ICES Database
ElectroMagnetic Field Literature
Search Engine
  

EMF Study
(Database last updated on Mar 27, 2024)

ID Number 1271
Study Type Literature Review, Letter, Book Chapt., Report
Model Literature Reviews (RF catch all).
Details

Literature Reviews (RF catch all) Stekhin and Iakovleva 2009 (#4829)(Article in Russian): The paper considers the problems associated with the need for hygienic regulation of the electronic state of the environment, which affects metabolic changes from impaired electronic balance in the primary nonspecific electronic regulation system. AUTHORS' ABSTRACT: Juutilainen et al. 2011 (#5085): The biological effects of modulated radiofrequency (RF) electromagnetic fields have been a subject of debate since early publications more than 30 years ago, suggesting that relatively weak amplitudemodulated RF electromagnetic fields have specific biological effects different from the well-known thermal effects of RF energy. This discussion has been recently activated by the increasing human exposure to RF fields from wireless communication systems. Modulation is used in all wireless communication systems to enable the signal to carry information.Aprevious reviewin 1998 indicated that experimental evidence for modulation-specific effects of RF energy is weak. This article reviews recent studies (published after 1998) on the biological effects of modulated RF fields. The focus is on studies that have compared the effects of modulated and unmodulated (continuous wave) RF fields, or compared the effects of different kinds of odulations; studies that used only one type of signal are not included. While the majority of recent studies have reported no modulation-specific effects, there are a few interesting exceptions indicating that there may be specific effects from amplitude modulated RF fields on the human central nervous system. These findings warrant follow-up studies. AUTHORS' ABSTRACT: La Vignera et al. 2011 (#5090): The use of mobile phones is now widespread. A great debate is going on about the possible damage that the radiofrequency electromagnetic radiation (RF-EMR) emitted by mobile phones exerts on different organs and apparatuses. Aim of this article was to review the existing literature exploring the effects of RF-EMR on the male reproductive function in experimental animals and human beings. Studies on the experimental animals have been conducted in rats, mice, and rabbits using a similar design based upon mobile phone radiofrequency exposure for a variable length of time. Altogether the results of these studies show that RF-EMR decreases sperm count and motility, and increases the oxidative stress. In human beings, two different experimental approaches have been followed, one has explored the effects of RF-EMR directly on spermatozoa and the other has evaluated the sperm parameters in men using or not mobile phones. The results show that human spermatozoa exposed to RF-EMR have decreased motility, morphometric abnormalities, and increased oxidative stress, whereas men using mobile phones have decreased sperm concentration, motility (particularly the rapid progressive one), normal morphology, and viability. These abnormalities seem to be directly related with the length of mobile phone use. AUTHORS' ABSTRACT: COMAR 2009 (IEEE #4513): The Committee on Man and Radiation (COMAR) is a technical committee of the Engineering in Medicine and Biology Society (EMBS) of the Institute of Electrical and Electronics Engineers (IEEE). Its primary area of interest is biological effects of non-ionizing electromagnetic radiation, including radiofrequency (RF) energy. The public interest in possible health effects attributed to RF energy, such as emitted by mobile phones, wireless telephone base stations, TV and radio broadcasting facilities, Wi-Fi systems and many other sources, has been accompanied by commentary in the media that varies considerably in reliability and usefulness for their audience. The focus of this COMAR Technical Information Statement is to identify quality sources of scientific information on potential health risks from exposure to RF energy. This Statement provides readers with references to expert reports and other reliable sources of information about this topic, most of which are available on the Internet. This report summarizes the conclusions from several major reports and comments on the markedly different conclusions in the BioInitiative Report (abbreviated BIR below). Since appearing on the Internet in August 2007, the BIR has received much media attention but, more recently, has been criticized by several health organizations (see Section titled "Views of health agencies about BIR"). COMAR concludes that the weight of scientific evidence in the RF bioeffects literature does not support the safety limits recommended by the BioInitiative group. For this reason, COMAR recommends that public health officials continue to base their policies on RF safety limits recommended by established and sanctioned international organizations such as the Institute of Electrical and Electronics Engineers International Committee on Electromagnetic Safety and the International Commission on Non-Ionizing Radiation Protection, which is formally related to the World Health Organization. AUTHORS' ABSTRACT: Juutilainen et al. 2011 (IEEE #5116): In this paper, the authors present a comprehensive review of animal studies on carcinogenicity of radiofrequency (RF) electromagnetic fields. The rapid increase in mobile telephony has resulted in concerns regarding possible heath effects from the low-level but increasingly ubiquitous exposure to RF fields. The possible carcinogenicity of RF fields has been investigated in a number of experimental models including classical rodent bioassays, studies using genetically predisposed animals, cocarcinogenicity studies, and studies evaluating effects on the development of tumors from transplanted tumor cells. Overall, the results of these studies are rather consistent and indicate no carcinogenic effects at exposure levels relevant to human exposure from mobile phones. This finding is consistent with the results of the majority of epidemiological studies on mobile phone users, and suggests that RF field exposure below the present guidelines is not likely to cause cancer. AUTHORS' ABSTRACT: Foster and Moulder 2013 (IEEE #5331): This review summarizes the current state of research on possible health effects of Wi-Fi (a commercial name for IEEE 802.11-compliant wireless networking). In response to public concerns about health effects of Wi-Fi and wireless networks and calls by government agencies for research on possible health and safety issues with the technology, a considerable amount of technology-specific research has been completed. A series of high quality engineering studies have provided a good, but not complete, understanding of the levels of radiofrequency (RF) exposure to individuals from Wi-Fi. The limited number of technology-specific bioeffects studies done to date are very mixed in terms of quality and outcome. Unequivocally, the RF exposures from Wi-Fi and wireless networks are far below U.S. and international exposure limits for RF energy. While several studies report biological effects due to Wi-Fi-type exposures, technical limitations prevent drawing conclusions from them about possible health risks of the technology. The review concludes with suggestions for future research on the topic. AUTHOR'S ABSTRACT: Pall 2013 (IEEE #5332): The direct targets of extremely low and microwave frequency range electromagnetic fields (EMFs) in producing non-thermal effects have not been clearly established. However, studies in the literature, reviewed here, provide substantial support for such direct targets. Twenty-three studies have shown that voltage-gated calcium channels (VGCCs) produce these and other EMF effects, such that the L-type or other VGCC blockers block or greatly lower diverse EMF effects. Furthermore, the voltage-gated properties of these channels may provide biophysically plausible mechanisms for EMF biological effects. Downstream responses of such EMF exposures may be mediated through Ca2+/calmodulin stimulation of nitric oxide synthesis. Potentially, physiological/therapeutic responses may be largely as a result of nitric oxide-cGMP-protein kinase G pathway stimulation. A well-studied example of such an apparent therapeutic response, EMF stimulation of bone growth, appears to work along this pathway. However, pathophysiological responses to EMFs may be as a result of nitric oxide-peroxynitrite-oxidative stress pathway of action. A single such well-documented example, EMF induction of DNA single-strand breaks in cells, as measured by alkaline comet assays, is reviewed here. Such single-strand breaks are known to be produced through the action of this pathway. Data on the mechanism of MF induction of such breaks are limited; what data are available support this proposed mechanism. Other Ca2+-mediated regulatory changes, independent of nitric oxide, may also have roles. This article reviews, then, a substantially supported set of targets, VGCCs, whose stimulation produces non-thermal EMF responses by humans/higher animals with downstream effects involving Ca2+/calmodulin-dependent nitric oxide increases, which may explain therapeutic and pathophysiological effects. AUTHOR'S ABSTRACT: Chou 2007 (IEEE #5371): For 35 years, I have been involved in various bioelectromagnetics research projects including acute and long-term radiofrequency (RF) bioeffects studies, dosimetry, exposure systems, MRI safety, cancer studies involving hyperthermia and electrochemical treatment, development of RF exposure and measurement standards, and product compliance. My first study demonstrated that effects on isolated nerve and muscle preparations were due to thermal effects of RF exposure. The recording of cochlear microphonics in animals shows the mechanical nature of the microwave auditory effect. In 1992, we published the results of a large-scale lifetime study in which 100 rats were sham-exposed and 100 rats were exposed for 21 h/day for 25 months to a pulsed RF signal. In dosimetry studies, human models were employed as well as many animal species including mice, rats, rabbits, monkeys, and birds of many sizes. Cancer hyperthermia studies demonstrated that knowledge of temperature distribution was crucial for successful treatment. Research on electrochemical treatment of tumors with direct current involved cellular, animal, and clinical studies. Over the past few decades, there has been rather extensive investigation of the public health impact of RF exposure. In my opinion, future research in bioelectromagnetics should place greater emphasis on medical applications. AUTHOR'S ABSTRACT: Dahal 2013 (IEEE #5436): Mobile phone became almost essential part of daily life for all generation of people. It functions with the help of transmission of electromagnetic waves from towers to the cell phones in the micro wave frequency region. The energy carried by the waves is not only useful for mobile communication but also produce adverse affects on the users' health as well as to all living beings which are in the radiation area. The paper aims to discuss some of the possible dark side of health concern by the usage of cell phone and radiation from the towers. It also aims to suggest the possible remedies to minimize the health problems. AUTHORS' ABSTRACT: Sivani and Sudarsanam 2012 (IEEE #5486): This paper summarizes the effect of radio-frequency electromagnetic field (RF-EMF) from cell towers and wireless devices on the biosphere. Based on current available literature, it is justified to conclude that RF-EMF radiation exposure can change neurotransmitter functions, blood-brain barrier, morphology, electrophysiology, cellular metabolism, calcium efflux, and gene and protein expression in certain types of cells even at lower intensities. The biological consequences of such changes remain unclear. Short-term studies on the impacts of RF-EMF on frogs, honey bees, house sparrows, bats, and even humans are scare and long-term studies are non-existent in India. Identification of the frequency, intensity, and duration of non-ionizing electromagnetic fields causing damage to the biosystem and ecosystem would evolve strategies for mitigation and would enable the proper use of wireless technologies to enjoy its immense benefits, while ensuring ones health and that of the environment. AUTHORS' ABSTRACT: Vijayalaxmi and Prihoda 2014 (IEEE #5497): There is widespread concern among the general public regarding the ever increasing use of mobile phones. The concern is mainly because the antenna which transmits nonionizing radiofrequency fields is held close to the head during use and thus might cause brain cancer. By far, the largest epidemiological study was conducted by the INTERPHONE study group and the results were published in 2011. The authors conclusions were (i) no increased risk of meningioma and glioma in mobile phone users and (ii) there were suggestions of an increased risk for glioma at the highest exposure levels but, bias and error prevented a causal interpretation. We have carefully examined all of the odd ratios presented in the INTERPHONE study publication: our results showed 24.3% decreased and 0.7% increased risk for meningioma and 22.1% decreased and 6.6% increased risk for glioma. Hence, we hypothesize that the overwhelming evidence for the decreased risk for both diseases may be due to the induction of adaptive response which is well-documented in scientific literature. AUTHORS' ABSTRACT: Repacholi et al. 2012 (IEEE #5506): We conducted a systematic review of scientific studies to evaluate whether the use of wireless phones is linked to an increased incidence of the brain cancer glioma or other tumors of the head (meningioma, acoustic neuroma, and parotid gland), originating in the areas of the head that most absorb radiofrequency (RF) energy from wireless phones. Epidemiology and in vivo studies were evaluated according to an agreed protocol; quality criteria were used to evaluate the studies for narrative synthesis but not for meta-analyses or pooling of results. The epidemiology study results were heterogeneous, with sparse data on long-term use (e 10 years). Meta-analyses of the epidemiology studies showed no statistically significant increase in risk (defined as P < 0.05) for adult brain cancer or other head tumors from wireless phone use. Analyses of the in vivo oncogenicity, tumor promotion, and genotoxicity studies also showed no statistically significant relationship between exposure to RF fields and genotoxic damage to brain cells, or the incidence of brain cancers or other tumors of the head. Assessment of the review results using the Hill criteria did not support a causal relationship between wireless phone use and the incidence of adult cancers in the areas of the head that most absorb RF energy from the use of wireless phones. There are insufficient data to make any determinations about longer-term use (e 10 years). AUTHOR'S ABSTRACT: Markov 2014 (IEEE #5549): This review paper analyzes the role of natural and man-made magnetic and electromagnetic fields in origin and evolution of life as well as the effects of contemporary magnetic/electromagnetic fields on human life. Both, hazard and benefit of these fields is discussed with the review of variety of signals that affect human life. The emphasis is on the use of electromagnetic fields in medicine for diagnostics and therapy. The paper demonstrates basic science and clinical achievements in planning and executing studies and clinical trials, as well as the perspectives for future development of magnetotherapy. AUTHORS' ABSTRACT: Mohamed et al. 2014 (IEEE #5564): The potential health effects of the very low frequency of electromagnetic fields surrounding power lines and electrical devices are the subject of ongoing research and a significant amount of public debate. While electrical and electromagnetic fields in certain frequency bands have fully beneficial effects which are applied in medicine, other non-ionizing frequencies, be they sourced from extremely low frequencies, power lines or certain high frequency waves used in the fields of radar, telecommunications and mobile telephony, appear to have more or less potentially harmful, nonthermal, biological effects on plants, insects and animals, as well as the human body when exposed to levels that are below the official threshold values. One must respect the precautionary principle and revise the current threshold values; waiting for high levels of scientific and clinical proof can lead to very high health and economic costs, as was the case in the past with asbestos, leaded petrol and tobacco. AUTHOR'S ABSTRACT: Röösli 2013 (IEEE #5582): Use of electricity causes extremely low frequency magnetic fields (ELF-MF) and wireless communication devices emit radiofrequency electromagnetic fields (RF-EMF). Average ELF-MF exposure is mainly determined by high voltage power lines and transformers at home or at the workplace, whereas RF-EMF exposure is mainly caused by devices operating close to the body (mainly mobile and cordless phones). Health effects of EMF are controversially discussed. The IARC classified ELF-MF and RF-EMF as possible carcinogenic. Most consistent epidemiological evidence was found for an association between ELF-MF and childhood leukaemia. If causal, 1 - 4 percent of all childhood leukaemia cases could be attributed to ELF-MF. Epidemiological research provided some indications for an association between ELF-MF and Alzheimer's diseases as well as amyotrophic lateral sclerosis, although not entirely consistent. Regarding mobile phones and brain tumours, some studies observed an increased risk after heavy or long term use on the one hand. On the other hand, brain tumour incidence was not found to have increased in the last decade in Sweden, England or the US. Acute effects of RF-EMF on non-specific symptoms of ill health seem unlikely according to randomized and double blind provocation studies. However, epidemiological research on long term effects is still limited. Although from the current state of the scientific knowledge a large individual health risk from RF-EMF exposure is unlikely, even a small risk would have substantial public health relevance because of the widespread use of wireless communication technologies. AUTHOR'S ABSTRACT: Elmas 2013 (IEEE #5583): The use of electrical devices has gradually increased throughout the last century, and scientists have suggested that electromagnetic fields (EMF) generated by such devices may have harmful effects on living creatures. This work represents a systematic review of collective scholarly literature examining the effects of EMFs on the heart. Although most works describing effects of EMF exposure have been carried out using city electric frequencies (50-60 Hz), a consensus has not been reached about whether long- or short-term exposure to 50-60 Hz EMF negatively affects the heart. Studies have indicated that EMFs produced at cell-phone frequencies cause no-effect on the heart. Differences between results of studies may be due to a compensatory response developed by the body over time. At greater EMF strengths or shorter exposures, the ability of the body to develop compensation mechanisms is reduced and the potential for heart-related effects increases. It is noteworthy that diseases of heart tissues such as myocardial ischemia can also be successfully treated using EMF. Despite the substantial volume of data that has been collected on heart-related effects of EMFs, additional studies are needed at the cellular and molecular level to fully clarify the subject. Until the effects of EMF on heart tissue are more fully explored, electronic devices generating EMFs should be approached with caution. AUTHORS' ABSTRACT: Kesari et al. 2013 (IEEE #5598): Wireless technologies are ubiquitous today and the mobile phones are one of the prodigious output of this technology. Although the familiarization and dependency of mobile phones is growing at an alarming pace, the biological effects due to the exposure of radiations have become a subject of intense debate. The present evidence on mobile phone radiation exposure is based on scientific research and public policy initiative to give an overview of what is known of biological effects that occur at radiofrequency (RF)/ electromagnetic fields (EMFs) exposure. The conflict in conclusions is mainly because of difficulty in controlling the affecting parameters. Biological effects are dependent not only on the distance and size of the object (with respect to the object) but also on the environmental parameters. Health endpoints reported to be associated with RF include childhood leukemia, brain tumors, genotoxic effects, neurological effects and neurodegenerative diseases, immune system deregulation, allergic and inflammatory responses, infertility and some cardiovascular effects. Most of the reports conclude a reasonable suspicion of mobile phone risk that exists based on clear evidence of bio-effects which with prolonged exposures may reasonably be presumed