important in clinical use of the HIGH FREQUENCY ALTERNATING CURRENTs due to higher efficiency of the stimulation, lower power consumption of the stimulator, and lower side effects of the stimulation, and can be considered as a step towards the clinical use of high frequency stimulations.

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    APA: Copy

    ARIANFAR, ALIREZA, & MAHNAM, AMIN. (2014). SIMULATION OF FIBER CONDUCTION BLOCK USING HIGH FREQUENCY ALTERNATING CURRENT WITH ASYMMETRIC BIPHASIC WAVEFORM AND ITS MECHANISM OF ACTION. JOURNAL OF RESEARCH IN REHABILITATION SCIENCES, 10(1), 99-112. SID. https://sid.ir/paper/144086/en

    Vancouver: Copy

    ARIANFAR ALIREZA, MAHNAM AMIN. SIMULATION OF FIBER CONDUCTION BLOCK USING HIGH FREQUENCY ALTERNATING CURRENT WITH ASYMMETRIC BIPHASIC WAVEFORM AND ITS MECHANISM OF ACTION. JOURNAL OF RESEARCH IN REHABILITATION SCIENCES[Internet]. 2014;10(1):99-112. Available from: https://sid.ir/paper/144086/en

    IEEE: Copy

    ALIREZA ARIANFAR, and AMIN MAHNAM, “SIMULATION OF FIBER CONDUCTION BLOCK USING HIGH FREQUENCY ALTERNATING CURRENT WITH ASYMMETRIC BIPHASIC WAVEFORM AND ITS MECHANISM OF ACTION,” JOURNAL OF RESEARCH IN REHABILITATION SCIENCES, vol. 10, no. 1, pp. 99–112, 2014, [Online]. Available: https://sid.ir/paper/144086/en

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