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EMF Study
(Database last updated on Mar 27, 2024)
ID Number |
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1276 |
Study Type |
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Literature Review, Letter, Book Chapt., Report |
Model |
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General Comments and Letters to the Editor (Catch All) |
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AUTHORS' ABSTRACT: Zhao et al. 2016 (IEEE #6743): The millimeter-wave phased array in the user equipment (UE) for 5G communication is studied in this letter. In particular, the body effect on the phased array in the UE at 15 GHz is investigated with the 3-D measurement data, and its impact on some key parameters for phased array in the UE, such as the total scan pattern, the coverage efficiency, and the probability of detection, are analyzed.
AUTHOR'S ABSTRACT: Pockett 2018 (IEEE #7225): This paper argues that the prevailing official narrative in New Zealand concerning the relationship between public health and the radio frequency emissions (RF) from cellphone technology, WiFi and electricity smart meters is scientifically and ethically flawed. The main regulatory document in the area, NZS2772.1:1999, is 20 years out of date and ignores existing laboratory evidence disproving its core assumption that the only biological effect of non-ionising radiation is tissue heating. This and further laboratory evidence for harmful effects of RF continues to be ignored, nominally on the contradictory grounds that (a) cellphone manufacturers say their products now emit less RF than early models, so early lab studies exposed tissue to RF levels higher than those now relevant (b) given the lack of actual data on population exposures either then or now, all laboratory evidence is unconvincing anyway. The offical narrative further opines that since there exist both laboratory and epidemiological studies concluding that RF is not biologically harmful, as well as studies concluding that RF is harmful, the appropriate response is to count up the number on each side, declare the "weight of evidence" to be such that "causation is not proven" and, pending unspecified further studies, continue exposing to unmonitored levels of RF the entire population of the country, none of whom has given informed consent to participate in the experiment. This approach is obviously unethical. It is also unacceptable scientifically. First, the algebraic model is flawed: studies that do find a harmful effect of RF are not invalidated by differently constructed studies that fail to find an effect. Secondly, while causation is relatively easy to study in the laboratory, it is difficult if not impossible to prove epidemiologically, given that (1) the very narrative under discussion has ensured that there is now no unexposed control group and (2) interpretation of timeline correlation studies is hampered by changes in the way new cancer registrations have been recorded over the years and the perennial problem of multiple possible causal factors. The present paper concludes that a precautionary approach is justified, and ends with a number of specific suggestions on how to start implementing such an approach.
AUTHORS' ABSTRACT (see #9083): In the late-1990s, the FCC and ICNIRP adopted radiofrequency radiation (RFR) exposure limits to protect the public and workers from adverse effects of RFR. These limits were based on results from behavioral studies conducted in the 1980s involving 40–60-minute exposures in 5 monkeys and 8 rats, and then applying arbitrary safety factors to an apparent threshold specific absorption rate (SAR) of 4 W/kg. The limits were also based on two major assumptions: any biological effects were due to excessive tissue heating and no effects would occur below the putative threshold SAR, as well as twelve assumptions that were not specified by either the FCC or ICNIRP. In this paper, we show how the past 25 years of extensive research on RFR demonstrates that the assumptions underlying the FCC’s and ICNIRP’s exposure limits are invalid and continue to present a public health harm. Adverse effects observed at exposures below the assumed threshold SAR include non-thermal induction of reactive oxygen species, DNA damage, cardiomyopathy, carcinogenicity, sperm damage, and neurological effects, including electromagnetic hypersensitivity. Also, multiple human studies have found statistically significant associations between RFR exposure and increased brain and thyroid cancer risk. Yet, in 2020, and in light of the body of evidence reviewed in this article, the FCC and ICNIRP reaffirmed the same limits that were established in the 1990s. Consequently, these exposure limits, which are based on false suppositions, do not adequately protect workers, children, hypersensitive individuals, and the general population from short-term or long-term RFR exposures. Thus, urgently needed are health protective exposure limits for humans and the environment. These limits must be based on scientific evidence rather than on erroneous assumptions, especially given the increasing worldwide exposures of people and the environment to RFR, including novel forms of radiation from 5G telecommunications for which there are no adequate health effects studies. |
Findings |
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Not Applicable to Bioeffects |
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Completed With Publication |
Principal Investigator |
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Funding Agency |
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?????