to result in health impacts. The present study summarizes the public issue based on mobile phone radiation exposure and their biological effects. This review concludes that the regular and long term use of microwave devices (mobile phone, microwave oven) at domestic level can have negative impact upon biological system especially on brain. It also suggests that increased reactive oxygen species (ROS) play an important role by enhancing the effect of microwave radiations which may cause neurodegenerative diseases. AUTHORS' ABSTRACT: Davis et al. 2013 (IEEE #5599): With 5.9 billion reported users, mobile phones constitute a new, ubiquitous and rapidly growing exposure worldwide. Mobile phones are two-way microwave radios that also emit low levels of electromagnetic radiation. Inconsistent results have been published on potential risks of brain tumors tied with mobile phone use as a result of important methodological differences in study design and statistical power. Some studies have examined mobile phone users for periods of time that are too short to detect an increased risk of brain cancer, while others have misclassified exposures by placing those with exposures to microwave radiation from cordless phones in the control group, or failing to attribute such exposures in the cases. In 2011, the World Health Organization, International Agency for Research on Cancer (IARC) advised that electromagnetic radiation from mobile phone and other wireless devices constitutes a "possible human carcinogen," 2B. Recent analyses not considered in the IARC review that take into account these methodological shortcomings from a number of authors find that brain tumor risk is significantly elevated for those who have used mobile phones for at least a decade. Studies carried out in Sweden indicate that those who begin using either cordless or mobile phones regularly before age 20 have greater than a fourfold increased risk of ipsilateral glioma. Given that treatment for a single case of brain cancer can cost between $100,000 for radiation therapy alone and up to $1 million depending on drug costs, resources to address this illness are already in short supply and not universally available in either developing or developed countries. Significant additional shortages in oncology services are expected at the current growth of cancer. No other environmental carcinogen has produced evidence of an increased risk in just one decade. Empirical data have shown a difference in the dielectric properties of tissues as a function of age, mostly due to the higher water content in children's tissues. High resolution computerized models based on human imaging data suggest that children are indeed more susceptible to the effects of EMF exposure at microwave frequencies. If the increased brain cancer risk found in young users in these recent studies does apply at the global level, the gap between supply and demand for oncology services will continue to widen. Many nations, phone manufacturers, and expert groups, advise prevention in light of these concerns by taking the simple precaution of "distance" to minimize exposures to the brain and body. We note than brain cancer is the proverbial "tip of the iceberg"; the rest of the body is also showing effects other than cancers. AUTHOR'S ABSTRACT: Szmigielski 2013 (IEEE #5612): For years, radiofrequency (RF) and microwave (MW) radiations have been applied in the modern world. The rapidly increasing use of cellular phones called recent attention to the possible health risks of RF/MW exposures. In 2011, a group of international experts organized by IARC (International Agency for Research on Cancer in Lyon) concluded that RF/MW radiations should be listed as a possible carcinogen (group 2B) for humans. Three meta-analyses of case-control studies have concluded that using cell phones for more than ten years was associated with an increase in the overall risk of developing a brain tumor. The Interphone Study, the largest health-related case-control international study of use of cell phones and head and neck tumors, showed no statistically significant increases in brain cancers related to higher amounts of cell phone use, but excess risk in a small subgroup of more heavily exposed users associated with latency and laterality was reported. So far, the published studies do not show that mobile phones could for sure increase the risk of cancer. This conclusion is based on the lack of a solid biological mechanism, and the fact that brain cancer rates are not going up significantly. However, all of the studies so far have weaknesses, which make it impossible to entirely rule out a risk. Mobile phones are still a new technology and there is little evidence about effects of long-term use. For this reason, bioelectromagnetic experts advise application of a precautionary resources. It suggests that if people want to use a cell phone, they can choose to minimize their exposure by keeping calls short and preferably using hand-held sets. It also advises discouraging children from making non essential calls as well as also keeping their calls short. AUTHORS' ABSTRACT: Leszczynski et al. 2012 (IEEE #5619): The World Health Organization's and Radiation and Nuclear Safety Authority's "Workshop on Application of Proteomics and Transcriptomics in Electromagnetic Fields Research" was held in Helsinki in the October/November 2005. As a consequence of this meeting, Proteomics journal published in 2006 a special issue "Application of Proteomics and Transcriptomics in EMF Research" (Vol. 6 No. 17; Guest Editor: D. Leszczynski). This Proteomics issue presented the status of research, of the effects of electromagnetic fields (EMF) using proteomics and transcriptomics methods, present in 2005. The current overview/opinion article presents the status of research in this area by reviewing all studies that were published by the end of 2010. The review work was a part of the European Cooperation in the Field of Scientific and Technical Research (COST) Action BM0704 that created a structure in which researchers in the field of EMF and health shared knowledge and information. The review was prepared by the members of the COST Action BM0704 task group on the high-throughput screening techniques and electromagnetic fields (TG-HTST-EMF). AUTHOR'S ABSTRACT: Moussa et al. 2011 (IEEE #5621): BACKGROUND: Part 1 of this review was published in the Journal of Egyptian Association of Public Health 2010; 85(5, 6):337-345. It included the introduction and methodology. It was based on reviewing the literature published in the last 10 years (2000-2010). METHODS: Searches were made electronically through various search engines and health-related databases, and manually through journals, reports, and conference proceedings. The references used in the introduction of part 1 were mainly WHO reports, textbooks, and nonserial publications. RESULTS: In part 2, the literature published in 2011 was added to the yield and the results and conclusions are based on the updated search. In this literature search, 69 research articles (epidemiologic, experimental, cellular, and animal studies), 17 systemic or meta-analysis review studies, and four reports were included. CONCLUSION: The evidence presented in these peer-reviewed publications did not provide a consistent pattern that exposure to mobile phones is detrimental to health. Only studies associating mobile phone use during driving with road traffic accidents and those investigating electromagnetic interference with personal or hospital medical electronic devices showed consistent results. Regarding children, there are currently little data on cell phone use and health effects, including the risk of cancer. Further experimental and epidemiologic studies are needed to seek explanations for the controversies in studies on mobile phones so far. These studies should apply sound methodology for exposure assessment of mobile phone radiation and should focus on the effects of long-term use (more than 10 years). Cohort studies, in particular, should be established to investigate the long-term effects of mobile phone use on brain cancer as well as to investigate the possible health effects among children. AUTHOR'S ABSTRACT: Behari 2010 (IEEE #5622): Existence of low level electromagnetic fields in the environment has been known since antiquity and their biological implications are noted for several decades. As such dosimetry of such field parameters and their emissions from various sources of mass utilization has been a subject of constant concern. Recent advancement in mobile communications has also drawn attention to their biological effects. Hand held children and adults alike generally use mobile sources as cordless phones in various positions with respect to the body. Further, an increasing number of mobile communication base stations have led to wide ranging concern about possible health effects of radiofrequency emissions. There are two distinct possibilities by which health could be affected as a result of radio frequency field exposure. These are thermal effects caused by holding mobile phones close to the body and extended conversations over a long period of time. Secondly, there could be possibly non thermal effects from both phones and base stations whereby the affects could also be cumulative. Some people may be adversely affected by the environmental impact of mobile phone base stations situated near their homes, schools or any other place. In addition to mobile phones, appliances like microwave oven etc are also in increasing use. Apart from the controversy over the possible health effects due to the non-thermal effect of electromagnetic fields the electromagnetic interaction of portable radio waves with human head needs to be quantitatively evaluated. Relating to this is the criteria of safe exposure to the population at large. While a lot of efforts have gone into resolving the issue, a clear picture has yet to emerge. Recent advances and the problems relating to the safety criteria are discussed. AUTHORS' ABSTRACT: Kheifets et al. 2010 (IEEE #5625): Power-frequency electric and magnetic fields (EMFs) have been present in industrialized countries since the late 19th century and a considerable amount of knowledge has been accumulated as to potential health effects. The mainstream scientific view is that even if there is a risk, it is unlikely to be of major public-health significance. EMFs from cellular communications and other radio-frequency technologies have increased rapidly in the last decade. This technology is constantly changing, which makes continued research both more urgent and more challenging. While there are no persuasive data suggesting a health risk, research and particularly exposure assessment is still immature. The principal risk-governance issue with power frequencies is how to respond to weak and uncertain scientific evidence that nonetheless causes public concern. For radio-frequency electromagnetic fields, the issue is how to respond to large potential consequences and large public concern where only limited scientific evidence exists. We survey these issues and identify deficits in risk governance. Deficits in problem framing include both overstatement and understatement of the scientific evidence and of the consequences of taking protective measures, limited ability to detect early warnings of risk, and attempted reassurance that has sometimes been counterproductive. Other deficits relate to the limited public involvement mechanisms, and flaws in the identification and evaluation of tradeoffs in the selection of appropriate management strategies. We conclude that risk management of EMFs has certainly not been perfect, but for power frequencies it has evolved and now displays many successful features. Lessons from the power-frequency experience can benefit risk governance of the radio-frequency EMFs and other emerging technologies. AUTHOR'S ABSTRACT: Carpenter 2010 (IEEE #5638): Everyone is exposed to electromagnetic fields (EMFs) from electricity (extremely low frequency, ELF), communication frequencies, and wireless devices (radiofrequency, RF). Concern of health hazards from EMFs has increased as the use of cell phones and other wireless devices has grown in all segments of society, especially among children. While there has been strong evidence for an association between leukemia and residential or occupational exposure to ELF EMFs for many years, the standards in existence are not sufficiently stringent to protect from an increased risk of cancer. For RF EMFs, standards are set at levels designed to avoid tissue heating, in spite of convincing evidence of adverse biological effects at intensities too low to cause significant heating. Recent studies demonstrate elevations in rates of brain cancer and acoustic neuroma only on the side of the head where individuals used their cell phone. Individuals who begin exposure at younger ages are more vulnerable. These data indicate that the existing standards for radiofrequency exposure are not adequate. While there are many unanswered questions, the cost of doing nothing will result in an increasing number of people, many of them young, developing cancer. AUTHOR'S ABSTRACT: Olsen 2010 (IEEE #5639): The use of mobile phones is becoming one of the most widespread modes of exposure of the population to non-ionising radiation1 2; this kind of radiation exposure is still not related to any disease. So far, the only well-documented health effect is acquiring injuries from accidents caused by the distraction a phone call can make while driving. This is a serious risk that justifies stronger actions than what is being taken by most countries, especially since innocent bystanders are also being exposed to harm. Despite substantial research investments, there is at present no coherent body of work that documents this exposure to cause any other disease. We have no sick persons of whom we can safely say that they would not have had their disease had they not used the phone, except perhaps the driver that missed the traffic light while talking on his mobile phone. Nor do we have many diseases where we can safely say that they are never caused by the use of mobile phones. For well-monitored diseases like brain cancers, we may say that it is unlikely that the exposure is a strong cause with a high-risk ratio, at least if the induction period is <10years. If the exposure increases the risk & AUTHORS' ABSTRACT: Schweikardt and Gross 2012 (IEEE #5659): In order to establish a regulatory framework for a given technology important to society, the government must make decisions in the face of existing unknowingness. In the last decade, health risks originating from electromagnetic fields of mobile telecommunication transmitting stations and devices have become a regulation policy issue in Germany. This article investigates the role of the government and the Federal Office for Radiation Protection in regard to policy-making by analysing publications and Federal Parliament reports, hearings and debates. The government and Federal Parliament perceived the research situation in 2001 as insufficient in the absence of hard evidence for health impairment. Against this background, the government struck a compromise with mobile telecommunication network operators, who did not want to integrate stricter limit values for transmission stations as precautionary measures. The network operators' voluntary self-commitment included financing half the budget of the German Mobile Telecommunication Research Programme (2002-2008) under the lead management of the Federal Office for Radiation Protection, which concluded that it was not required to change the position taken in 2001. The results of this programme provided the basis to continue the agreement of that year. With regard to health issues and all the other interests involved, this agreement was an acceptable and remarkably stable compromise. AUTHOR'S ABSTRACT: Leitgeb 2011 (IEEE #5670): Comparative health risk assessment of electromagnetic fields (EMFs) has been performed in their entire frequency range from static fields until ionizing radiation. Due to considerable change of physical and biologic interaction and the nature of potential adverse health effects comparison was based on the carcinogenic potential of environmental EMF exposure levels. There was a need for sophisticated discrimination of levels of evidence as well as the available database. Conclusions were based on a synoptic view to results of different scientific approaches such as theoretical and biologic interaction modeling, evidence for accumulative effects, in vitro and in vivo investigations and epidemiologic studies. The comparative assessment revealed significant differences of objective results and public risk perception, and puts EMF risks into perspective. It highlights the necessity for individual's responsible behavior in terms of prudent avoidance. The comparison indicates where risk awareness might merit priority. This is not restricted to the UV range but includes also other exposures such as to nocturnal light or within infrared cabins. AUTHORS' ABSTRACT: Ostrom et al. 2014 (IEEE #5683): Gliomas are the most common primary intracranial tumor, representing 81% of malignant brain tumors. Although relatively rare, they cause significant mortality and morbidity. Glioblastoma, the most common glioma histology (<45% of all gliomas), has a 5-year relative survival of <5%. A small portion of these tumors are caused by Mendelian disorders, including neurofibromatosis, tuberous sclerosis, and Li-Fraumeni syndrome. Genomic analyses of glioma have also produced new evidence about risk and prognosis. Recently discovered biomarkers that indicate improved survival include O6-methylguanine-DNA methyltransferase methylation, isocitrate dehydrogenase mutation, and a glioma cytosine-phosphate-guanine island methylator phenotype. Genome-wide association studies have identified heritable risk alleles within 7 genes that are associated with increased risk of glioma. Many risk factors have been examined as potential contributors to glioma risk. Most significantly, these include an increase in risk by exposure to ionizing radiation and a decrease in risk by history of allergies or atopic disease(s). The potential influence of occupational exposures and cellular phones has also been examined, with inconclusive results. We provide a "state of the science" review of current research into causes and risk factors for gliomas in adults. AUTHORS' ABSTRACT: Hess et al. 2014 (IEEE #5684): Although smart meters for electricity have received widespread acclaim as a means to achieve more resilient and sustainable electricity consumption, public opposition has emerged in several countries. In this article, I examine the reasons for public opposition in North America and the role of concern with health risks. The article provides an analysis of reasons given for opposing smart meters by 75 US and Canadian organisations listed in the 2013 EMF (electromagnetic field) Safety Network, a review of all news reports (499) in the Lexis-Nexis database relating to smart meters in seven US states and one Canadian province from 2010 to 2013 and case studies of policy responses in the same seven states and province. Thirty-one of the organisations in the EMF network focused mainly on health concerns about EMFs, and 44 organisations identified broader concerns as well as health risks. The more politically conservative groups focused on issues relating to privacy and government intrusion. Newspaper reports also identified health risks, although they also identified issues relating to cost overruns and privacy. The study of newspaper reporting in the seven US states and one Canadian province indicated that relevant agencies had responded to public concerns by developing opt-out provisions for meter installation, in some cases after protracted public campaigns. I consider possible patterns of opposition for future investigation: opposition may be higher where the roll-out of smart meters is rapid and without an opt-out provision; technological differences (for example, wired versus wireless) may contribute to levels of public opposition; and challengers to incumbent parties of either the right or left may also contribute to public opposition. In the Conclusion section, I compare two policy strategies, one of which views public opposition as a lack of good communication from utilities, and the other which views it as an opportunity for innovation in systems design and improvements in governance policies. AUTHORS' ABSTRACT: Morgan, Kesari and Davis 2014 (IEEE #5706): Computer simulation using MRI scans of children is the only possible way to determine the microwave radiation (MWR) absorbed in specific tissues in children. Children absorb more MWR than adults because their brain tissues are more absorbent, their skulls are thinner and their relative size is smaller. MWR from wireless devices has been declared a possible human carcinogen. Children are at greater risk than adults when exposed to any carcinogen. Because the average latency time between first exposure and diagnosis of a tumor can be decades, tumors