Browse 6,486 peer-reviewed studies on electromagnetic field health effects from 4 research libraries.
Showing 1,087 studies from Glaser RF/Microwave Archive with extracted diagrams
L. George Lawrence
This research examined how plants respond to electronic and electrical phenomena, exploring the intersection of electronics and plant biology. The study investigated plant behavior and electrical responses when exposed to various electronic influences. This work contributes to our understanding of how living organisms interact with electromagnetic fields and electronic devices.
Unknown authors
Researchers exposed rat liver mitochondria to millimeter wave radiation at 35 GHz and 50-60 GHz frequencies to test effects on cellular energy production. They found no disruption to mitochondrial function below 500 mW/cm², with effects above that level attributed to heating rather than non-thermal radiation damage. This suggests mitochondria can withstand moderate millimeter wave exposure without losing their ability to generate cellular energy.
Unknown authors
Researchers exposed squirrel monkeys to microwave radiation to determine the minimum energy levels that would alter their natural temperature regulation behaviors. The study found that microwaves can penetrate deeper than infrared radiation and disrupt how animals maintain their body temperature through behavioral responses.
Y. Kinouchi, Y. Kubo, T. Ushita, T.S. Tenforde
Researchers used computer modeling to analyze how strong magnetic fields (like those in MRI machines) create electrical currents in the heart and major blood vessels. They found that these fields generate detectable electrical signals around the aorta that can show up on heart monitors, but the current levels are far below what would cause dangerous heart rhythm problems.
Unknown authors
Researchers developed a Raman spectroscopy technique to distinguish cancer cells from normal cells by analyzing their molecular signatures. The study addressed technical challenges like fluorescence interference and cell movement that typically mask cellular signals. This optical method could potentially identify cancerous changes in cells without invasive procedures.
Q. Balzano, O. Garay, K. Siwiak
Researchers measured electric fields close to portable communication antennas and found that current safety standards may be overly restrictive in near-field conditions. The study showed that high electric field measurements near antennas don't necessarily indicate high power absorption in human tissue because the energy is largely reactive (stored) rather than radiative (penetrating).
P. E. Братковский
This early Russian research examined the biological effects of ultra-high frequency (UHF) electromagnetic fields on animal organisms. The study found that UHF fields demonstrate significant biological activity, with therapeutic applications showing promise for treating various acute and chronic medical conditions. This represents some of the earliest systematic investigation into how high-frequency electromagnetic fields interact with living systems.
G. F. Plakhanov, V. V. Vedyushkina
Soviet researchers investigated whether humans could develop conditioned reflexes to high-frequency electromagnetic fields by measuring vascular responses using plethysmography. This study examined if blood vessel changes could be trained to occur in response to EMF exposure, suggesting the body's circulatory system can detect and respond to electromagnetic field changes. The research represents early evidence that EMF exposure triggers measurable physiological responses in humans.
Unknown authors
This study calculated how much radiofrequency energy is absorbed by cylindrical models representing humans and animals when exposed to near-field radiation from short dipole antennas. The research developed mathematical models to understand energy absorption patterns when the radiation source is very close to the body, rather than from distant sources.
Р. Е. Батковский
This early Russian review examined biological effects of ultra-high frequency (UHF) electromagnetic fields on living organisms. The research found diverse but contradictory biological responses to UHF exposure. This represents some of the earliest scientific documentation of varied biological effects from high-frequency electromagnetic fields.
William Pearlman, Maitland Baldwin
Researchers designed an experimental system using copper mesh resonant cavities to expose monkey heads to radio frequency energy between 225-400 MHz from a 100-watt transmitter. This early study established methodology for controlled RF exposure experiments on primates. The research represents foundational work in understanding how to systematically study biological effects of radio frequency radiation.
John M. Osepchuk
Researchers examined how microwave radiation from sources like ovens and industrial equipment interferes with electronic devices, including medical devices like pacemakers. The study found that while microwave leakage can disrupt sensitive electronics, the interference occurs at radiation levels far below what would cause biological harm to humans. Proper shielding and filtering techniques can effectively protect vulnerable devices from microwave interference.