Theoretical Analysis and Design of a Variable Frequency Magnetic Field Stimulation System for Tumor Suppression

Naming Zhang; Shuhong Wang; Song Wang; Chunyu Zhang

doi:10.1109/TASC.2016.2594845

Theoretical Analysis and Design of a Variable Frequency Magnetic Field Stimulation System for Tumor Suppression

Naming Zhang, Shuhong Wang, Song Wang, Chunyu Zhang

School of Medicine

Research output: Contribution to journal › Article › peer-review

3 Scopus citations

Abstract

The previous study has shown that tumor cells can be inhibited by magnetic field stimulation. However, the optimal parameters such as field strength and frequency have not yet been fully determined. In this study, an adjustable frequency and magnetic flux density for a variable frequency magnetic field stimulation system was proposed. Moreover, a new planar stimulation coil with a printed circuit board was proposed, which cooperates with the stimulation system. The field distribution of the stimulation system was simulated by numerical computation. The principle of the system was also analyzed. The tumor cell experiments showed that the proposed stimulation system could induce a wide range of frequency magnetic fields and accelerate the optimization process of field parameters. With the optimized magnetic field stimulation, the proliferation of tumor cells was suppressed.

Original language	English (US)
Article number	7523949
Journal	IEEE Transactions on Applied Superconductivity
Volume	26
Issue number	7
DOIs	https://doi.org/10.1109/TASC.2016.2594845
State	Published - Oct 2016

Keywords

Biomagnetics
magnetic stimulation
numerical simulation
tumor cells

ASJC Scopus subject areas

Electronic, Optical and Magnetic Materials
Condensed Matter Physics
Electrical and Electronic Engineering

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10.1109/TASC.2016.2594845

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title = "Theoretical Analysis and Design of a Variable Frequency Magnetic Field Stimulation System for Tumor Suppression",

abstract = "The previous study has shown that tumor cells can be inhibited by magnetic field stimulation. However, the optimal parameters such as field strength and frequency have not yet been fully determined. In this study, an adjustable frequency and magnetic flux density for a variable frequency magnetic field stimulation system was proposed. Moreover, a new planar stimulation coil with a printed circuit board was proposed, which cooperates with the stimulation system. The field distribution of the stimulation system was simulated by numerical computation. The principle of the system was also analyzed. The tumor cell experiments showed that the proposed stimulation system could induce a wide range of frequency magnetic fields and accelerate the optimization process of field parameters. With the optimized magnetic field stimulation, the proliferation of tumor cells was suppressed.",

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AU - Wang, Song

AU - Zhang, Chunyu

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N2 - The previous study has shown that tumor cells can be inhibited by magnetic field stimulation. However, the optimal parameters such as field strength and frequency have not yet been fully determined. In this study, an adjustable frequency and magnetic flux density for a variable frequency magnetic field stimulation system was proposed. Moreover, a new planar stimulation coil with a printed circuit board was proposed, which cooperates with the stimulation system. The field distribution of the stimulation system was simulated by numerical computation. The principle of the system was also analyzed. The tumor cell experiments showed that the proposed stimulation system could induce a wide range of frequency magnetic fields and accelerate the optimization process of field parameters. With the optimized magnetic field stimulation, the proliferation of tumor cells was suppressed.

AB - The previous study has shown that tumor cells can be inhibited by magnetic field stimulation. However, the optimal parameters such as field strength and frequency have not yet been fully determined. In this study, an adjustable frequency and magnetic flux density for a variable frequency magnetic field stimulation system was proposed. Moreover, a new planar stimulation coil with a printed circuit board was proposed, which cooperates with the stimulation system. The field distribution of the stimulation system was simulated by numerical computation. The principle of the system was also analyzed. The tumor cell experiments showed that the proposed stimulation system could induce a wide range of frequency magnetic fields and accelerate the optimization process of field parameters. With the optimized magnetic field stimulation, the proliferation of tumor cells was suppressed.

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Theoretical Analysis and Design of a Variable Frequency Magnetic Field Stimulation System for Tumor Suppression

Abstract

Keywords

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