induced in children may not be diagnosed until well into adulthood. The fetus is particularly vulnerable to MWR. MWR exposure can result in degeneration of the protective myelin sheath that surrounds brain neurons. MWR-emitting toys are being sold for use by young infants and toddlers. Digital dementia has been reported in school age children. A case study has shown when cellphones are placed in teenage girls bras multiple primary breast cancer develop beneath where the phones are placed. MWR exposure limits have remained unchanged for 19 years. All manufacturers of smartphones have warnings which describe the minimum distance at which phone must be kept away from users in order to not exceed the present legal limits for exposure to MWR. The exposure limit for laptop computers and tablets is set when devices are tested 20 cm away from the body. Belgium, France, India and other technologically sophisticated governments are passing laws and/or issuing warnings about childrens use of wireless devices. AUTHORS' ABSTRACT: Vijayalaxmi and Scarfi 2014 (IEEE #5714): The escalated use of various wireless communication devices, which emit non-ionizing radiofrequency (RF) fields, have raised concerns among the general public regarding the potential adverse effects on human health. During the last six decades, researchers have used different parameters to investigate the effects of in vitro and in vivo exposures of animals and humans or their cells to RF fields. Data reported in peer-reviewed scientific publications were contradictory: some indicated effects while others did not. International organizations have considered all of these data as well as the observations reported in human epidemiological investigations to set-up the guidelines or standards (based on the quality of published studies and the weight of scientific evidence approach) for RF exposures in occupationally exposed individuals and the general public. Scientists with relevant expertise in various countries have also considered the published data to provide the required scientific information for policy-makers to develop and disseminate authoritative health information to the general public regarding RF exposures. This paper is a compilation of the conclusions, on the biological effects of RF exposures, from various national and international expert groups, based on their analyses. In general, the expert groups suggested a reduction in exposure levels, precautionary approach, and further research. AUTHORS' ABSTRACT: Singh and Kaur 2014 (IEEE #5720): The study of the biological effects associated with exposure to electromagnetic energy at radiofrequency/microwave frequencies is a mature scientific discipline. Exposure to electromagnetic fields has become an issue of concern for great many people and is an active area of biophysical research. It is clear that EMF is not going away from our lives as it has become an integral part. Therefore, it is necessary to give directions to the public, as well as companies involved in the area of EMF. This study confirms that artificial sources of anything are more dangerous than natural sources and opening the door for the acceptance of innovative and beneficial technologies. In the end this review is concluded with intense discussion to devise a strategy to overcome the health hazards posed by EMFs. AUTHORS' ABSTRACT: Gherardini et al. 2014 (IEEE #5740): There is a growing concern in the population about the effects that environmental exposure to any source of uncontrolled radiation may have on public health. Anxiety arises from the controversial knowledge about the effect of electromagnetic field (EMF) exposure to cells and organisms but most of all concerning the possible causal relation to human diseases. Here we reviewed those in vitro and in vivo and epidemiological works that gave a new insight about the effect of radio frequency (RF) exposure, relating to intracellular molecular pathways that lead to biological and functional outcomes. It appears that a thorough application of standardized protocols is the key to reliable data acquisition and interpretation that could contribute a clearer picture for scientists and lay public. Moreover, specific tuning of experimental and clinical RF exposure might lead to beneficial health effects. AUTHORS' TEXT: Yakymenko et al. 2014 (IEEE #5741): "It is still a question how low intensity RFR could activate superoxide-generating enzyme NADH oxidase or significantly increase the level of NO in a cell (e.g., possibly due to activation of NO synthase). But what is understood at the moment is that significantly increased levels of ROS in living cells caused by low intensity RFR exposure could lead to mutagenic effects through expressive oxidative damage of DNA [17, 27, 41]. It is also well documented nowadays that in biological systems, oxidants are not necessarily always the triggers for oxidative damage, and that oxidants such as H2O2 could actually serve as signaling messengers and drive several aspects of cellular signaling [42]. This leads to a hypothesis that overproduction of ROS/free radical species in living cells under low intensity RFR exposure can lead to disturbances in cell signaling cascades, which in turn may result in various pathologic consequences." (see page 2) AUTHOR'S TEXT: Jalota 2014 (IEEE #5742): NOTE THE ABSENCE OF REFERENCES FOR THE FOLLOWING TEXT (see pages 3862-3)."XI. Health hazards caused by Bluetooth devices Though, communicating using Bluetooth devices is preferred over cell phone devices, Bluetooth devices are not entirely safe. Long term exposure to microwave signals from Bluetooth devices can cause so many health hazards. Some potential hazards of Bluetooth technology are given below: Ear Pain: Ear pain is one of the health hazards caused by prolonged use of Bluetooth headsets. Bluetooth headsets clipped in to ears outer portion cause pain due to their weight. The uncomfortable sit of Bluetooth headsets can also cause ear-pain. You can use cushions and weight less Bluetooth headsets to avoid discomfort. Hearing loss: It is another side effect of Bluetooth headsets. Headset volume can be tuned to higher levels but you should know that sounds louder than 85dB can cause hearing loss. To protect your hearing ability, keep the volume low. Weight gain: Electromagnetic frequencies and radiations interrupt the natural energy flow of body. According to the King institute, repeated exposure to this type of radiation can also cause weight gain. Brain cancer: When we use Bluetooth headsets, we are bringing these devices close to head. Individuals who use this device continually get affected by its radiations even when the device is not in use. Even small doses of such radiations affect brain cells and can cause brain cancer. Leukemia: It is another hazard of using Bluetooth technology. Radiations coming from Bluetooth devices are not as strong as microwave radiations but their continued exposure can result in Leukemia, low immunity system and diseases. Other side effects: Bluetooth radiations may affect individuals differently but problems arise basically because microwave radiations interrupt cell functioning and natural transmission of energy. Some other side effects associated with microwave radiations are birth defects, miscarriage, hair loss, Alzheimer disease, neck pain, and headache." AUTHOR'S CONCLUSION (p ): Shckorbatov 2014 (IEEE #5743): The problem of primary mechanism of EMF-induced effects on the cellular level is far from its solving. It is difficult to identify the leading cause of such effects. Sometimes the effects are registered in some laboratories, but not registered in others. This phenomenon may be partly explained by differences in the EMF sources and experimental objects applied. The cells of different genotype [118,119] and of the different of stage of differentiation [120] reveal different reactions to the same EMFs. So, these differences may be taken into consideration when experiments are panned and analyzed. The good established are facts of oxidative stress and gene regulation changes after EMFs action. But sometimes it is difficult to distinguish the primary cause of EMF induced effect and the secondary consequence of EMF action. This consideration may be applied to the EMF-induced oxidation stress and to gene regulation pattern, because these events accompany the action of different unfavorable factors on cell. It is possible that such complex reaction as cell reaction on EMFs has many competing mechanisms and under different conditions to the fore is advanced one of them. In our opinion the primary reaction to electromagnetic field may be connected with the level of gene activity regulation. The reaction of chromatin condensation is one of the safe cell reactions to EMF which is always registered and which we can observe immediately after applying of EMF. The investigation of molecular mechanisms underlying this reaction can give new important information about the primary mechanism of EMF action on cell. AUTHORS' ABSTRACT: Yakymenko et al. 2011 (IEEE #5753): In this review we discuss alarming epidemiological and experimental data on possible carcinogenic effects of long term exposure to low intensity microwave (MW) radiation. Recently, a number of reports revealed that under certain conditions the irradiation by low intensity MW can substantially induce cancer progression in humans and in animal models. The carcinogenic effect of MW irradiation is typically manifested after long term (up to 10 years and more) exposure. Nevertheless, even a year of operation of a powerful base transmitting station for mobile communication reportedly resulted in a dramatic increase of cancer incidence among population living nearby. In addition, model studies in rodents unveiled a significant increase in carcinogenesis after 17-24 months of MW exposure both in tumor-prone and intact animals. To that, such metabolic changes, as overproduction of reactive oxygen species, 8-hydroxi-2-deoxyguanosine formation, or ornithine decarboxylase activation under exposure to low intensity MW confirm a stress impact of this factor on living cells. We also address the issue of standards for assessment of biological effects of irradiation. It is now becoming increasingly evident that assessment of biological effects of non-ionizing radiation based on physical (thermal) approach used in recommendations of current regulatory bodies, including the International Commission on Non-Ionizing Radiation Protection (ICNIRP) Guidelines, requires urgent reevaluation. We conclude that recent data strongly point to the need for re-elaboration of the current safety limits for non-ionizing radiation using recently obtained knowledge. We also emphasize that the everyday exposure of both occupational and general public to MW radiation should be regulated based on a precautionary principles which imply maximum restriction of excessive exposure. AUTHORS' ABSTRACT: Johnson et al. 2014 (IEEE #5807): Childhood brain tumors are the most common pediatric solid tumor and include several histologic subtypes. Although progress has been made in improving survival rates for some subtypes, understanding of risk factors for childhood brain tumors remains limited to a few genetic syndromes and ionizing radiation to the head and neck. In this report, we review descriptive and analytical epidemiology childhood brain tumor studies from the past decade and highlight priority areas for future epidemiology investigations and methodological work that is needed to advance our understanding of childhood brain tumor causes. Specifically, we summarize the results of a review of studies published since 2004 that have analyzed incidence and survival in different international regions and that have examined potential genetic, immune system, developmental and birth characteristics, and environmental risk factors. AUTHORS' ABSTRACT: Perrin et al. 2010 (IEEE #5812): The published results available in 2005 were insufficient to draw firm conclusions concerning the possible non-thermal effects of radiofrequency fields on the blood-brain barrier (BBB). This critical review deals with 16 articles on this topic published since 2005. The methodological quality of these articles was not equivalent. We therefore analysed the underlying methodologies from both their biological and physical aspects. We conclude that recent studies provide no convincing proof of deleterious effects of RF on the integrity of the BBB, for specific absorption rates (SAR) up to 6 W/kg. AUTHORS' ABSTRACT: Lewczuk et al. 2014 (IEEE #5871): One of the side effects of each electrical device work is the electromagnetic field generated near its workplace. All organisms, including humans, are exposed daily to the influence of different types of this field, characterized by various physical parameters. Therefore, it is important to accurately determine the effects of an electromagnetic field on the physiological and pathological processes occurring in cells, tissues, and organs. Numerous epidemiological and experimental data suggest that the extremely low frequency magnetic field generated by electrical transmission lines and electrically powered devices and the high frequencies electromagnetic radiation emitted by electronic devices have a potentially negative impact on the circadian system. On the other hand, several studies have found no influence of these fields on chronobiological parameters. According to the current state of knowledge, some previously proposed hypotheses, including one concerning the key role of melatonin secretion disruption in pathogenesis of electromagnetic field induced diseases, need to be revised. This paper reviews the data on the effect of electric, magnetic, and electromagnetic fields on melatonin and cortisol rhythmstwo major markers of the circadian system as well as on sleep. It also provides the basic information about the nature, classification, parameters, and sources of these fields. AUTHOR'S ABSTRACT: Blank 2014 (IEEE #5873): Living cells react defensively and start to synthesize stress proteins when exposed to potentially harmful stimuli. Electromagnetic fields (EMF) are among the many different environmental stimuli that initiate stress protein synthesis. Although there is greater energy transfer and heating due to EMF at higher frequencies, there is no greater stress response. The cellular stress response is far more sensitive to EMF than to an increase in temperature. It should be obvious that an EMF safety standard should be based on the more sensitive, natural biological response. AUTHORS' ABSTRACT: Dürrenberger et al. 2014 (IEEE #5878): Abstract: Exposure to electromagnetic fields (EMF) is a cause of concern for many people. The topic will likely remain for the foreseeable future on the scientific and political agenda, since emissions continue to change in characteristics and levels due to new infrastructure deployments, smart environments and novel wireless devices. Until now, systematic and coordinated efforts to monitor EMF exposure are rare. Furthermore, virtually nothing is known about personal exposure levels. This lack of knowledge is detrimental for any evidence-based risk, exposure and health policy, management and communication. The main objective of the paper is to review the current state of EMF exposure monitoring activities in Europe, to comment on the scientific challenges and deficiencies, and to describe appropriate strategies and tools for EMF exposure assessment and monitoring to be used to support epidemiological health research and to help policy makers, administrators, industry and consumer representatives to base their decisions and communication activities on facts and data. AUTHOR'S ABSTRACT: Balmori 2014 (IEEE #5879): Despite the widespread use of wireless telephone networks around the world, authorities and researchers have paid little attention to the potential harmful effects of mobile phone radiation on wildlife. This paper briefly reviews the available scientific information on this topic and recommends further studies and specific lines of research to confirm or refute the experimental results to date. Controls must be introduced and technology rendered safe for the environment, particularly, threatened species. AUTHORS' ABSTRACT: Wu, Rappaport and Collins 2015 (IEEE #5941): With the increasing demand for higher data rates and more reliable service capabilities for wireless devices, wireless service providers are facing an unprecedented challenge to overcome a global bandwidth shortage. Early global activities on beyond fourth-generation (B4G) and fifth-generation (5G) wireless communication systems suggest that millimeter-wave (mmWave) frequencies are very promising for future wireless communication networks due to the massive amount of raw bandwidth and potential multigigabit-per-second (Gb/s) data rates [1]?[3]. Both industry and academia have begun the exploration of the untapped mmWave frequency spectrum for future broadband mobile communication networks. In April 2014, the Brooklyn 5G Summit [4], sponsored by Nokia and the New York University (NYU) WIRELESS research center, drew global attention to mmWave communications and channel modeling. In July 2014, the IEEE 802.11 next-generation 60-GHz study group was formed to increase the data rates to over 20 Gb/s in the unlicensed 60-GHz frequency band while maintaining backward compatibility with the emerging IEEE 802.11ad wireless local area network (WLAN) standard [5]. AUTHORS' ABSTRACT: Redlarski et al. 2015 (IEEE #5957): Current technologies have become a source of omnipresent electromagnetic pollution from generated electromagnetic fields and resulting electromagnetic radiation. In many cases this pollution is much stronger than any natural sources of electromagnetic fields or radiation. The harm caused by this pollution is still open to question since there is no clear and definitive evidence of its negative influence on humans. This is despite the fact that extremely low frequency electromagnetic fields were classified as potentially carcinogenic. For these reasons, in recent decades a significant growth can be observed in scientific research in order to understand the influence of electromagnetic radiation on living organisms. However, for this type of research the appropriate selection of relevant model organisms is of great importance. It should be noted here that the great majority of scientific research papers published in this field concerned various tests performed on mammals, practically neglecting lower organisms. In that context the objective of this paper is to systematise our knowledge in this area, in which the influence of electromagnetic radiation on lower organisms was investigated, including bacteria, E. coli and B. subtilis, nematode, Caenorhabditis elegans, land snail, Helix pomatia, common fruit fly, Drosophila melanogaster, and clawed frog, Xenopus laevis. AUTHORS' CONCLUSION: Hagli and Hans 2015 (IEEE #5958): Therefore, it can be concluded that though there have been no clear effects of mobile radiations on teeth and buccal mucosa but changes in the saliva and parotid gland have taken place. Hence, further research is required in this field to bring into the light the harmful effects of these radiations and also to make the people aware of possible oral health problems that can arise as a result of over - usage of mobile phones. AUTHOR'S ABSTRACT: Tambe 2015 (IEEE #5959): All over the world there has been rapid increase in the mobile phone users . mobile phones are popular as they permit people to make and maintain constant and continuous communication without affecting their liberty of lifestyle. As usage of mobile phone is increasing, demand for seamless service is also gets increase and it puts pressure on the service provider, for fulfilling this demand supporting infrastructure is required.To strengthen infrastructure, service provider requires to install more mobile phone tower. Enormous installation of the mobile phone tower throughout the world raised the health concern of high electromagnetic radiation in the area near to these towers. This brings forward the need to revise the radiation level, their impact on the public health and mitigation techniques for radiations. AUTHORS' ABSTRACT: Yakymenko et al. 2015 (IEEE #5970)): This review aims to cover experimental data on oxidative effects of low-intensity radiofrequency radiation (RFR) in living cells. Analysis of the currently available peer-reviewed scientific literature reveals molecular effects induced by low-intensity RFR in living cells; this includes significant activation of key pathways generating reactive oxygen species (ROS), activation of peroxidation, oxidative damage of DNA and changes in the activity of antioxidant enzymes. It indicates that among 100 currently available peer-reviewed studies dealing with oxidative effects of low-intensity RFR, in general, 93 confirmed that RFR induces oxidative effects in biological systems. A wide pathogenic potential of the induced ROS and their involvement in cell signaling pathways explains

Findings
Status Completed With Publication
Principal Investigator
Funding Agency ?????
