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The Static Magnetic Field Remotely Boosts the Efficiency of Doxorubicin through Modulating ROS Behaviors

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Hajipour Verdom B, Abdolmaleki P, Behmanesh M. · 2018

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Static magnetic fields at 10 millitesla enhanced chemotherapy effectiveness by disrupting cellular iron balance and increasing oxidative stress in cancer cells.

Plain English Summary

Summary written for general audiences

Researchers studied how static magnetic fields affect cancer treatment with doxorubicin (a common chemotherapy drug). They found that magnetic fields at 10 millitesla enhanced the drug's cancer-killing effects by increasing harmful molecules called reactive oxygen species (ROS) in cancer cells. This could potentially allow doctors to use lower doses of chemotherapy while maintaining effectiveness, reducing side effects for patients.

Why This Matters

This research reveals an intriguing intersection between EMF exposure and cancer treatment that deserves attention. The study demonstrates that static magnetic fields at 10 millitesla can amplify the effectiveness of doxorubicin by disrupting cellular iron balance and boosting oxidative stress in cancer cells. What makes this particularly relevant is the exposure level: 10 millitesla is roughly 200 times stronger than Earth's magnetic field but well within the range of therapeutic magnetic devices and some industrial equipment. The science demonstrates that magnetic fields can fundamentally alter cellular chemistry in ways that affect drug metabolism and cellular vulnerability. While this specific application shows potential therapeutic benefits, it underscores a broader reality about EMF bioeffects that the wireless industry often dismisses. If magnetic fields can enhance chemotherapy drugs by modulating cellular processes like iron homeostasis and ROS generation, this confirms that EMF exposure produces measurable biological changes at the cellular level. You don't have to be undergoing cancer treatment to recognize the implications: our cells respond to magnetic field exposure in complex, measurable ways.

Exposure Details

Magnetic Field
5, 10, 15 and 20 mG
Exposure Duration
24 and 48 h

Exposure Context

This study used 5, 10, 15 and 20 mG for magnetic fields:

Building Biology guidelines are practitioner-based limits from real-world assessments. BioInitiative Report recommendations are based on peer-reviewed science. Check Your Exposure to compare your own measurements.

Where This Falls on the Concern Scale

Study Exposure Level in ContextA logarithmic scale showing exposure levels relative to Building Biology concern thresholds and regulatory limits.Study Exposure Level in ContextThis study: 5, 10, 15 and 20 mGExtreme Concern5 mGFCC Limit2,000 mGEffects observed in the Extreme Concern range (Building Biology)FCC limit is 400x higher than this exposure level

Study Details

Here, we investigated the potential effects of homogenous static magnetic field (SMF) on DOXO-induced toxicity and proliferation rate of cancer cells.

The results indicated that SMF similar to DOXO decreased the cell viability as well as the prolifera...

In conclusion, these findings suggest that SMF can decrease required dose of chemotherapy drugs such as DOXO and thereby decrease their side effect.

Cite This Study
Hajipour Verdom B, Abdolmaleki P, Behmanesh M. (2018). The Static Magnetic Field Remotely Boosts the Efficiency of Doxorubicin through Modulating ROS Behaviors Sci Rep. 8(1):990, 2018.
Show BibTeX
@article{b_2018_the_static_magnetic_field_382,
  author = {Hajipour Verdom B and Abdolmaleki P and Behmanesh M.},
  title = {The Static Magnetic Field Remotely Boosts the Efficiency of Doxorubicin through Modulating ROS Behaviors},
  year = {2018},
  
  url = {https://www.nature.com/articles/s41598-018-19247-8},
}

Quick Questions About This Study

Researchers studied how static magnetic fields affect cancer treatment with doxorubicin (a common chemotherapy drug). They found that magnetic fields at 10 millitesla enhanced the drug's cancer-killing effects by increasing harmful molecules called reactive oxygen species (ROS) in cancer cells. This could potentially allow doctors to use lower doses of chemotherapy while maintaining effectiveness, reducing side effects for patients.