3,138 Studies Reviewed. 77.4% Found Biological Effects. The Evidence is Clear.

EMF Research Studies

Browse 3,138 peer-reviewed studies on electromagnetic field health effects from the BioInitiative Report database.

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Showing 355 studies (Cell Studies)

[Effect of microwave radiation on primary cultured Sertoli cells.]

Gao XF et al. · 2009

Researchers exposed Sertoli cells (crucial cells that support sperm production in the testicles) to microwave radiation at different power levels for five minutes. They found that higher intensity radiation (100 mW/cm²) disrupted normal cell division, increased cell death, and caused calcium levels inside cells to spike. This suggests that microwave radiation can damage the cells essential for male fertility.

Acute mobile phones exposure affects frontal cortex hemodynamics as evidenced by functional near-infrared spectroscopy

Curcio G et al. · 2009

Researchers used brain imaging technology to measure blood flow changes in the frontal cortex of 11 volunteers during 40 minutes of cell phone exposure. They found that real phone exposure caused a gradual increase in deoxygenated blood in brain tissue compared to fake exposure, indicating altered brain activity. This suggests that even brief cell phone use can measurably change how blood flows through critical brain regions.

Cellular EffectsNo Effects Found

Microscopic observation of living cells during their exposure to modulated electromagnetic fields

Moisescu MG, Leveque P, Bertrand JR, Kovacs E, Mir LM · 2008

French researchers developed a special microscope system to watch living cells in real time while exposing them to mobile phone-like electromagnetic fields at 900 MHz. They found that one hour of exposure at levels similar to heavy cell phone use increased the rate at which cells absorbed materials from their environment (endocytosis), but didn't affect cell division timing or duration. This study is significant because it's one of the few to directly observe cellular changes as they happen during EMF exposure.

Increased frequency of micronucleated exfoliated cells among humans exposed in vivo to mobile telephone radiations.

Yadav AS, Sharma MK. · 2008

Researchers examined cells from the inside of the mouth in 85 regular cell phone users compared to 24 non-users to look for signs of genetic damage. They found that cell phone users had significantly more micronuclei (small fragments that break off from damaged cell nuclei) - nearly three times more than non-users. The longer people had been using phones, the more genetic damage markers appeared in their cells.

Microwave irradiation induces neurite outgrowth in PC12m3 cells via the p38 mitogen-activated protein kinase pathway.

Inoue S, Motoda H, Koike Y, Kawamura K, Hiragami F, Kano Y. · 2008

Researchers exposed rat nerve cells (PC12m3) to 2.45 GHz microwave radiation at 200 watts and found it triggered a 10-fold increase in nerve fiber growth compared to unexposed cells. The microwaves activated specific cellular pathways (p38 MAPK) that promote nerve development, and importantly, this effect occurred without causing cell death or damage. This suggests microwave radiation can directly influence nerve cell behavior through non-thermal biological mechanisms.

Is gene activity in plant cells affected by UMTS-irradiation? A whole genome approach.

Engelmann JC et al. · 2008

Researchers exposed plant cells to radio frequency radiation similar to what exists in urban environments with cell towers for 24 hours, then examined changes in gene activity across the entire plant genome. They found that 10 genes showed statistically significant changes in expression, though the changes were relatively small (less than 2.5-fold). The researchers concluded these minor genetic changes would likely have no meaningful impact on actual plant growth or reproduction.

Effects of exposing chicken eggs to a cell phone in "call" position over the entire incubation period.

Batellier F, Couty I, Picard D, Brillard JP. · 2008

French researchers exposed chicken eggs to cell phones making calls every 3 minutes throughout the entire 21-day incubation period to study developmental effects. They found significantly higher embryo death rates in eggs exposed to active cell phones compared to eggs near inactive phones, with most deaths occurring between days 9-12 of development. This suggests that radiofrequency radiation from cell phones can disrupt normal embryonic development during critical growth periods.

In vitro assessment of clastogenicity of mobile-phone radiation (835 MHz) using the alkaline comet assay and chromosomal aberration test.

Kim JY et al. · 2008

Korean researchers exposed mammalian cells to 835-MHz radiofrequency radiation (the frequency used in Korean CDMA cell phones) to test whether it causes genetic damage. While the radiation alone didn't directly damage DNA or chromosomes, it amplified the genetic damage when cells were also exposed to known cancer-causing chemicals. The researchers concluded they couldn't rule out increased genetic damage risk from this cell phone frequency.

A 60-Hz sinusoidal magnetic field induces apoptosis of prostate cancer cells through reactive oxygen species.

Koh EK, Ryu BK, Jeong DY, Bang IS, Nam MH, Chae KS · 2008

Researchers exposed prostate cancer cells to 60-Hz magnetic fields (the frequency of household electricity) and found the fields killed cancer cells by increasing harmful molecules called reactive oxygen species. This suggests power-line frequency magnetic fields might potentially be developed as cancer treatments.

Nonthermal effects of radiofrequency-field exposure on calcium dynamics in stem cell-derived neuronal cells: elucidation of calcium pathways.

Rao VS et al. · 2008

Mouse brain cells exposed to cell phone-like radiofrequency radiation showed dramatically altered calcium signaling, with three times more calcium spikes than unexposed cells. This matters because calcium controls critical brain cell functions including growth, development, and communication between neurons.

The protective effects of N-acetyl-L-cysteine and epigallocatechin-3-gallate on electric field-induced hepatic oxidative stress.

Guler G, Turkozer Z, Tomruk A, Seyhan N · 2008

Researchers exposed guinea pigs to electric fields at the strength found near power lines (12,000 volts per meter) and measured liver damage. The electric field exposure increased harmful oxidative stress markers and decreased the liver's natural antioxidant defenses. However, when the animals were given protective antioxidant compounds, the liver damage was significantly reduced.