Country UNITED STATES
References
  • D'Andrea, JA Health Phys., (1991) 61:29-40
  • Erwin, DN Aviation, Space, Envir. Med., (1988) :A21-A31
  • Jauchem, JR et al. J. Clin. Epidemiol., (1991) 44:895-906
  • Jauchem, JR Western J. Med., (1991) 154:228-229
  • Justesen, DR ELECTROMAGNETIC FIELDS AND NEUROBEHAVIORAL FUNCTION. Progress in Clinical and Biological Research, Volume 247, M.E. O'Connor and R.H. Lovely, editors. , (1988) 247:235-264
  • Foster, KR et al. Bioelectromagnetics, (1992) 13:567-579
  • Lai, H Bioelectromagnetics, (1992) 13:513-526
  • Lin, JC Bioelectromagnetics, (1992) 13:557-565
  • Leonard, A et al. Mutat. Res., (1983) 123:31-46
  • Adey, WR Neurochem. Res., (1988) 13:671-677
  • Sheikh, K Arch. Environ. Health, (1986) 41:56-63
  • Shihab-Eldin, A et al. Environment Internat., (1992) 18:117-131
  • Jauchem, JR J. Microwave Power & Electromag. Energy, (1993) 28:140-155
  • Tell, RA et al. J. Microwave Power, (1979) 14:405-424
  • Brown, HD et al. Biochem. Biophys., (1988) 9:295-342
  • Goldsmith, JR Int. J. Occup. Environ. Health, (1995) 1:47-57
  • Kanal, E et al. Radiology, (1990) 176:593-606
  • Sandler, DP Curr. Opin. Oncol., (1995) 7:12-18
  • Athey, TW Bioelectromagnetics, (1981) 2:407-409
  • Guy, AW NATO Agard Lecture Series 138, The Impact of Proposed Radio Frequency Radiation Standards on Military Operations, (1985) :9-1-9-20
  • Issel, I et al. Deutsche Gesundheitswesen, (1981) 36:17-19
  • Kolodub, FA et al. Gig Tr Prof Zabol, (1972) 16:13-17
  • Rotkiewicz, W Pomiary Automatyka Kontrola, (1982) 28:197-200
  • Taylor, LS Bioelectromagnetics, (1981) 2:259-267
  • Budinger, TF Ann. N.Y. Acad. Sci., (1992) 649:1-18
  • Goodman, EM et al. Int. Rev. Cytol., (1995) 158:279-338
  • Delpizzo, V Am. J. Ind. Med., (1994) 26:465-480
  • Goldsmith, JR Sci. Total Environ., (1996) 180:3-8
  • Stuerga, DA et al. J. Microwave Power & EM Energy, (1996) 31:87-100
  • Stuerga, DA et al. J. Microwave Power & EM Energy, (1996) 31:101-113
  • Rai, S Electro- and Magnetobiology, (1997) 16:59-67
  • Kent, CR et al. Int. J. Radiat. Biol., (1995) 67:655-660
  • Olive, PL et al. Exp. Cell Res., (1992) 198:259-267
  • Vignati, M et al. Environ. Health Perspectives, (1997) 105:1569-1573
  • Allen, SJ Bioelectromagnetics., (1999) Suppl 4:9-11
  • Guy, AW et al. Bioelectromagnetics, (1999) 20 suppl 4:21-39
  • Shaw, GM et al. Environ. Health Perspectives Supplements, (1993) 101:107-119
  • Elwood, JM Environ. Health Perspectives, (1999) 107:155-168
  • Goldsmith, JR Environ. Health Perspect., (1997) 105:1579-1587
  • Goldsmith, JR Am. J. Ind. Med., (1997) 32:689-692
  • Moulder, JE et al. Radiat. Res., (1999) 151:513-531
  • Grant, GA et al. News Physiol. Sci., (1998) 13:287-293
  • Huai, C et al. J. Bioelectricity, (1985) 4:103-120
  • Sivak, A Int. J. Toxicol., (1998) 17:3-9
  • Brusick, D et al. Environ. Mol. Mutagen, (1998) 32:1-16
  • Hyland, GJ Eng. Sci. Educ. J., (1998) 7:261-269
  • Jauchem, JR Environ. Carcinogen. Ectotoxicol., (1993) C11:163-183
  • Juutilainen, J et al. Mutat. Res., (1997) 387:165-171
  • Juutilainen, J et al. Scand. J. Work Environ. Health, (1998) 24:245-254
  • Masley, ML et al. Can. J. Pub. Health, (1999) 90:325-329
  • Stokinger, HE Arch. Environ. Health, (1972) 25:153-157
  • Chou, CK et al. Bioelectromagnetics, (1996) 17:195-208
  • Adey, WR Nature, (1988) 333:401-401
  • Myers, RD et al. Neurosci. Biobehav. Rev., (1981) 5:503-543
  • Hyland, GJ Lancet, (2000) 356:1833-1836
  • Erdreich, LS et al. Health Phys., (2001) 80:430-439
  • Valberg, PA Cancer Causes Control, (1997) 8:323-332
  • Litvak, E et al. Bioelectromagnetics, (2002) 23:68-82
  • Cook, CM et al. Bioelectromagnetics, (2002) 23:144-157
  • Pakhomov, AG et al. ADVANCES IN ELECTROMAGNETIC FIELDS IN LIVING SYSTEMS [BOOK], J.C. Lin (Ed.), (2000) :265-290
  • Adair, RW Radiation Research, (2003) 158:128-134
  • Lin, JC J. Environ. Pathol. Toxicol., (1979) 2:1413-1432
  • Lin, JC ELECTROMAGNETIC INTERACTION WITH BIOLOGICAL SYSTEMS [BOOK], (1989) :-
  • Lin, JC J. Radiat. Biol. and Ecol., Russian Acad. Sci., (2000) 40:425-428
  • Lin, JC IEEE Microwave, (2000) 1:32-38
  • Bligh, J et al. J. Appl. Physiol., (1973) 35:941-961
  • Eijkman, E et al. J Exp Biol, (1961) 62:403-408
  • Michaelson, SM Proc. IEEE, (1972) 60:389-421
  • Pound, RV Science, (1980) 208:494-495
  • Schaefer, DJ Ann. N.Y. Acad. Sci., (1988) 649:225-229
  • Annau, Z Neurotoxicol. Teratol., (1990) 12:547-551
  • Durney, CH et al. Report USAFSAM-TR-85-73, (1986) :-
  • Justesen, DR Bull N Y Acad Med, (1979) 55:1058-1078
  • Justesen, DR Proc. IEEE, (1979) 68:60-67
  • Michaelson, SM et al. Am. J. Physiol., (1961) 201:351-356
  • Majewska, K Pol Med J, (1968) 7:989-994
  • Airborne Instr. Lab, Proc. IRE, (1956) 44:2-5
  • Ingalls, CE NY State J. Med., (1967) 67:2992-2997
  • Sapareto, SA et al. Radiation Research, (1982) 89:124-133
  • Adair, ER et al. J. Microwave Power, (1984) 19:145-148
  • COMAR committee, Health Phys, (2002) 82:387-391
  • Odland, LT Ind. Med. Surg., (1973) 42:23-26
  • Lin, JC Radio Sci. Bull., (2002) 303:37-39
  • Bergqvist, U Mobile Communications Safety [Book], Kuster N, Balzano Q, Lin JC (eds.), (1997) :147-170
  • Hill, AB Proc. R. Soc. Med. , (1965) 58:295-300
  • FCC, FCC 96-36, (1996) :-
  • Moghissi, AA et al. Health Physics, (2003) 84:533-537
  • Ismailov, ESh et al. Radiats Biol Radioecol (Russian), (1998) 38:920-923
  • Sinitsyn, NI et al. Biomeditsinskaya Radioelektronika (Russian), (1998) 28:269-305
  • D'Andrea, JA et al. Bioelectromagnetics, (2003) 24:S107-S147
  • Meltz, ML Bioelectromagnetics., (2003) Supplement 6:S196-S213
  • Adair, ER et al. Bioelectromagnetics., (2003) Supplement 6:S17-S38
  • Elder, JA Bioelectromagnetics., (2003) 24:S101-S106
  • D'Andrea, JA et al. Bioelectromagnetics, (2003) 24:S39-S62
  • Heynick, LN et al. Bioelectromagnetics., (2003) Suppl 6:S74-S100
  • Elder , JA et al. Bioelectromagnetics., (2003) 24:S162-S173
  • Elwood, MJ Bioelectromagnetics, (2003) 24:S63-S73
  • Heynick, LN et al. Bioelectromagnetics., (2003) Suppl 6:S174-S186
  • Elder, JA Bioelectromagnetics., (2003) 24:S148-S161
  • Chou, CK et al. Bioelectromagnetics, (2003) 24:S5-S6
  • Osepchuk, JM et al. Bioelectromagnetics, (2003) 24:S7-S16
  • Black, DR et al. Bioelectromagnetics, (2003) 24:S187-S195
  • Cho, M et al. JAMA, (2000) 284:2203-2208
  • Lary, JM IEEE Eng. Med. Biol., (March 1987) :42-46
  • Lamme, A Brit J Healthcare Comput, (2004) 21(3):39-40
  • Colville, F et al. IEEE Spectrum, (April 2004) :6-6
  • Pauly, H et al. Strahlenschutz Forsch Prax., (1980) 20:1-30
  • Grigoriev, Y Bioelectromagnetics., (2004) 25:322-323
  • Elder, JA et al. EPA Report (EPA-600/8-83-026F). [Available from National Technical Information Service, 5285 Port Royal Road, Springfield, VA 22161 (Report PB-85-120-848)]., (1984) :1-269
  • Feychting , M et al. Ann Rev Public Health., (2005) 26:165-189
  • Janssens, JP Eur. J. Cancer Prevention, (2005) 14:81-82
  • ICNIRP, Health Physics, (2004) 87:187-196
  • Von Klitzing, L Indian J Experimental Biol, (2003) 41:511-513
  • Stewart, Sir , W Stewart Report, (2000) :1-160
  • Foster, KR et al. Radiation Research, (2004) 162:219-225
  • Roberts , R Environ Health Perspectives, (2002) Sept:-
  • Moulder, JE et al. Int J Radiat Biol, (2005) 81:189-203
  • Vijayalaxmi, et al. Bioelectromagnetics, (2005) 26:412-430
  • Seitz, H et al. Sci Total Environ., (2005) 349:45-55
  • Vander Vorst, A et al. IEEE Trans Microw Theory Tech, (1996) 44:1898-1909
  • Repacholi, MH J Radiol Prot , (1998) 18:161-162
  • Repacholi, MH Environ Health Perspect., (1997) 105 (Suppl 6):1565-1568
  • Repacholi, MH Bioelectromagnetics, (1998) 19:1-19
  • Repacholi, MH et al. Bioelectromagnetics, (1999) 20:133-160
  • Saunders, RD et al. Bioelectromagnetics, (2005) 26 (Suppl 7):S127-S132
  • Dasenbrock, C Tox Appl Pharmacol, (2005) :-
  • Juutilainen, J Bioelectromagnetics, (2005) 26 (Suppl 7):-
  • Martens, L Bioelectromagnetics, (2005) 26 (Suppl 7):S133-S137
  • Martuzzi, M Bioelectromagnetics, (2005) 26 (Suppl 7):-
  • Sienkiewicz, Z et al. Bioelectromagnetics, (2005) 26 (Suppl 7):S116-S126
  • Lightfoot, T Bioelectromagnetics, (2005) 26 (Suppl 7):-
  • Kheifets, L et al. Bioelectromagnetics, (2005) 26 (Suppl 7):-
  • Kheifets, L et al. Pediatrics., (2005) 116:303-306
  • Feychting, M Bioelectromagentics, (2005) 26 suppl 7:S69-S74
  • McKinney, PA Bioelectromagnetics, (2005) 26 suppl 7:S60-S68
  • Karger, CP Zeitschrift fur Medizinische Physik, (2005) 15:73-85
  • EC, RTD Info; http://www.jrc.cec.eu.int/emf-net/pubblications.cfm, (2005) 46:3-11
  • Irvine, N Report: HPA-RPD-010, (2005) :1-42
  • Westerman, R et al. Neurosci Lett, (2004) 36:13-16
  • Chau, TT et al. IEEE Microwave Magazine, (Dec 2005) :18-22
  • Derias, EM et al. Arch Androl, (2006) 52(1):9-14
  • Ahlbom, A et al. Radio Sci Bull, (2005) 314:30-33
  • Wood, AW Arch Diseases Childhood, (2006) 91:361-366
  • Rockwell, S et al. Radiation Research, (2006) 165:623-
  • Cook, CM et al. Bioelectromagnetics., (2006) 27:613-627
  • Khalil, S et al. J Laryngol Otol, (2006) 120:822-826
  • Leszczynski, D et al. Proteomics, (2006) 6:4674-4677
  • ICNIRP, Health Phys, (1998) 74:494-522
  • Blettner, M et al. Acta Oncologica, (2000) 39:927-930
  • Cahana, A Anesthesiology, (2005) 103:1311-
  • Verschaeve, L Toxicol Appl Pharmacol., (2005) 207:S336-S341
  • Valberg, PA et al. Environ Health Persp., (2007) 115:416-424
  • Neubauer, G et al. Bioelectromagnetics, (2007) 28:224-230
  • European Commission, EU Publication, (2006) :-
  • Schoemaker, Mj et al. Int J Cancer, (2006) 120:103-110
  • Leitgeb, N et al. Rad Prot Dos, (2006) :-
  • de Salles, AA et al. Electromagn Biol Med, (2006) 25:339-347
  • Barnes, F Electromagn Biol Med., (2006) 25:209-215
  • Blackman, CF Electromagn Biol Med, (2006) 25:217-225
  • Johansson, CF Electromagn Biol Med, (2006) 25:245-258
  • Blank, M Electromagn Biol Med, (2006) 25:203-208
  • Morgan, M Children with Leukemia Report, (2007) :-
  • Bolte, JFB et al. SZW report, RIVM-nr 610015001; http://www.rivm.nl/bibliotheek/rapporten/610015001.html, () :-
  • Deutsch, S et al. Health Physics, (1997) :-
  • Lin, JC IEEE Antennas and Propagation, (2007) 49:212-213
  • Adair, RK et al. Am Inst Physics, (1998) 8:576-587
  • Petrides, M Neuroreport, (2000) 11:F15-
  • Karipidis, KK J Risk Res, (2007) 10:307-322
  • Valentini, E et al. Bioelectromagnetics, (2007) 28:415-432
  • Connelly, JM et al. Curr Neurol Neurosci Rep, (2007) 7:208-214
  • Richebe, P et al. Anesthesiol., (2005) 102:1-3
  • Lin, JC et al. Health Phys, (2007) 92:621-628
  • Seaman, RL Health Physics, (2007) 92:629-634
  • Roy, CR et al. Health Physics, (2007) 92:635-641
  • Bailey, WH et al. Health Physics, (2007) 92:649-657
  • Siegel, JM Nature, (2005) 437:1264-1271
  • Genuis, SJ Public Health, (2007) :-
  • Lin, JC IEEE Ant Prop Mag, (2007) 49:154-155
  • Oxman, AD et al. Health Res Policy Syst, (2006) 4:12-28
  • Oxman, AD et al. Lancet, (2007) 369:1883-1889
  • ICNIRP, Health Physics, (2003) 84:383-387
  • Lin, JC IEEE Microwave Magazine, (August 2007) :40-41
  • Stilgoe, J Public Underst Sci, (2007) 16:45-61
  • Hardell, L et al. Brit Med J, (2006) 332:1035-
  • Jauchem, JR Int J Hyg Environ Health, (2008) 211:1-29
  • D'Andrea, JA et al. Prog Brain Res., (2007) 162:107-135
  • Rothman, KJ Int J Epidemiol, (2007) 36:708-710
  • Otto, M et al. Int J Hyg Environ Health, (2007) 210:635-644
  • European Commission, http://ec.europa.eu/health/ph_determinants/environment/EMF/ebs272a_en.pdf, (2007) :-
  • Borraz, O J Risk Res, (2007) 10:941-957
  • Vecchia, P Annali del'Instituto Superiore di sanita., (2007) 43:260-267
  • Hamalainen, H et al. http://www.branchhill.com/cabinetry/index.html, (2007) :-
  • Stewart, BW Mutation Research, (2008) 658:124-151
  • Wigle, DT et al. J Toxicol Environ Health B Crit Rev, (2007) 10:3-39
  • Chadwick, PE Conf Proc IEEE Eng Med Biol Soc, (2007) 1:6170-6173
  • Bethke, L et al. J Natl Cancer Inst, (2008) 100:270-276
  • Dimitropoulou, P et al. Br J Nutr., (2008) 99:667-673
  • Belyaev, IY et al. (Russian Journal Title), (2007) 47:727-732
  • Belyaev, I et al. J Radiation Biol Ecol, (2007) 6:727-732
  • NAS, et al. National Academy of Science Report, (2008) ISBN:0-309-11295-8:1-78
  • Zamanian, A et al. High Frequency Electronics, (2005) :16-26
  • ICNIRP, Health Phys, (2008) 94:376-392
  • Troisi, F et al. Ann Telecommun, (2008) 63:97-102
  • Roosli, M Environ Res, (2008) 107:277-287
  • Branzei, D et al. Nat Rev Mol Cell Biol, (2008) 9:297-308
  • Taubes, G Science, (1995) 269:164-169
  • Balbani, AP et al. Rev Bras Otorrinolaringol (Engl Ed), (2008) 74:125-131
  • Salford, LG et al. The Environmentalist, (2007) 27:493-500
  • Belpomme, D et al. Environ Res, (2007) 105:414-429
  • Huss, A et al. Environ Health Perspect, (2007) 115:1-4
  • Lacy-Hulbert, et al. FASEB J, (1998) 12:395-420
  • Stirling, A Ann N Y Acad Sci, (2008) 1128:95-110
  • Barron, CJ et al. J Am Med Assoc, (1958) 168:1194-1199
  • Heath, CW Ca Cancer J Clin, (1996) 46:29-44
  • Michaelson, SM Biological Effects and Dosimetry of Non-Ionizing Radiation (M Grandolfo, SM Michaelson, A Rindi eds), (1983) :337-357
  • Michaelson, SM Biological Effects of Electromagnetic Fields (C Polk, E Postow eds)., (1996) :435-533
  • Tetra, Tetra Terrestrial Trunked Radio Fact Sheet on Health and Safety, (2007) :-
  • Behari, J et al. Indian J Exp Biol, (2007) 45:77-85
