K. L. Cappel · 1959
This 1959 study examined temperature control systems for a bio-satellite carrying laboratory rats to study the effects of zero gravity on behavior. Researchers designed active thermal regulation to maintain stable temperatures without internal heat sources, accounting for heat from rat metabolism, life support systems, and electronic equipment.
Joel Friedman · 1959
This 1959 study examined how infrared electromagnetic waves could penetrate through cloudy areas of the eye (corneal opacities) to aid in medical diagnosis. The research found that infrared imaging showed promise for diagnosing eye conditions, but noted that despite its potential, infrared diagnostic techniques weren't being widely adopted in routine medical practice.
Thomas P. Davis · 1959
This 1959 research examined how human skin responds to different types of radiation - comparing penetrating radiation that goes deeper into tissue versus non-penetrating radiation that affects only the surface. The study measured temperature changes to understand how thermal energy moves through skin layers when exposed to different radiation types.
F. C. Henriques · 1959
This 1959 research by F.C. Henriques developed methods to predict when thermal radiation would cause skin burns and epidermal injury. The study focused on understanding how heat exposure damages human skin tissue, establishing foundational knowledge for predicting thermal injury from infrared radiation sources.
Victor T. Tomberg · 1959
This 1959 conference paper examined the harmful biological effects of microwave radiation, focusing on thermal heating mechanisms and temperature gradients in living tissue. The research explored how microwaves cause dielectric heating through the Joule effect, creating uneven heating patterns that could damage biological systems. This represents early scientific recognition that microwave radiation poses biological risks beyond simple heating.
Lewis Winner · 1959
This 1959 conference brought together researchers exploring how electrical and electromagnetic technologies could be applied in medicine and biology. The proceedings covered early biomedical electronics, electromagnetic radiation applications, and medical instrumentation. This represents foundational work in understanding how electromagnetic fields interact with biological systems.
Unknown authors · 1959
This 1959 conference brought together researchers exploring how electrical techniques could be applied in medicine and biology. The conference papers covered various applications of electrical methods for medical diagnosis, treatment, and biological research. This represents early scientific investigation into bioelectricity and electromagnetic applications in healthcare.
Unknown authors · 1959
This 1959 conference brought together researchers exploring how electrical techniques could be applied to medicine and biology. The technical papers presented covered various methods for using electromagnetic fields and electrical devices in medical and biological research. This represents early scientific interest in the intersection of electricity and living systems, decades before widespread concern about EMF health effects.
Sol M. Michaelson, Roderick A. E. Thomson, Joe W. Howland · 1959
This 1959 study examined how animals respond to heat from microwave radiation compared to heat from increased environmental temperature. Researchers characterized the thermal (heat) responses in animals exposed to microwaves to understand whether microwave heating differs from conventional heating. This was pioneering research into the biological effects of microwave exposure during the early development of radar and microwave technology.
Russell L. Carpenter et al. · 1959
Researchers exposed 86 rabbit eyes to 2450 MHz microwave radiation at power densities of 0.12 to 0.40 watts per square centimeter, documenting the formation of cataracts. The study established specific thresholds for when eye damage occurs based on exposure time and power levels. This early research provided crucial evidence that microwave radiation can cause permanent eye damage.
H. S. Overman · 1959
A 1959 US Naval technical memorandum examined microwave radiation hazards to personnel at radar installations. The document addressed safety concerns for military personnel working around high-powered radar systems that emit microwave radiation. This represents early military recognition of potential health risks from occupational microwave exposure.
J. W. Howland, S. Michaelson · 1959
This 1959 technical report by Howland examined the biological effects of microwave radiation exposure in dogs and rabbits. While specific findings aren't available, this represents early research into how microwave energy affects living tissue in laboratory animals. The study contributed to foundational understanding of microwave biological effects during the early development of radar and microwave technology.
Raymond Jonnard · 1959
This 1959 technical paper by Jonnard examined optical methods for biomedical research, focusing on microscopy and frequency analysis techniques for studying biological phenomena. The research evaluated how optical technologies could be applied to analyze biological systems. While predating modern EMF health research, this work represents early efforts to develop precise measurement tools for biological studies.
