Interaction of low frequency external electric fields and pancreatic β-cell: a mathematical modeling approach to identify the influence of excitation parameters

Abstract

Purpose: Although the effect of electromagnetic fields on biological systems has attracted attraction in recent years, there has not been any conclusive result concerning the effects of interaction and the underlying mechanisms involved. Besides the complexity of biological systems, the parameters of the applied electromagnetic field have not been estimated in most of the experiments.

Materials and Methods: In this study, we have used computational approach in order to find the excitation parameters of an external electric field which produces sensible effects in the function of insulin secretory machinery, whose failure triggers the diabetes disease. A mathematical model of the human β-cell has been used and the effects of external electric fields with different amplitudes, frequencies and wave shapes have been studied.

Results: The results from our simulations show that the external electric field can influence the membrane electrical activity and perhaps the insulin secretion when its amplitude exceeds a threshold value. Furthermore, our simulations reveal that different waveforms have distinct effects on the β-cell membrane electrical activity and the characteristic features of the excitation like frequency would change the interaction mechanism.

Conclusion: The results could help the researchers to investigate the possible role of the environmental electromagnetic fields on the promotion of diabetes disease.

Graphical Abstract

Keywords:

• Bioelectromagnetics
• computational modeling
• pancreatic β-cell
• low frequency radiation
• cell electrical stimulation

Disclosure statement

No potential conflict of interest was reported by the authors.

Additional information

Funding

This article has been extracted from the thesis written by Mr. Sajjad Farashi in School of Medicine Shahid Beheshti University of Medical Sciences. (Registration No. M 216).