  • Patrick, K et al. Am J Prev Med, (2008) 35:177-181
  • Hardell, L et al. Am J Indust Med, (2007) 50:227-233
  • Duerrenberger, G et al. Forschungsstiftung Mobilkommunikation Research Foundation Mobile Communication at http://www.mobile-research.ethz.ch/var/Comment_Interphone.pdf, (2008) :-
  • Vanderstraeten, J et al. Environ Health Perspect, (2008) 116:1131-1135
  • Corvi, R et al. Environ Health Persp, (2006) 114:420-429
  • Mayo, MS et al. Rad Res, (2006) 165:745-748
  • Boffetta, P et al. J Natl Cancer Inst, (2008) 100:988-995
  • Lin, JC IEEE Microwave Mag, (2008) 9:48-54
  • Kaprana, AE et al. Eur Arch Otorhinolaryngol, (2008) 265:1011-1019
  • Winstead, ER NCI Cancer Bulletin, (2008) 5:7-
  • Mead, MN Environ Health Perspect, (2008) 116:A422-
  • Carlo, G The Americal Trial Lawyer, (2008) 1:76-87
  • Pawl, R Surgical Neurology., (2008) 70:445-446
  • Hensingmuller, R The Atlantic Constitution, (1911) April 30:C6-
  • Abdus-Salam, A et al. Afr J Med Med Sci, (2008) 37:107-118
  • Emanuel, EJ The New Republic, (2008) Apr 9:-
  • Khurana, VG et al. Med Phys, (2008) 35:5203-5206
  • Loefstedt, RE et al. J Risk Res, (2008) 11:141-167
  • Verschaeve, L Mut Res/Rev Mut Res., (2009) 681:259-270
  • Petrova, EV et al. Neurosci Behav Physiol, (2005) 35:165-170
  • Makker, K et al. Reprod Biomed Online, (2009) 18:148-157
  • Consumer Reports, Consumer Reports, (2009) January:-
  • Ohgaki, H Methods of Molecular Biology, Cancer Epidemiology (M. Verma ed.), (2009) 472:323-342
  • Balmori, A Pathophysiol, (2009) 16:191-199
  • Kundi, M et al. Pathophysiol, (2009) 16:123-135
  • Blackman, C Pathophysiol, (2009) 16:205-216
  • Nudelman, J et al. Int J Occup Environ Health, (2009) 15:79-101
  • Kapdi, M et al. J Assoc Physicians India., (2008) 56:893-897
  • Ruediger, HW Pathophysiol, (2009) 16:89-102
  • Croft, RJ et al. Australas Phys Eng Sci Med, (2008) 31:255-267
  • Khurana, V et al. Surg Neurol, (2009) 72:436-437
  • Hansen, SF et al. Risk Anal, (2007) 27:1087-1089
  • Han, YY et al. Surg Neurol. , (2009) 72:216-222
  • Adlkofer, F et al. http://www.broschuerenreihe.net/international/how-susceptible-are-genes/index.html. St. Ingbert, 1st edition November 2008, ISBN 978-3-9812598-1-0 English Edition March 2009, (2009) Brochure 3:64 pages-
  • Warnke, U http://www.broschuerenreihe.net/international/bees-birds-and-mankind/index.html. A Brochure Series by the COMPETENCE INITIATIVE FOR THE PROTECTION OF HUMANITY, ENVIRONMENT, AND DEMOCRACY., (2009) Brochure 1:47pages-
  • Hoskote, SS et al. J Assoc Physicians India, (2008) 56:980-984
  • Johansson, O Pathophysiol, (2009) 16:157-177
  • Rosch, PJ et al. , (2004) :(822 pages) -
  • Leszczynski, D Proteomics, (2006) 6:4671-4673
  • Blank, M et al. Bioelectromagnetics, (2007) 28:242-243
  • Oschman, JL In: Bioelectromagnetic Medicine, Rosch PJ and Markov MS, editors, (2004) :77-92
  • Fisher, JL et al. Neurol Clin., (2007) 25:867-890
  • Legler, JM et al. J Natl Cancer Inst, (1999) 91:1382-1390
  • Gee, D Pathophysiol., (2009) 16:217-231
  • Loiseau, H et al. Rev Neurol (Paris)., (2009) 165:650-670
  • Schuz, J et al. Bioelectromagnetics., (2009) 30:511-524
  • Mir, L Environ Risques Sante. , (2009) 8:104-105
  • Jemal, A et al. CA Cancer J Clin., (2009) 59:225-249
  • Samkange-Zeeb, F et al. Emerging Health Threats, (2009) 12:1-8
  • Carr, GL et al. Nature, (2002) 420:153-156
  • Tonouchi, M Nature Photonics, (2007) 1:97-105
  • Noone, P Occup Med, (2009) 59:286-287
  • Kafka, WA Schweizerische Zeitschrift fur GanzheitsMedizin., (2009) 21:169-(1 page)
  • O'Keefe, S Clin J Oncol Nurs, (2008) 12:671-672
  • Chen, ZJ et al. Zhejiang Da Xue Xue Bao Yi Xue Ban., (2008) 37:97-102
  • Rothman, KJ Epidemiol., (2009) 20:653-655
  • Friedman, DI et al. Headache., (2009) 49:941-952
  • Grandolfo, M The Environmentalist, (2009) 29:109-117
  • Swanson, J J Radiol Prot., (2009) 29:291-292
  • COMAR, Health Phys., (2009) 97:348-356
  • McNamee, JP et al. Radiat Res, (2009) 172:265-287
  • Schuz, J Scand J Public Health, (2009) 37:664-667
  • Fanelli, D PLoS One, (May 2009) 4(5):e5738-11 pages
  • Chernenkov, IuV et al. Gig Sanit., (2009) May-June:84-86
  • Bennett, VJ J Trauma Nurs, (2009) 16:111-113
  • Blankenburg, M et al. Curr Genomics, (2009) 10:86-92
  • Nordstrom, CH Lakartidningen, (2009) 106:2065-2066
  • Szmigielski, S et al. Med Pr, (2009) 60:223-233
  • Sobiczewska, E et al. Med Pr., (2009) 60:235-241
  • Dossey, L Explor J Sci Heal, (2009) 5:257-262
  • Marino, AA et al. Electromagn Biol Med, (2009) 28:250-274
  • Tanne, JH Brit Med J., (2009) 339:5323- (1 page)
  • Bonde, JP Asian Journal of Andrology., (2010) 12:152-156
  • Repacholi, M New Scientist, (2009) December:-
  • van Rongen, E et al. J Toxicol Environ Health, (2009) 12:572-597
  • Vanderstraeten, J Rev Med Brux., (2009) 30:416-424
  • Mir, L Envir Risques Sante., (2009) 8:384-385
  • Gaestel, M Biol Rev Camb Philos Soc., (2010) 85:489-500
  • (no authors listed), Int J occup Med Environ Health, (2009) 22:3-5
  • D'Andrea, JA et al. Bioelectromagnetics, (2003) Suppl 6:S39-S62
  • Girard, JF et al. Rev Epidemiol Sante Publique., (2009) 57:387-394
  • (no authors listed), Harvard Mens Health Watch, (2009) 14:4-
  • Leszczynski, D et al. Health Research Policy, (2010) 8:2-
  • Stekhin, AA et al. Gig Sanit., (2009) 5:79-82
  • Choliz, M Addiction, (2010) 105:373-374
  • Hunt, RW et al. Int J Mol Sci, (2009) 10:4515-4558
  • Betts, KS Environ Health Perspect., (2009) 117:A486-
  • Jurewicz, J et al. Int J Occup Med Environ Health., (2009) 22:305-329
  • Dreyfuss, JH CA Cancer J Clin, (2010) 60:5-6
  • Bonde, JP Asian J Androl, (2010) 12:152-156
  • Walsh, B Time, (2010) 175:47-49
  • Aleem, MA J Assoc Physicians India., (2009) 57:604-605
  • Leitgeb, N Zhonghua Lao Dong Wei Sheng Zhi Ye Bing Za Zhi, (2009) 27:574-576
  • Ding, GR et al. Zhonghua Lao Dong Wei Sheng Zhi Ye Bing Za Zhi, (2009) 27:562-565
  • Blair, A et al. Environ Health Perspect., (2009) 117:1809-1813
  • Dubey , RB et al. J Comput Assist Tomogr., (2010) 34(6):799-807
  • Verschaeve, L et al. Mutat Res., (2010) 705(3):252-268
  • Bayazit , V et al. Bosn J Basic Med Sci., (2010) 10(3):245-250
  • Mehic, B Bosn J Basic Med Sci., (2010) 10(4):331-
  • Kundi, M Environmental Health Perspectives. , (2009) 117:316-324
  • Yakymenko, I et al. Exp Oncol., (2010) 32(2):54-60
  • Khurana VG, VG et al. Int J Occup Environ Health., (2010) 16(3):263-267
  • Olsen, J Bioelectromagnetics., (2011) 32:164-167
  • Röösli , M et al. Bull World Health Organ., (2010) 88:887-896
  • Giuliani, L et al. ICEMS monograph. Guiliani, L. and Soffritti, M (editors). European J. of Oncology, Library., (2010) 5:1-17
  • Elder, JA Asia-Pacific International Symposium on Electromagnetic Compatibility, April 12-16, 2010. , (2010) :13-15
  • Marino, C Asia-Pacific International Symposium on Electromagnetic Compatibility, April 12 - 16, 2010, Beijing, China., (2010) :16-20
  • Verschaeve, L Asia-Pacific International Symposium on Electromagnetic Compatibility, April 12 - 16, 2010, Beijing, China., (2010) :9-12
  • Swicord, ML et al. Asia-Pacific International Symposium on Electromagnetic Compatibility, April 12 - 16, 2010, Beijing, China., (2010) :21-24
  • Belyaev, IY HOW SUSCEPTIBLE ARE GENES TO MOBILE PHONE RADIATION? A Brochure Series by the Competence Initiative for the Protection of Humanity, Environment and Democracy., (2009) Brochure 3:24-28
  • Shiroff, VM HOW SUSCEPTIBLE ARE GENES TO MOBILE PHONE RADIATION? A Brochure Series by the Competence Initiative for the Protection of Humanity, Environment and Democracy., (2009) Brochure 3:29-43
  • Adlkofer, F HOW SUSCEPTIBLE ARE GENES TO MOBILE PHONE RADIATION? A Brochure Series by the Competence Initiative for the Protection of Humanity, Environment and Democracy., (2009) Brochure 3:44-46
  • Juutilainen, J et al. Bioelectromagnetics., (2011) 32:511-534
  • La Vignera, S et al. J Androl., (2012) 33:350-356
  • Foster, KR IEEE Spectrum. , (March 2011) :4 pages-
  • Juutilainen, J et al. Crit Rev Environ Sci Technology. , (2011) 41:1664-1695
  • Stam, R Brain Res Rev., (2010) 65:80-97
  • Picotti, P et al. Nature Methods., (2013) 10:24-27
  • Foster, KR et al. Health Physics., (2013) 105:561-575
  • Chou , CK Bioelectromagnetics., (2007) 28:3-15
  • Dahal, KP The Himalayan Physics., (2013) 4:51-59
  • Davis, D BMJ. (http://www.bmj.com/content/344/bmj.e1147?tab=responses), (March 17, 2012) (http://www.bmj.com/content/344/bmj.e1147?tab=responses):-
  • Sivani , S et al. Biology and Medicine., (2012) 4:202-216
  • Vijayalaxmi, et al. Dose-Response., (2014) 12:509-514
  • Repacholi, MH et al. Bioelectromagnetics., (2012) 33:187-206
  • Markov, MS J Electr Electron Syst., (2014) 3(1):-(5 pages)
  • Mohamed , MA et al. International Journal of Computer Science Issues., (2014) 11:167-171
  • Röösl, M Ther Umsch., (2013) 70:733-738
  • Elmas, O Toxicol Ind Health., (2013) Epub ahead of print, Sept 10, 2013:-(7 pages)
  • Kesari , KK et al. Indian J Exp Biol., (2013) 51:187-200
  • Davis , DL et al. Pathophysiology., (2013) 20:123-129
  • Szmigielski, S Electromagn Biol Med., (2013) 32:273-280
  • Leszczynski, D et al. Proteomics., (2012) 12:2493-2509
  • Moussa , MM J Egypt Public Health Assoc., (2011) 86:79-89
  • Behari , J Indian J Exp Biol., (2010) 48:959-981
  • Kheifets, L et al. Risk Anal., (2010) 30:1481-1494
  • Carpenter, DO Rev Environ Health., (2010) 25:75-80
  • Olsen, J J Epidemiol Community Health., (2010) 64:281-282
  • Schweikardt , C et al. Glob Public Health., (2012) 7:535-549
  • Corle, C et al. J Neurooncol., (2012) 106:1-13
  • Leitgeb, N Wien Med Wochenschr., (2011) 161:251-262
  • Elwood, JM Bioelectromagnetics., (2014) 35:379-383
  • Ostrom , QT et al. Neuro-Oncology. , (2014) 16:896-913
  • Hess, DJ Health, Risk & Society., (2014) 16 (3):-
  • Morgan , LL et al. Journal of Microscopy and Ultrastructure., (2014) 2:197-204
  • Vijayalaxmi, et al. Int. J. Environ. Res. Public Health., (2014) 11:9376-9408
  • Singh, AP et al. International Journal of Bioassays., (2014) 3:2030-2040
  • Gherardini, L et al. Int. J. Mol. Sci., (2014) 15:5366-5387
  • Yakymenko, I et al. Oxid Antioxid Med Sci., (2014) 3:1-3
  • Jalota, C International Journal of Computer Science and Management Research., (2014) 3:3858-3864
  • Shckorbatov, Y J Electr Electron Syst., (2014) 3:2 :htp://dx.doi.org/10.4172/2332-0796.1000123-
  • Yakymenko , I et al. Exp Oncol., (2011) 33:62-70
  • Foster, KR et al. IEEE Access., (2014) 2:1497-1509
  • Johnson, KJ et al. Cancer Epidemiol Biomarkers Prev., (2014) 23:2716-2736
  • Perrin , A et al. Comptes Rendus Physique., (2010) 11:602-612
  • Carpenter, DO Altern Ther Health Med., (2014) 20:40-42
  • Lewczuk, B et al. BioMed Research International., (2014) [Epub ahead of print]:July 22-
  • Blank, M Electromagnetic Biology and Medicine., (2015) 34:387-389
  • Dürrenberger, G et al. Int. J. Environ. Res. Public Health., (2014) 11:9460-9479
  • Balmori, A Science of The Total Environment., (2014) 496:314-316
  • Wu, T et al. IEEE Microwave Magazine., (2015) 16(2):65-84
  • Redlarski, G et al. BioMed Research International., (2015) 2015:Article ID 234098-(18 pages)
  • Dagli, R et al. Journal of International Oral Health., (2015) 7(1):i-ii
  • Tambe, KM International Journal on Recent and Innovation Trends in Computing and Communication., (2015) 3:622-625
  • Yakymenko, I et al. Electromagnetic Biology and Medicine. , (2016) 35:186-202
  • Redmayne, M Electromagnetic Biology and Medicine., (2016) 35:176-185
  • Vijayalaxmi, et al. Mutat Res Rev Mutat Res., (2015) 764:51-63
  • Grigoriev , Y Environmentalist., (2011) :-(8 pages)
  • Rahmani, A et al. , (2011/2012) :-
  • Consales, C et al. International Journal of Cell Biology., (2012) 2012:Article ID 683897-(16 pages)
  • Hanninen, O et al. Journal of Environmental Sciences., (2011) 23:1409-1414
  • Yang, M Journal of Environmental Science and Health, Part C: Environmental Carcinogenesis and Ecotoxicology Reviews. , (2011) 29:223-249
  • Marino, C et al. Progress in Biophysics and Molecular Biology., (2011) 107:374-385
  • Chou, CK Electromagn Biol Med., (2015) 34:175-179
  • Finnie, JW et al. Pathology, (2002) 34:344-347
  • Gubceac, N et al. 3rd International Conference on Nanotechnologies and Biomedical Engineering., (2015) 55:547-550
  • Vijayalaxmi, et al. Circ Cardiovasc Imaging, (2015) :-doi:10.1161/CIRCIMAGING.115.003697#3941
  • Markov, M et al. Electromagn Biol Med., (2015) 34:251-256
  • Medeiros, LN et al. Braz J Otorhinolaryngol., (2016) 82:97-104
  • Eghlidospour, M et al. Biomed Phys Eng., (2015) 5:95-104
  • Herbert, MR et al. Pathophysiology., (2013) 20:191-209
  • Tuengler, A et al. Electromagn Biol Med., (2013) 32:281-290
  • Kim, KH et al. Environ Monit Assess., (2016) 188(4):221-(11 pages)
  • Ayanda, OS et al. Asian Pacific J Cancer Prev,, (2012) 13:403-406
  • Abdullah, N et al. Scientometrics., (2015) 105:261-278
  • Manna, D et al. Electromagn Biol Med., (2016) 35:265-301
  • De Ninno, A et al. Electromagnetic Biology and Medicine., (2017) 36:115-122
  • Say, F et al. J Chem Neuroanat., (2016) 75:70-76
  • Belyaev, I et al. Rev Environ Health., (2016) 31:363-397
  • Kamazaki, K et al. Electrical Engineering in Japan., (2016) 197:3-11
  • Lin, JC IEEE Microwave Magazine., (2016) 17:21-23
  • Asghari, A et al. Electron Physician., (2016) 8:2655-2662
  • Morris, RD et al. IEEE Access., (2015) 3:2379-2387