Robert Wallis · 1959
This 1959 conference paper examined how scientific understanding of high-frequency electromagnetic currents and their effects on living organisms had evolved over time. The research reviewed concepts around applying radiofrequency energy to biological systems, including medical diathermy treatments that use electromagnetic waves to heat tissue.
H. P. Schwan · 1959
This foundational 1959 study analyzed how electrical properties of living matter change across different frequencies, from 1 Hz to 100,000 MHz. Schwan examined everything from water and proteins to cells and tissues, identifying key mechanisms like charge accumulation and molecular orientation that determine how biological materials interact with electromagnetic fields. This work established the scientific framework still used today to understand how EMF affects living systems.
Robert T. Nisset et al. · 1959
This 1959 technical report from the Rome Air Development Center examined how microwave radiation affects the nervous system. The research represents one of the earliest systematic investigations into microwave effects on neural function. While specific findings aren't available, this work helped establish the foundation for understanding how electromagnetic fields interact with brain and nervous system activity.
G. Piccardi · 1959
This 1959 research by G. Piccardi investigated how low-frequency electromagnetic fields affect the molecular structure and surface tension properties of water. The study examined the physical changes that occur in water when exposed to electromagnetic radiation, focusing on how these fields alter water's fundamental characteristics at the molecular level.
Franz Halberg · 1959
Franz Halberg's 1959 conference paper examined how light exposure controls biological timing in laboratory rodents, developing methods to analyze circadian rhythms and periodic physiological functions. This foundational research established principles for understanding how external signals synchronize internal biological clocks. The work laid groundwork for studying how artificial electromagnetic fields might disrupt natural circadian rhythms.
Nieset · 1958
This 1958 technical report by NIESET investigated the biological effects of microwave radiation, representing early government research into how microwave energy affects living systems. While specific findings aren't available, this work was part of the foundational studies that established microwave radiation as a potential biological concern. The research came during the early development of radar and microwave technologies, when scientists first began systematically studying health effects.
Unknown authors · 1958
This 1958 U.S. Air Force study examined radiation hazards from radar systems, representing early military recognition of microwave radiation health risks. The research focused on radar-specific microwave frequencies and their potential biological effects on personnel. This work helped establish foundational understanding of occupational EMF exposure risks in military settings.
F. V. SCHULTZ, R. C. BURGENER, S. KING · 1958
This 1958 study measured how much radar energy the human body reflects back at five different frequencies, from 410 to 9375 megacycles. Researchers found that a 200-pound, six-foot man reflected between 0.033 to 2.33 square meters of radar cross-section depending on frequency, body position, and wave polarization. The measurements showed radar reflection varies significantly with frequency and how the person is positioned relative to the radar beam.
Charles Susskind and Staff · 1958
This 1958 technical report by Charles Susskind examined the biological effects of microwave radiation on laboratory animals, cellular organisms, and insects. The research represents one of the earliest systematic investigations into how microwave frequencies affect living systems. This foundational work helped establish the scientific framework for understanding microwave radiation's biological impacts.
Charles C. Barron, M.D., Albert A. Baraff, M.D. · 1958
This 1958 military report examined the biological effects of radar microwave exposure following a publicized death allegedly linked to radar beam exposure. The study noted that while this incident generated widespread concern about radar safety, systematic military and civilian research was already underway to understand microwave health risks, though this scientific work received little public attention compared to sensational reports.
Knauf GM · 1958
This 1958 study examined the biological effects of microwave radiation exposure on Air Force personnel, representing early military research into occupational EMF health impacts. The research focused on understanding how microwave technology used in military operations might affect the health of service members who worked with radar and communication equipment. This represents some of the earliest systematic investigation into human microwave exposure effects.
Schultz FV, Burgener RC, King S · 1958
This 1958 study measured how much radar energy bounces off the human body, establishing the radar cross section of a person. This research helped understand how humans interact with radar waves and laid groundwork for assessing occupational exposure to radar radiation. The work was significant for both radar technology development and early safety considerations for radar operators.