Extremely low-frequency magnetic fields effects on the snail single neurons.

Partsvania B, Sulaberidze T, Modebadze Z, Shoshiashvili L. · 2008

Researchers exposed isolated snail brain cells to extremely low-frequency magnetic fields at the same frequencies used in cell phones (8.34 and 217 Hz) and measured how the neurons responded to electrical signals. They found that EMF exposure disrupted the normal learning process in these nerve cells, causing them to lose their ability to filter out repeated stimuli. This suggests that EMF exposure can interfere with basic neural functions that are fundamental to learning and memory.

The mechanism of magnetic field-induced increase of excitability in hippocampal neurons.

Ahmed Z, Wieraszko A. · 2008

Researchers exposed hippocampus brain tissue to pulsed magnetic fields (15 mT at 0.16 Hz) for 30 minutes and found significant increases in brain cell excitability and electrical activity. The magnetic field exposure enhanced both excitatory and inhibitory brain processes, with effects that were independent of normal learning pathways. This demonstrates that even brief magnetic field exposure can directly alter fundamental brain function at the cellular level.

Symptoms & SensitivityNo Effects Found

Health response of two communities to military antennae in Cyprus.

Preece AW, Georgiou AG, Dunn EJ, Farrow S · 2007

Researchers studied residents living near powerful military radio transmitters in Cyprus to investigate health complaints. They found that people living in exposed villages reported 2.7 to 3.7 times more headaches, migraines, and dizziness compared to unexposed residents, but no increase in cancer or birth defects. The researchers suggested these symptoms were more likely caused by noise from military aircraft or psychological stress from seeing the antennas rather than the radio waves themselves.

DNA & Genetic DamageNo Effects Found

Genotoxic effects of exposure to radiofrequency electromagnetic fields (RF-EMF) in cultured mammalian cells are not independently reproducible.

Speit G, Schütz P, Hoffmann H. · 2007

German researchers exposed mammalian cells to radiofrequency radiation at cell phone levels (1800 MHz, SAR 2 W/kg) to test whether RF exposure causes DNA damage. Using two different cell lines and multiple DNA damage tests, they found no genetic damage from the radiation exposure. This study contradicted earlier findings from the REFLEX project that had reported DNA damage from similar RF exposures.

Exposure to cell phone radiation up-regulates apoptosis genes in primary cultures of neurons and astrocytes.

Zhao TY, Zou SP, Knapp PE · 2007

Researchers exposed brain cells (neurons and astrocytes) to radiation from a working GSM cell phone for just 2 hours and found that genes involved in cell death pathways became more active. The effect occurred even when the phone was on standby mode, and neurons appeared more sensitive to the radiation than astrocytes (support cells in the brain). This suggests that even brief cell phone exposure can trigger cellular stress responses in brain tissue.

Dielectric properties of porcine cerebrospinal tissues at microwave frequencies: in vivo, in vitro and systematic variation with age.

Peyman A, Holden SJ, Watts S, Perrott R, Gabriel C · 2007

Researchers measured how microwave radiation (50 MHz to 20 GHz) affects the electrical properties of brain and spinal cord tissues in pigs. They found that white matter and spinal cord tissues showed significant changes with age, while gray matter remained stable. This matters because understanding how different brain tissues respond to microwave frequencies helps us better predict potential health effects from wireless devices.

A method for detecting the effect of magnetic field on activity changes of neuronal populations of Morimus funereus (coleoptera, cerambycidae)

Todorović D, Kalauzi A, Prolić Z, Jović M, Mutavdzić D. · 2007

Researchers exposed endangered beetles to a weak magnetic field (2 mT) for just 5 minutes and measured changes in their brain neuron activity. The magnetic field altered brain activity in all 8 beetles tested, with most effects being permanent rather than temporary. This demonstrates that even brief exposure to relatively weak magnetic fields can cause lasting changes to nervous system function.

Exposure to cell phone radiation up-regulates apoptosis genes in primary cultures of neurons and astrocytes

Zhao TY, Zou SP, Knapp PE. · 2007

Researchers exposed brain cells (neurons and astrocytes) from cell cultures to radiation from a 1900 MHz cell phone for just 2 hours. They found that this exposure activated genes that trigger cell death, with brain neurons being more sensitive than support cells. The concerning part is that these cellular death pathways were triggered even when the phone was in standby mode, not just during active calls.

[Effects of different dose microwave radiation on protein components of cultured rabbit lens]

Wang KJ, Yao K, Lu DQ. · 2007

Researchers exposed rabbit eye lenses to microwave radiation at 2450 MHz (the same frequency as WiFi and microwave ovens) for 8 hours at various power levels. They found that exposure levels of 1.0 mW/cm² and higher caused the lens proteins to change structure, leading to decreased transparency and cloudiness that could impair vision. The higher the exposure level, the more severe the protein damage and opacity became.

Effects of GSM 1800 MHz on dendritic development of cultured hippocampal neurons

Ning W, Xu SJ, Chiang H, Xu ZP, Zhou SY, Yang W, Luo JH · 2007

Researchers exposed developing rat brain cells (hippocampal neurons) to cell phone radiation at 1800 MHz for 15 minutes daily over 8 days. At the higher exposure level (2.4 W/kg), the radiation significantly disrupted normal brain cell development, reducing the formation of dendrites (the branch-like structures neurons use to communicate) and synapses (connection points between neurons). This suggests cell phone radiation during critical developmental periods could interfere with normal brain formation.

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