  • Nageswari, KS Indian J Physiol Pharmacol., (2015) 59:125-135
  • Prasad, M et al. Neurol Sci., (2017) 38:797-810
  • Sangun, O et al. Pediatr Endocrinol Rev., (2015) 13:531-545
  • Carter, B et al. JAMA Pediatr., (2016) 170:1202-1208
  • Lin, JC IEEE Journal of Electromagnetics, RF and Microwaves in Medicine and Biology., (2017) PP:-
  • Hadar, AA et al. Brain stimulation., (2010) 5:652-653
  • Sienkiewicz, Z et al. Front Public Health., (2017) 5:328-
  • Lapin, GD IEEE ENGINEERING IN MEDICINE AND BIOLOGY., (1996) uly/August:57-60
  • Mortazavi, SM et al. J Radiat Cancer Res. , (2017) 8:165-167
  • Di Ciaula, A International Journal of Hygiene and Environmental Health., (2018) 221:367-375
  • Chou, CK PA,4HAI1HOHHAH EHOJIOrHH. PA,4HO3KOJIOrHH., (2003) 43:512-518
  • Altun, G et al. Environmental Research., (2018) 167:700-
  • Yahyazadeh, A et al. Environmental Research., (2018) 167:684-693
  • Bernabò, N et al. PLoS ONE. , (2017) 12(12):e0187890-
  • Mortazavi , SM et al. J Biomed Phys Eng., (2018) 8:151-152
  • Khan, R et al. IEEE Transactions on Electromagnetic Compatibility., (2019) 61: 279-287
  • Hale, L et al. Sleep Medicine Reviews., (2015) 21:50-58
  • Keykhosravi, A et al. Advances in Medicine, , (2018) Article ID 9242718 :-(5 pages)
  • Bodewein, L et al. Environ Res., (2019) 171:247-259
  • Asl, JF et al. Environmental Science and Pollution Research. , (2019) 26:18017-18031
  • Markov, M et al. Electromagn Biol Med., (2013) 32:200-208
  • Azab, AE et al. J Appl Biotechnol Bioeng., (2017) 4(2):00096-DOI: 10.15406/jabb.2017.04.00096
  • Bortkiewicz, A Ind Health., (2019) 57:403-405
  • Magiera, A et al. Rocz Panstw Zakl Hig., (2019) 70:225-234
  • Huang, L et al. Nanotechnology. , (2019) :-
  • Miligi, L Epidemiol Prev., (2019) 43:374-379
  • Markov, M Mobile Communications and Public Health. CRC Press, ISBN 9781138568426. , (2019) Chapter 1:1-24
  • Blackman, C Mobile Communications and Public Health. CRC Press, ISBN 9781138568426., (2019) Chapter 2:25-45
  • Belyaev, I Mobile Communications and Public Health. CRC Press, ISBN 9781138568426., (2019) Chapter 4:65-100
  • Portelli, LA Mobile Communications and Public Health. CRC Press, ISBN 9781138568426., (2019) Chapter 6:129-164
  • Grigoriev, YG Mobile Communications and Public Health. CRC Press, ISBN 9781138568426., (2019) Chapter 9:223-236
  • Guido, K et al. Bioelectromagnetics., (2019) 41:3-20
  • Aly, AA et al. International Journal of Information Technology Convergence and Services (IJITCS)., (2016) 6 (4):(16 pages)-
  • Bushberg, JT et al. Health Physics., (2020) 119:236-246
  • Elwood, M N Z Med J., (2020) 133:95-102
  • Stein, Y Advances in Ecological and Environmental Research., (2019) 4:390-397
  • Deruelle, F Electromagnetic Biology and Medicine., (2020) 39:166-175
  • Stein, Y et al. Environ Res. , (2020) 186:109445-
  • Moon, JH Clin Exp Pediatr., (2020) 63:422-428
  • Bailey, WH et al. IEEE Access., (2020) 8:140792-140797
  • Horsfield, J file:///C:/Users/Owner/Downloads/Peer_Reviewed_Published_Research_Studies%20(1).pdf, (2018) :-
  • Leszczynski, D Reviews on Environmental Health., (2020) 35:493-515
  • Seo, MS et al. Int. J. Environ. Res. Public Health., (2020) 17:7207-(10 pages)
  • Magiera, A et al. Rocz Panstw Zakl Hig., (2020) 71:251-259
  • Dasdag, O et al. Biotechnology & Biotechnological Equipment., (2020) 34:1987-1094
  • de Santana, FS et al. Gen Dent., (2020) 68:70-74
  • Rahban, R et al. Basic and Clinical Andrology., (2020) 30:16-doi.org/10.1186/s12610-020-00114-4
  • Wood, A et al. Journal of Exposure Science & Environmental Epidemiology., (2021) 31:606-613
  • Russell, C Santa Clara County Medical Association Bulletin, October 2018. , (2018) :-
  • Lissak, G Environmental Research., (2018) 164:149-157
  • Clegg, F et al. Building And Environment., (2020) 176:106324-
  • Variani, AS et al. Asian Pac J Cancer Prev., (2019) 20:3211-3219
  • Dilli, R IEEE Access., (2021) 9:13009-13021
  • Yadav, H et al. Reprod Toxicol., (2021) 100:90-100
  • Negi, P et al. Electromagn Biol Med., (2021) 40:92-102
  • Frank, JW Journal of Epidemiology and Community Health. , (2021) 75:562-566
  • Balawender, K et al. Cent European J Urol., (2020) 73:563-568
  • Nikitkina, AI et al. J Biomed Opt., (2021) 26:043005-
  • Hatch, EE et al. Hum Reprod., (2021) 36:1395-1404
  • Singh, R et al. Indian J Med Res., (2018) 148:S92-S99
  • Levitt, BB et al. Rev Environ Health., (2021) doi: 10.1515/reveh-2021-0026:-
  • Levitt, BB et al. Rev Environ Health. , (2021) doi: 10.1515/reveh-2021-0050:-
  • Carpenter, DO Rev Environ Health., (2015) 30:217-222
  • Steneck, NH et al. Science., (1980) 208:1230-1237
  • Wilte, I Umwelt-Medizin-Gesellschaft., (2018) 31:1-32
  • Leszczynski, D Rev Environ Health., (2021) doi: 10.1515/reveh-2021-0038:-
  • Dongus, S et al. Crit Rev Environ Sci Technol., (2021) doi.org/10.1080/10643389.2021.1951549:-
  • Piszczek, P et al. Environmental Research., (2021) 200:111505-doi.org/10.1016/j.envres.2021.111505
  • Monadizadeh, S et al. Journal of Green Building., (2021) 16:55-81
  • Selmaoui, B et al. Bioelectromagnetics., (2021) 42:5-17
  • Kostoff, RN et al. Microwave Effects on DNA and Proteins, CD Geddes, editor, Springer International Publishing AG., (2017) DOI 10.1007/978-3-319-50289-2_4:-
  • Frumkin, H et al. CA: a cancer journal for clinicians. , (2001) 51:137-141
  • Israel, M Electromagnetic biology and medicine., (2015) 34:183-189
  • Jauchem, J The journal of microwave power and electromagnetic energy. , (1991) 26:189-105
  • Jauchem, JR Journal of microwave power and electromagnetic energy., (2003) 38:103-123
  • Jauchem, JR Journal of microwave power and electromagnetic energy., (1995) 30:165-177
  • Jong, KE et al. Australian and New Zealand journal of public health. , (1997) 21:555-557
  • K Sri, N Indian journal of physiology and pharmacology., (2015) 59:125-135
  • Mileva, K et al. Acta physiologica et pharmacologica Bulgarica., (2003) 27:89-100
  • Ostrom, QT et al. Current neurology and neuroscience reports., (2011) 11:329-335
  • Stuchly, MA Critical reviews in biomedical engineering., (1998) 26:117-151
  • Tamrin, SH et al. Reviews of physiology, biochemistry and pharmacology., (2016) 171:63-97
  • Verschaeve, L et al. Mutation research., (1998) 410:141-165
  • Zhang, J et al. Bioelectromagnetics., (2017) 38:329-338
  • Hu, C et al. Frontiers in Public Health., (2021) 9:691880-
  • Jammoul, M et al. Current Neuropharmacology. , (2022) 20:648-660
  • Hack, SJ et al. International Journal of Molecular Sciences., (2021) 22:11159-
  • Alkayyali, T et al. Cureus., (2021) 12:e17329-
  • Levitt, BB et al. Reviews on Environmental Health. , (2021) :-
  • Yao, C et al. Electromagn Biol Med., (2022) 41:108-117
  • Zhong, Z et al. International Journal of Molecular Sciences., (2021) 22:12239-
  • Arbabi Kalati, F et al. Journal of Complementary and Integrative Medicine. , (2021) :-
  • Ghazanfarpour, M et al. Open Medicine., (2021) 16:1628-1641
  • Ryabukha, OI et al. Medicni perspektivi (Medical perspectives). , (2021) 26:169-178
  • Valberg, P Hamilton & Hardy's Industrial Toxicology, Sixth Edition, Edited by Raymond D. Harbison, Marie M. Bourgeois and Giffe T. Johnson., (2015) :1069-1085
  • Repacholi, M et al. Workshop Proceedings (16 reports) , (2005) :1-168
  • Neubauer, G et al. WHO International Workshop on Base Stations and Wireless Networks: Exposures and Health Consequences (2005: Geneva, Switzerland), (2005) :69-82
  • Nordhagen, EK et al. Reviews on Environmental Health., (2022) published online June 27, 2022:-
  • Gross, J et al. The Neuroscientist. , (2021) :-
  • Ashrafinia, F et al. Rev Bras Ginecol Obstet. , (2021) 43:870-877
  • Grimes, DR JAMA Oncol., (2022) 8:456-461
  • Guido, K et al. IEEE Antennas and Propagation Magazine. , (2021) 63:29-39
  • Cao, X et al. J Med Internet Res., (2022) 24:e21313-
  • Farashi, S et al. Int Arch Occup Environ Health., (2022) :-
  • Sterling, L et al. Rev Int Androl., (2022) 20:196-206
  • Mohammed, S Health Phys., (2022) 122:440-444
  • Jangid, P et al. Int J Environ Health Res., (2022) 8:1-16
  • Pinto, R et al. Syst Rev., (2022) 11:29-
  • El Jarrah, I et al. Heliyon., (2022) 8:e08915-
  • Lai H, H et al. Electromagn Biol Med., (2022) 41:230-255
  • Bodewein, L et al. PLoS One., (2022) 17:e0268641-
  • Sonawane, AD et al. 2020 International Conference on Electronics and Sustainable Communication Systems (ICESC)., (2020) :703-707
  • Ishihara, T et al. Int J Environ Res Public Health., (2020) 17:9179-
  • He, CQ et al. Chin. J. Radiol. Health. , (2017) 26:381-384
  • Prlic, I et al. Archives of Industrial Hygiene and Toxicology., (2022) 73:94-106
  • Yadav, H et al. Environ Pollut., (2022) 3309:119793-
  • Udo, E et al. Journal of Science and Technological Research., (2022) 4:66-77
  • Balmori, A Environ Res., (2022) 214(Pt 2):113851-
  • Mumtaz, S et al. Int J Mol Sci., (2022) 23:9288-
  • Seomun, G et al. PLoS One. , (2022) 17:e0273005-
  • Zhang, X et al. Exp. Med., (2016) 12:1969-1972
  • Gye, MC et al. Clin. Exp. Reprod. Med., (2012) 39:1-9
  • Georgiou, CD et al. Radiation. , (2022) 2:285-302
  • Gupta, S et al. Int J Environ Health Res., (2022) 32:916-940
  • McCormick, DL Biological Effects of Electromagnetic Fields, CRC Press., (2019) :-
  • Feychting, M et al. Fourth Edition Handbook of the Biological Effects of Electromagnetic Fields, Chapter 14, CRC Press., (2019) 1:-
  • Leszczynski, D Rev Environ Health., (2022) :-
  • Pophof, B et al. Health Phys., (2023) 124:31-38
  • Ali, MT et al. Radioelectron. Commun. Syst., (2021) 64:155-164
  • Chou, CK Int. J. Environ. Res. Public Health., (2022) 19:16942-
  • Xiao, Y et al. Virol. J., (2022) 19:161-
  • Pophof, B et al. Health Physics., (2023) 124:39-52
  • Tahvanainen, K et al. Bioelectromagnetics, (2004) 25:73-83
  • Dunscombe, PB et al. Radiat Res., (1983) 96:235-250
  • Roth, BJ Springer., (2022) Book:122 pages-
  • Olsen, RJ Am J Phys., (2022) 90:718-719
  • Gee, D EEA Report (European Environment Agency, Luxembourg)., (2013) 2013(1):675-701
  • Carlo, GL Environmental Claims Journal., (2000) 12:55-77
  • Aly, AA et al. 2008 International Conference on Innovations in Information Technology, IIT 2008; Al Ain; United Arab Emirates;, (2008) Article number 4781774:140-144
  • Comments

    AUTHORS' ABSTRACT: De Ninno and Pregnolato 2016 (IEEE #6427): The appearance of endogenous electromagnetic fields in biological systems is a widely debated issue in modern science. The electrophysiological fields have very tiny intensities and it can be inferred that they are rapidly decreasing with the distance from the generating structure, vanishing at very short distances. This makes very hard their detection using standard experimental methods. However, the existence of fast-moving charged particles in the macromolecules inside both intracellular and extracellular fluids may envisage the generation of localized electric currents as well as the presence of closed loops, which implies the existence of magnetic fields. Moreover, the whole set of oscillatory frequencies of various substances, enzymes, cell membranes, nucleic acids, bioelectrical phenomena generated by the electrical rhythm of coherent groups of cells, cell-to-cell communication among population of host bacteria, forms the increasingly complex hierarchies of electromagnetic signals of different frequencies which cover the living being and represent a fundamental information network controlling the cell metabolism. From this approach emerges the concept of electromagnetic homeostasis: that is, the capability of the human body to maintain the balance of highly complex electromagnetic interactions within, in spite of the external electromagnetic noisy environment. This concept may have an important impact on the actual definitions of heal and disease. AUTHORS' ABSTRACT: Say et al. 2016 (IEEE #6436): Electromagnetic field (EMF) is a pervasive environmental presence in modern society. In recent years, mobile phone usage has increased rapidly throughout the world. As mobile phones are generally held close to the head while talking, studies have mostly focused on the central and peripheral nervous system. There is a need for further research to ascertain the real effect of EMF exposure on the nervous system. Several studies have clearly demonstrated that EMF emitted by cell phones could affect the systems of the body as well as functions. However, the adverse effects of EMF emitted by mobile phones on the peripheral nerves are still controversial. Therefore, this review summarizes current knowledge on the possible positive or negative effects of electromagnetic field on peripheral nerves. AUTHORS' ABSTRACT: Belyaev et al. 2016 (IEEE #6446): Chronic diseases and illnesses associated with non-specific symptoms are on the rise. In addition to chronic stress in social and work environments, physical and chemical exposures at home, at work, and during leisure activities are causal or contributing environmental stressors that deserve attention by the general practitioner as well as by all other members of the health care community. It seems necessary now to take "new exposures" like electromagnetic fields (EMF) into account. Physicians are increasingly confronted with health problems from unidentified causes. Studies, empirical observations, and patient reports clearly indicate interactions between EMF exposure and