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Brain & Nervous System

ELF magnetic fields tuned to ion parametric resonance conditions do not affect TEA-sensitive voltage-dependent outward K(+) currents in a human neural cell line.

No Effects Found

Gavoçi E, Zironi I, Remondini D, Virelli A, Castellani G, Del Re B, Giorgi G, Aicardi G, Bersani F. · 2013

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This study found no effects of tuned ELF magnetic fields on brain cell ion channels, adding to mixed research on cellular EMF mechanisms.

Plain English Summary

Summary written for general audiences

Researchers tested whether extremely low frequency magnetic fields tuned to specific resonance conditions could affect potassium ion channels in human brain cells. They found no significant changes in the electrical currents flowing through these channels when exposed to the magnetic fields. This study failed to confirm a theory called ion parametric resonance, which suggests that precisely tuned magnetic fields can disrupt cellular function by affecting ion movement.

Study Details

We studied the effect of different combinations of static (DC) and alternating (AC) ELF MFs tuned on resonance conditions for potassium (K+) on TEA‐sensitive voltage‐dependent outward K+ currents in the human neuroblastoma BE(2)C cell line.

Currents through the cell membrane were measured by whole‐cell patch clamp before, during, and after...

No significant changes in K+ current density were found. This study does not confirm the IPR hypothe...

Cite This Study
Gavoçi E, Zironi I, Remondini D, Virelli A, Castellani G, Del Re B, Giorgi G, Aicardi G, Bersani F. (2013). ELF magnetic fields tuned to ion parametric resonance conditions do not affect TEA-sensitive voltage-dependent outward K(+) currents in a human neural cell line. Bioelectromagnetics. 34(8):579-88, 2013.
Show BibTeX
@article{e_2013_elf_magnetic_fields_tuned_2826,
  author = {Gavoçi E and Zironi I and Remondini D and Virelli A and Castellani G and Del Re B and Giorgi G and Aicardi G and Bersani F. },
  title = {ELF magnetic fields tuned to ion parametric resonance conditions do not affect TEA-sensitive voltage-dependent outward K(+) currents in a human neural cell line.},
  year = {2013},
  doi = {10.1002/bem.21807},
  url = {https://onlinelibrary.wiley.com/doi/abs/10.1002/bem.21807},
}
DOI: 10.1002/bem.21807

Cited By (6 papers)

Quick Questions About This Study

A 2013 study found that extremely low frequency magnetic fields did not significantly affect potassium ion channels in human brain cells. The researchers tested specific magnetic field frequencies but observed no changes in cellular electrical activity, suggesting these particular exposures don't disrupt normal brain cell function.
Research testing ion parametric resonance theory found no significant disruption of potassium ion channels in human neural cells when exposed to tuned magnetic fields. The study failed to confirm that precisely calibrated EMF exposures can interfere with ion movement in brain cells.
A 2013 study did not confirm ion parametric resonance theory for potassium channels in human brain cells. While the theory suggests tuned magnetic fields can disrupt cellular ion movement, this research found no significant effects on electrical currents through these specific channels.
Research on human neural cells found no significant damage or functional changes when exposed to extremely low frequency magnetic fields tuned to specific resonance conditions. The study measured electrical activity in brain cells and detected no harmful effects from the magnetic field exposure.
A controlled study found that extremely low frequency magnetic fields did not significantly affect potassium ion channels in human brain cells. Researchers measured electrical currents through these channels and observed no changes during magnetic field exposure, indicating no functional disruption occurred.