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
H. S. Seth, M.D., S. M. Michaelson, D.V.M. · 1965
This 1965 study investigated microwave radiation's ability to cause cataracts in rabbits, examining how electromagnetic fields damage the lens of the eye. The research focused on 'cataractogenesis' - the process by which cataracts form - following microwave exposure. This represents early scientific recognition that microwave radiation could cause specific, measurable eye damage in living tissue.
Faitel'berg-Blank, V. · 1965
This 1965 research investigated how centimeter-range radio waves (microwaves) affected digestive system function in laboratory animals. The study examined changes in gastric and intestinal absorption activity when animals were exposed to microwave radiation. This early research helped establish that microwave frequencies could influence biological processes in the digestive system.
Niepolomski W, Smigla K · 1965
This 1965 Polish study examined how 10.7 MHz electromagnetic fields affected the internal organs of laboratory animals. Researchers documented physical changes in organ structure and function after EMF exposure. This represents early scientific investigation into whether radio frequency radiation could cause measurable biological damage.
Claire A. Van Ummersen, Frances C. Cogan · 1965
This 1965 study investigated how age affects the development of cataracts in rabbits exposed to microwave radiation. The research examined whether older animals develop lens opacities more readily than younger ones when exposed to the same microwave conditions. The 163 experiments found no significant relationship between age and the susceptibility of the lens to microwave damage.
GATEV, S. · 1965
This 1965 study examined using microwave radiation as a medical treatment for tenovaginitis (tendon sheath inflammation), comparing it with traditional hydrocortisone phonophoresis therapy. The research represents early medical applications of microwave technology for therapeutic purposes. This historical work provides insight into how electromagnetic fields were being explored for healing rather than studied for potential health risks.
A. P. Balutina · 1965
Soviet researchers in 1965 exposed animals to ultra-high frequency electromagnetic fields at power levels of 100-1000 mW/cm² in the 3000-10,000 MHz range. The study found that this exposure caused lens opacities (cataracts) of varying sizes and intensities in the animals' eyes. This early research identified the eye as particularly vulnerable to EMF damage due to its poor temperature regulation.
C. ANDREW L. BASSETT · 1965
This 1965 Scientific American article by C. Andrew L. Bassett reviewed evidence that bone generates a small electric current when it is mechanically deformed. The article suggests that the changes that occur in living bone under mechanical stress are mediated by electric fields.
Carl M. Olsen · 1965
This 1965 study investigated using microwave energy to control bread mold growth, testing whether microwaves could reduce populations of common fungi that spoil bread products. The research explored microwave radiation as an alternative to chemical preservatives like sodium propionate for extending bread shelf life.
H. BOITEAU · 1965
This 1965 French study examined the biological effects of radar waves on living systems. The research focused on how ultra-short electromagnetic waves from radar systems interact with biological tissue. This represents early scientific recognition that radar technology could have measurable effects on living organisms.
Szafran · 1965
This 1965 case study documented a welder who developed a specific type of cataract (lens opacity) with characteristics similar to those seen in metal smelting workers. The research examined how occupational exposure to infrared radiation from welding operations can damage the eye's lens, contributing to early understanding of radiation-induced cataracts in industrial workers.
A. S. PRESMAN · 1965
This 1965 research examined how microwave radiation affects living organisms and biological structures, focusing on the dielectric properties of tissues and radiofrequency electromagnetic field interactions. The study represents early scientific investigation into microwave biological effects, establishing foundational understanding of how electromagnetic fields interact with living systems at the cellular and tissue level.
John D. Dougherty et al. · 1965
This 1965 study investigated a reported case of cataracts potentially caused by radar radiation exposure at a radar installation site. The research examined whether microwave radiation from radar equipment could have caused eye damage in an occupational setting. This represents early documentation of potential health effects from high-frequency electromagnetic field exposure in workplace environments.
L. E. MURR · 1965
This 1965 study examined how electrostatic fields affect plant growth, focusing on grass plants and grain sorghum. The research investigated the biophysical mechanisms behind electric field effects on vegetation, including potential damage from electrical exposure. This early work helped establish that living organisms respond measurably to electromagnetic environments.