health problems. Individual susceptibility and environmental factors are frequently neglected. New wireless technologies and applications have been introduced without any certainty about their health effects, raising new challenges for medicine and society. For instance, the issue of so-called non-thermal effects and potential long-term effects of low-dose exposure were scarcely investigated prior to the introduction of these technologies. Common electromagnetic field or EMF sources: Radio-frequency radiation (RF) (3 MHz to 300 GHz) is emitted from radio and TV broadcast antennas, Wi-Fi access points, routers, and clients (e.g. smartphones, tablets), cordless and mobile phones including their base stations, and Bluetooth devices. Extremely low frequency electric (ELF EF) and magnetic fields (ELF MF) (3 Hz to 3 kHz) are emitted from electrical wiring, lamps, and appliances. Very low frequency electric (VLF EF) and magnetic fields (VLF MF) (3 kHz to 3 MHz) are emitted, due to harmonic voltage and current distortions, from electrical wiring, lamps (e.g. compact fluorescent lamps), and electronic devices. On the one hand, there is strong evidence that long-term exposure to certain EMFs is a risk factor for diseases such as certain cancers, Alzheimer's disease, and male infertility. On the other hand, the emerging electromagnetic hypersensitivity (EHS) is more and more recognized by health authorities, disability administrators and case workers, politicians, as well as courts of law. We recommend treating EHS clinically as part of the group of chronic multisystem illnesses (CMI), but still recognizing that the underlying cause remains the environment. In the beginning, EHS symptoms occur only occasionally, but over time they may increase in frequency and severity. Common EHS symptoms include headaches, concentration difficulties, sleep problems, depression, a lack of energy, fatigue, and flu-like symptoms. A comprehensive medical history, which should include all symptoms and their occurrences in spatial and temporal terms and in the context of EMF exposures, is the key to making the diagnosis. The EMF exposure is usually assessed by EMF measurements at home and at work. Certain types of EMF exposure can be assessed by asking about common EMF sources. It is very important to take the individual susceptibility into account. The primary method of treatment should mainly focus on the prevention or reduction of EMF exposure, that is, reducing or eliminating all sources of high EMF exposure at home and at the workplace. The reduction of EMF exposure should also be extended to public spaces such as schools, hospitals, public transport, and libraries to enable persons with EHS an unhindered use (accessibility measure). If a detrimental EMF exposure is reduced sufficiently, the body has a chance to recover and EHS symptoms will be reduced or even disappear. Many examples have shown that such measures can prove effective. To increase the effectiveness of the treatment, the broad range of other environmental factors that contribute to the total body burden should also be addressed. Anything that supports homeostasis will increase a person's resilience against disease and thus against the adverse effects of EMF exposure. There is increasing evidence that EMF exposure has a major impact on the oxidative and nitrosative regulation capacity in affected individuals. This concept also may explain why the level of susceptibility to EMF can change and why the range of symptoms reported in the context of EMF exposures is so large. Based on our current understanding, a treatment approach that minimizes the adverse effects of peroxynitrite - as has been increasingly used in the treatment of multisystem illnesses - works best. This EMF Guideline gives an overview of the current knowledge regarding EMF-related health risks and provides recommendations for the diagnosis, treatment and accessibility measures of EHS to improve and restore individual health outcomes as well as for the development of strategies for prevention. AUTHORS' ABSTRACT: Kamazaki, Taki, Ohkubo 2016 (IEEE #6461): The intermediate frequency electromagnetic fields in the context of protecting human exposure have received public concerns in recent years. This is mainly due to the growing emergence of technology or products using those fields, such as induction heating (IH) cookers and wireless power transfer (WPT) systems. This paper reviews the trend of studies and guidelines for human protection related to safety assessment of human exposure to such fields. AUTHORS' ABSTRACT: Asghari et al. 2016 (IEEE #6512): Environmental factors, such as electromagnetic waves, induce biological and genetic effects. One of the most important physiological systems involved with electromagnetic fields (EMFs) is the genital system. This paper reviews the effects of EMFs on human reproductive organs, female animals, fetus development and the importance of two types of natural antioxidants, i.e., vitamin E and fennel. The studies presented in this review referred to the effects of different exposures to EMFs on the reproductive system, and we tried to show the role of natural antioxidants in reducing the effects of the exposures. Many studies have been done on the effects of ionizing and non-ionizing electromagnetic waves on the cell line of spermatogenesis, sexual hormones, and the structure of the testes. Also, about the hormonal cycle, folliculogenesis and female infertility related to EMF have been given more consideration. In particular, attention is directed to pregnant women due to the importance of their fetuses. However, in addition to the studies conducted on animals, further epidemiological research should be conducted. AUTHORS' ABSTRACT: Morris, Morgan and Davis 2015 (IEEE #6533): The greater vulnerability of children to the effects of environmental hazards has raised concerns about their exposure to and the resultant absorption of mobile phone radiation. Foster and Chou (2014) reviewed published studies that used computer models of radio-frequency electromagnetic elds to estimate and compare the tissue dose rate in the heads of children and adults using mobile phones. Their review confuses exposure with absorption, and the study results conclude erroneously that children are not more exposed than adults. We show that their review was not executed systematically. There are discrepancies between text summaries and the graphed ratios of child: adult peak special specic absorption rate, in line with the author's hypothesis that children have the same or lower tissue dose than adults. Even the underlying precept of their review is awed, as the results of deterministic models are treated as random variables. In fact, model results are entirely determined by the underlying assumptions and the structure of the model. Models are included in their unsystematic review that do not consider differences in dielectric constants among different tissues, or across ages, while other models that consider such differences are not included. In this paper, we discuss the differences between exposure and tissue absorption and re-examine the results presented by Foster and Chou. Based upon our review, we suggest an alternative interpretation of the published literature. In an Appendix, we discuss modeling of tissue dose in the context of governmental safety certication processes. AUTHOR'S ABSTRACT: Sri N 2015 (IEEE #6682): It is documented that electromagnetic emissions from mobile phones can interfere with brain's signal processing activity due to their oscillatory similitude to the inherent rhythms of the brain, akin to "electromagnetic interference" observed while using mobile phones in aeroplanes. At high power density levels, thermal effects occur, some of which can be attributed to heat induced stress mechanisms. The less understood non-thermal effects occur at low radio frequency/microwave power density levels and are not accompanied by any body temperature rise. The safety standards set by international agencies are based on thermal effects. For the mobile phones, ICNIRP 1998 guidelines restrict spatial peak of microwave exposure to 2 W/Kg SAR values averaged over 10 g of tissue for 6 minutes. Some of the reported electromagnetic radiation (EMR) induced adverse effects are brain tumours, male infertility and immune dysfunction with increased susceptibility to infections. Pathophysiological mechanisms of interaction of EMR at plasma membrane are calcium efflux from cell membranes, increased expression of stress proteins, influence on channels/gap junctions in cell membrane, overproduction of reactive oxygen species, ornithine decarboxylase activation, reduction in melatonin levels, decrease in protein kinase C activity, damage to DNA and change in gene expression in brain cells and altered blood-brain barrier. There are equal number of conflicting reports in literature regarding EMR exposure and brain tumours. A comprehensive review concludes "overall the studies published to date do not demonstrate an increased risk within approximately 10 years of use for any tumour of the brain or any other head tumour." Another review summarises that there is "enough data to convince that long-term exposure to low intensity EMR below the ICNIRP guidelines can promote cancer development". However the time limit for exposure has been suggested as more than 10 years. For conducting epidemiological studies, some of the difficulties experienced are obtaining unexposed controls or cohorts, follow up of the cohorts, actual dose measurement for exposure assessment in case-control studies, inaccuracy, recall bias and selective non response in recall of phone use by mobile phone users, long induction times, long latencies (the effects we observe now are of analogue phones that are no longer used ) and the rarity of observed malignancies, variable ways of using the phone by the user i.e. left or right ear, head sets/speaker/blue tooth etc. Large-scale epidemiological studies should employ personal MW dosimeters for strict dose measurement and for interpreting actual tissue exposure. AUTHOR'S ABSTRACT: Prasad et al. 2017 (IEEE #6683): Mobile phones emit electromagnetic radiations that are classified as possibly carcinogenic to humans. Evidence for increased risk for brain tumours accumulated in parallel by epidemiologic investigations remains controversial. This paper aims to investigate whether methodological quality of studies and source of funding can explain the variation in results. PubMed and Cochrane CENTRAL searches were conducted from 1966 to December 2016, which was supplemented with relevant articles identified in the references. Twenty-two case control studies were included for systematic review. Meta-analysis of 14 case-control studies showed practically no increase in risk of brain tumour [OR 1.03 (95% CI 0.92-1.14)]. However, for mobile phone use of 10 years or longer (or >1640 h), the overall result of the meta-analysis showed a significant 1.33 times increase in risk. The summary estimate of government funded as well as phone industry funded studies showed 1.07 times increase in odds which was not significant, while mixed funded studies did not show any increase in risk of brain tumour. Metaregression analysis indicated that the association was significantly associated with methodological study quality (p < 0.019, 95% CI 0.009-0.09). Relationship between source of funding and log OR for each study was not statistically significant (p < 0.32, 95% CI 0.036-0.010). We found evidence linking mobile phone use and risk of brain tumours especially in long-term users (e10 years). Studies with higher quality showed a trend towards high risk of brain tumour, while lower quality showed a trend towards lower risk/protection. AUTHORS' ABSTRACT: Sangun et al. 2015 (IEEE #6774): Children are exposed to various kind of non-ionizan radiation in their daily life involuntarily. The potential sensitivity of developing organism to the effects of radiofrequency (RF) signals, the higher estimated specific absorption rate (SAR) values of children and greater lifetime cumulative risk raised the scientific interest for children's vulnerability to electromagnetic fields (EMFs). In modern societies, children are being exposed to EMFs in very early ages. There are many researches in scientific literature investigating the alterations of biological parameters in living organisms after EMFs. Although the international guidelines did not report definite, convincing data about the causality, there are unignorable amount of studies indicating the increased risk of cancer, hematologic effects and cognitive impairment. Although they are less in amount; growing number of studies reveal the impacts on metabolism and endocrine function. Reproductive system and growth look like the most challenging fields. However there are also some concerns on detrimental effects of EMFs on thyroid functions, adrenal hormones, glucose homeostasis and melatonin levels. It is not easy to conduct a study investigating the effects of EMFs on a fetus or child due to ethical issues. Hence, the studies are usually performed on virtual models or animals. Although the results are conflicting and cannot be totally matched with humans; there is growing evidence to distress us about the threats of EMF on children. AUTHORS' ABSTRACT: Carter et al. 2016 (IEEE #6775): Importance: Sleep is vital to children's biopsychosocial development. Inadequate sleep quantity and quality is a public health concern with an array of detrimental health outcomes. Portable mobile and media devices have become a ubiquitous part of children's lives and may affect their sleep duration and quality. Objective: To conduct a systematic review and meta-analysis to examine whether there is an association between portable screen-based media device (eg, cell phones and tablet devices) access or use in the sleep environment and sleep outcomes. Data Sources: A search strategy consisting of gray literature and 24 Medical Subject Headings was developed in Ovid MEDLINE and adapted for other databases between January 1, 2011, and June 15, 2015. Searches of the published literature were conducted across 12 databases. No language restriction was applied. Study Selection: The analysis included randomized clinical trials, cohort studies, and cross-sectional study designs. Inclusion criteria were studies of school-age children between 6 and 19 years. Exclusion criteria were studies of stationary exposures, such as televisions or desktop or personal computers, or studies investigating electromagnetic radiation. Data Extraction and Synthesis: Of 467 studies identified, 20 cross-sectional studies were assessed for methodological quality. Two reviewers independently extracted data. Main Outcomes and Measures: The primary outcomes were inadequate sleep quantity, poor sleep quality, and excessive daytime sleepiness, studied according to an a priori protocol. Results: Twenty studies were included, and their quality was assessed. The studies involved 125/198 children (mean [SD] age, 14.5 [2.2] years; 50.1% male). There was a strong and consistent association between bedtime media device use and inadequate sleep quantity (odds ratio [OR], 2.17; 95% CI, 1.42-3.32) (P < .001, I2 = 90%), poor sleep quality (OR, 1.46; 95% CI, 1.14-1.88) (P = .003, I2 = 76%), and excessive daytime sleepiness (OR, 2.72; 95% CI, 1.32-5.61) (P = .007, I2 = 50%). In addition, children who had access to (but did not use) media devices at night were more likely to have inadequate sleep quantity (OR, 1.79; 95% CI, 1.39-2.31) (P < .001, I2 = 64%), poor sleep quality (OR, 1.53; 95% CI, 1.11-2.10) (P = .009, I2 = 74%), and excessive daytime sleepiness (OR, 2.27; 95% CI, 1.54-3.35) (P < .001, I2 = 24%). Conclusions and Relevance: To date, this study is the first systematic review and meta-analysis of the association of access to and the use of media devices with sleep outcomes. Bedtime access to and use of a media device were significantly associated with the following: inadequate sleep quantity, poor sleep quality, and excessive daytime sleepiness. An integrated approach among teachers, health care professionals, and parents is required to minimize device access at bedtime, and future research is needed to evaluate the influence of the devices on sleep hygiene and outcomes. AUTHOR'S ABSTRACT: Lin 2017 (IEEE #6805): Health effects of radio frequency (RF) and microwave radiation have been a subject of scientific inquiry and public interest of late because of widespread global usage of mobile communication devices by billions of people everywhere. A minute increase in health risks such as cancer from RF radiation might lead to significant consequences for health of the general public. A recent U.S. government announcement of discovery of rare cancers in rats exposed to RF radiation is an important occurrence. Note that any new or single report should not be viewed in isolation. The U.S. government project was organized to confront the weaknesses of prior laboratory rodent studies on the potential of RF exposure to impact human health such as cancer in controlled environments. Indeed, several published reports on animal cancer investigations involving prolonged exposures to RF radiation are contentious and perplexing. The discrepancies have presented ambiguity in assessing public health threats from RF exposure. It is the objective of this review to provide a critical and analytical synopsis and assessment on current progress in cancers in rats exposed, lifelong, to RF and microwave radiation. Its focus is on laboratory studies involving cancer production and promotion, and survival of experimental rats. Of special interest is carcinogenesis in the headcancer development in the head. The question of whether RF exposure from wireless and mobile devices and systems poses a health risk would likely remain equivocal and controversial for some time to come. AUTHORS' ABSTRACT: Sienkiewicz et al. 2018 (IEEE #6910): There is an extensive literature investigating possible effects of exposure to radiofrequency (RF) electromagnetic fields associated with mobile phone technologies. This has not identified any public health risks with any degree of certainty. Some epidemiological studies have observed associations between heavy users of mobile phones and some types of cancer, but animal studies do not support this association, although a few studies have reported increased tumor yields. However, there is a crucial difference between epidemiology studies and laboratory work in terms of signals investigated: most people are exposed to a complex mixture of frequencies and signals at varying intensities, whereas the majority of animal studies have been performed using a single frequency or intensity. Whether this might explain the differences in outcome will be discussed, and whether there is a need for additional laboratory investigations that reproduce more accurately realistic exposure conditions will be considered. AUTHOR'S ABSTRACT: Di Ciaula 2018 (IEEE #6943): The spread of radiofrequency electromagnetic fields (RF-EMF) is rising and health effects are still under investigation. RF-EMF promote oxidative stress, a condition involved in cancer onset, in several acute and chronic diseases and in vascular homeostasis. Although some evidences are still controversial, the WHO IARC classified RF-EMF as possible carcinogenic to humans, and more recent studies suggested reproductive, metabolic and neurologic effects of RF-EMF, which are also able to alter bacterial antibiotic resistance. In this evolving scenario, although the biological effects of 5G communication systems are very scarcely investigated, an international action plan for the development of 5G networks has started, with a forthcoming increment in devices and density of small cells, and with the future use of millimeter waves (MMW). Preliminary observations showed that MMW increase skin temperature, alter gene expression, promote cellular proliferation and synthesis of proteins linked with oxidative stress, inflammatory and metabolic processes, could generate ocular damages, affect neuro-muscular dynamics. Further studies are needed to better and independently explore the health effects of RF-EMF in general and of MMW in particular. However, available findings seem sufficient to demonstrate the existence of biomedical effects, to invoke the precautionary principle, to define exposed subjects as potentially vulnerable and to revise existing limits. An adequate knowledge of pathophysiological mechanisms linking RF-EMF exposure to health risk should also be useful in the current clinical practice, in particular in consideration of evidences pointing to extrinsic factors as heavy contributors to cancer risk and to the progressive epidemiological growth of noncommunicable diseases. AUTHORS' ABSTRACT: Altun et al. 2018 (IEEE #6982): With current advances in technology, a number of epidemiological and experimental studies have reported a broad range of adverse effects of electromagnetic fields (EMF) on human health. Multiple cellular mechanisms have been proposed as direct causes or contributors to these biological effects. EMF-induced alterations in cellular levels can activate voltage-gated calcium channels and lead to the formation of free radicals, protein misfolding and DNA damage. Because rapidly dividing germ cells go through meiosis and mitosis, they are more sensitive to EMF in contrast to other slower-growing cell types. In this review, possible mechanistic pathways of the effects of EMF exposure on fertilization, oogenesis and spermatogenesis are discussed. In addition, the present review also evaluates metabolomic effects of GSM-modulated EMFs on the male and female reproductive systems in recent human and animal studies. In this context, experimental and epidemiological studies which examine the impact of mobile phone radiation on the processes of oogenesis and spermatogenesis are examined in line with current approaches. AUTHORS' ABSTRACT: Yahyazadeh et al. 2018 (IEEE #6986): Humans are exposed to increasing levels of electromagnetic fields (EMF) at various frequencies as technology advances. In this context, improving understanding of the biological effects of EMF remains an important, high priority issue. Although a number of studies in this issue and elsewhere have focused on the mechanisms of the oxidative stress caused by EMF, the precise understanding of the processes involved remains to be elucidated. Due to unclear results among the studies, the issue of EMF exposure in the literature should be evaluated at the genomic level on the reproductive system. Based on this requirement, a detail review of recently published studies is necessary. The main objectives of this study are to show differences between negative and positive effect of EMF on the reproductive system of animal and human. Extensive review of literature has been made based on well known data bases like Web of Science, PubMed, MEDLINE, Google Scholar, Science Direct, Scopus. This paper reviews the current literature and is intended to contribute to a better understanding of the genotoxic effects of EMF emitted from mobile phones and wireless systems on the human reproductive system, especially on fertility. The current literature reveals that mobile phones can affect cellular functions via non-thermal effects. Although the cellular targets of global system for mobile communications (GSM)-modulated EMF are associated with the cell membrane, the subject is still controversial. Studies regarding the genotoxic effects of EMF have generally focused on DNA damage. Possible mechanisms are related to ROS formation due to oxidative stress. EMF increases ROS production by enhancing the activity of nicotinamide adenine dinucleotide (NADH) oxidase in the cell membrane. Further detailed studies are needed to elucidate DNA damage mechanisms and apoptotic pathways during oogenesis and spermatogenesis in germ cells exposed to EMF. AUTHORS' ABSTRACT: Bodewein et al. IEEE #7180): BACKGROUND: Many novel technologies, including induction cookers or wireless power transfer, produce electric fields (EF), magnetic fields (MF) or electromagnetic fields (EMF) in the intermediate frequency (IF) range. The effects of such fields on biological systems, however, have been poorly investigated. The aim of this systematic review was to provide an update of the state of research and to evaluate the potential for adverse effects of EF, MF and EMF in the IF range (300/Hz to 1/MHz) on biological systems. METHODS: The review was prepared in accordance with PRISMA (Preferred Reporting Items for Systematic Reviews and Meta-Analyses) guidelines. Methodical limitations in individual studies were assessed using the Office of Health Assessment and Translation (OHAT) Risk of Bias Rating Tool for Human and Animal Studies. RESULTS: Fifty-six studies exposing humans, animals or in vitro systems were eligible for this review. In these studies, many different endpoints were examined and most of the findings were obtained in studies with exposure to MF. For most endpoints, however, the reviewed studies yielded inconsistent results, with some studies indicating no effect and some linking IF exposure with adverse effects. In the majority of the included studies, the applied field strengths were above the International Commission on Non-Ionizing Radiation Protection (ICNIRP) reference levels for the general public and the applied frequencies were mainly below 100/kHz. Furthermore, many of the reviewed studies suffered from methodical limitations which lowered the credibility of the reported results. CONCLUSION: Due to the large heterogeneity in study designs, endpoints and exposed systems, as well as the inconsistent results and methodical limitations in many studies, the quality of evidence for adverse effects remains inadequate for drawing a conclusion on investigated biological effects of IF fields for most endpoints. We recommend that in future studies, effects of EF, MF and EMF in the IF range should be investigated more systematically, i.e., studies should consider various frequencies to identify potential frequency-dependent effects and apply different field strengths, especially if threshold-dependent effects are expected. Priority should be given to the investigation of acute effects, like induction of phosphenes, perception, excitation of nerves or muscles and thermal effects. This would be an important step towards the validation of the reference levels recommended by ICNIRP. Furthermore, we recommend that any new studies aim at implementing high quality dosimetry and minimizing sources of risk of bias.

    Return