Unknown authors · 1965
This 1965 Air Force manual examined microwave radiation hazards to military personnel and established safety control protocols. The document addressed biological effects from microwave exposure and outlined protective measures for personnel working with radar and communication systems. This represents early military recognition of microwave health risks decades before civilian safety standards.
Y.I. Kamenskiy · 1965
This 1965 Soviet research examined how microwave radiation affects nerve function in frogs, specifically investigating non-thermal effects on nerve tissue. The study represents early scientific recognition that microwaves could influence biological systems through mechanisms beyond simple heating. This foundational research helped establish that electromagnetic fields interact with nervous system function at the cellular level.
John F. Dias, M.D. · 1965
This 1965 medical review examined how both natural radiation (like sunlight) and artificial electromagnetic radiation affect human eyes, documenting specific eye diseases caused by different types of radiation exposure. The study cataloged pathological eye conditions linked to various radiation frequencies, establishing early medical recognition of electromagnetic radiation as a cause of eye damage.
Herbert L. König · 1965
This 1965 technical report by König examined the environmental effects of very low frequency (VLF) atmospheric electrical processes. The research focused on understanding how natural and artificial VLF electromagnetic fields in the atmosphere might impact the environment. This work represents early scientific investigation into VLF electromagnetic phenomena and their potential biological effects.
Susan Korbel Eakin, William D. Thompson · 1965
Researchers exposed 20 male rats to UHF radio waves (300-920 MHz) for 47 consecutive days and tracked behavioral changes. The radiated rats initially became more active but then grew less active over time, showed increased emotional responses, and took longer to recover from induced seizures. The study suggests these behavioral effects may be non-thermal and related to changes in the nervous system.
Martin Mintz, Glenn Heimer · 1965
This 1965 IEEE technical paper addressed the urgent need for better microwave radiation monitoring around high-powered transmitting equipment. Engineers developed new measurement devices that could accurately track cumulative radiation exposure from pulsed and scanning microwave sources, which posed recognized hazards to personnel and equipment.
Sol M. Michaelson et al. · 1965
This 1965 study exposed dogs to microwave radiation at two different frequencies (1285 and 2800 MHz) and found direct correlations between radiation intensity and weight loss at both frequencies. The research revealed that blood cell changes and signs of distress varied by frequency, with 1285 MHz causing less obvious distress symptoms even when body temperatures reached dangerous levels.
A. Ingelman-Sundberg, M.D., A. Odeblad, M.D. · 1965
This 1965 medical study investigated using short radio waves (radiofrequency radiation) to locate endometrial cancer tumors inside the body. The research explored whether RF energy could be used as a diagnostic tool by measuring how different tissues absorb electromagnetic radiation. This represents early medical applications of the same radiofrequency technology now used in cell phones and wireless devices.
Dougherty JD, Caldwell JC, Howe WM, Clark WB · 1965
This 1965 investigation examined a radar technician's claim that his cataract was caused by workplace radiation exposure. Medical evaluation found no evidence linking the cataract to radar radiation, despite initial concerns about potential microwave exposure at the facility.
G. S. Antonov · 1965
Soviet researchers in 1965 studied using ultra-high frequency electromagnetic fields combined with electrophoresis to treat pustulous skin diseases caused by staphylococcal bacteria. This early research explored how radiofrequency energy could be applied therapeutically for dermatological conditions. The study represents one of the earliest documented uses of RF fields in medical treatment protocols.
Lothar O. Hoeft · 1965
This 1965 study examined how microwave radiation heats up different animal species at varying rates, finding that smaller animals heat up faster than larger ones at the same microwave intensity. Researchers calculated exposure times needed to raise body temperature by 5°C and concluded that animal studies cannot be directly applied to humans without accounting for size differences.
A. Sances, Jr., S. J. Larson · 1965
This 1965 conference paper examined how rectangular electrical currents used for anesthesia affect model neurons, specifically studying how these currents polarize nerve cells in a soma-dendrite model. The research focused on the electronic mechanisms by which electrical anesthesia currents influence neuronal behavior. This early work helped establish foundational understanding of how external electrical fields interact with nervous system function.