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Country |
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UNITED STATES |
References |
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Lester, JR J. Bioelectricity, (1985) 4:129-131
Jauchem, JR Brit. J. Haematol., (1990) 76:312-313
Lu, ST et al. Health Phys., (1987) 53:545-
Monson, RR Am. J. Epidemiol., (1990) 131:774-775
Morton, WE Am. J. Epidemiol., (1981) 113:201-
Renan, MJ Radiat. Res., (1992) 131:227-228
Rossi, HH Radiat. Res., (1991) 128:115-
Wike, EL et al. J. Microwave Power & EM Energy, (1985) 20:181-184
McDowall, ME Lancet, (1983) 1:246-
Liburdy, RP New England J. Med., (1982) 307:1402-1402
Schwan, HP Bioelectromagnetics, (1999) 20 suppl 4:3-8
Guy, AW et al. Bioelectromagnetics, (1999) 20:522-
Venderstaeten, j et al. Bioelectromagnetics, (2005) 26:80-
Lundquist, M Epidemiology, (1999) 10:347-
Vijayalaxmi, et al. Mutation Research., (2006) 603:104-106
Rudiger, HW et al. Mutation Research, (2006) 603:107-109
Foster, KR Bioelectromagnetics, (2006) 27:335-
Boice, JD et al. Brit J Cancer, (2006) 95:130-
Rockwell, S et al. Radiation Research, (2006) 165:623-625
Morgan, L Am J Epidemiol, (2006) 164:294-295
Shuz, J et al. Am J Epidemiol, (2006) 164:295-296
Christensen, HC et al. Am J Emidemiol, (2004) 160:923-926
Park, RL J Natl Cancer Inst, (2001) 93:166-167
Gordon, CJ Bioelectromagnetics, (2006) 27:82-83
Hardell, L et al. Am J Ind Med, (2007) 50:697-698
Hardell, L et al. Am J Ind Med, (2006) 50:227-233
Leszczynski, D Radiation Research, (2007) 167:121-
McNamee, JP et al. Radiation Research, (2007) 167:121-
Whitehead, D et al. Radiation Research, (2007) 167:122-123
Ahlbom, A et al. J Natl Cancer Inst, (2007) 99:655-656
Schuz, J et al. J Natl Cancer Inst, (2007) 99:655-656
Mclaughlin, JK et al. Am J Ind Med, (2007) 50:235-236
Leszczynski, D Lancet, (2001) 358:1733-
Maisch, D J Australasian College Nutr Environ Med, (2003) 22:3-8
Trichopoulos, D et al. Am J Indust Med., (2007) 50:237-
Wakeford, R Am J Indust Med, (2007) 50:239-240
Rojavin, MA et al. Q J Med, (1998) 91:57-66
Hallberg, O et al. Electromagn Biol Med, (2006) 25:189-191
Swicord, ML et al. J Chem Physics, (2007) 127:117101-
Vijayalaxmi, et al. Int J Hum Genet, (2007) 7:325-327
McLaughlin, JK et al. Am J Ind Med, (2007) 50:235-236
Wakeford, R Am J Ind Med, (2007) 50:701-
Loughran, SP et al. Bioelectromagnetics, (2008) 29:242-243
Sivertsen, B et al. J Psychosomat Res, (2007) 64:11-12
Zinelis, SA Environ Health Persp, (2008) 116:62-
Roosli, M et al. Environ Health Persp, (2008) 116:A62-A63
Cohen, A et al. Environ Health Persp, (2008) 116:63-64
Eltiti, S et al. Environ Health Persp, (2008) 116:64-65
Hansen, SF et al. Risk Anal, (2007) 27:255-269
Cox, LA Risk Anal, (2007) 27:1083-1086
Hansen, SF et al. Risk Anal, (2007) 27:1087-1089
Zinelis, SA Environ Health Perspec, (2010) 118:A16-A17
Cohen, A et al. Environ Health Perspect, (2008) 116:A63-A64
Roosli, M et al. Environ Health Perspect, (2008) 116:A62-A63
Eltiti, S et al. Environ Health Perspect, (2008) 116:A64-A65
Schuz, J et al. Am J Epidemiol, (2008) 167:883-884
Ha, M et al. Am J Epidemiol, (2008) 167:883-884
Lerchl, A Int Arch Occup Environ Health., (2009) 82:275-278
Das, S Arch Med Res, (2008) 39:464-
Dasdag, S Arch Med Res, (2008) 39:465-
Lerchl, A Bioelectromagnetics, (2008) 29:583-584
Linet, MS Epidemiology, (2008) 19:530-531
Kheifets, L et al. Epidemiology, (2008) 19:532-533
Savitz, DA Epidemiology, (2008) 19:534-535
Cedervall, B Environ Res, (2008) 107:288-290
Tuffs, A Br Med J., (2008) 336:1461-
Kundi, M Occup Environ Med, (2008) 65:428-
Takebayashi, T et al. Occup Environ Med., (2008) 65:428-
Hocking, B Brit J Cancer, (2008) 98:1879-
Wolf, C Bioelectromagnetics, (2008) 29:658-659
Vogel, Science, (2008) 321:1144-1145
Kuster, N Bioelectromagnetics., (2008) 29:660-661
Balzano, Q Bioelectromagnetics, (2008) 29:662-
Saracci, R et al. Int J Epidemiol, (2008) :-
Khurana, VG et al. Science, (2008) 322:1325-
Vogel, G Science, (2008) 321:1144-1145
MMF, MMF viewpoint, (2008) September:-
Arnetz, BB et al. Psychosom Med, (2009) 71:115-
Swicord, M Bioelectromagnetics, (2009) 30:422-
Schrader, T Bioelectromagnetics, (2009) :-
Auvinen, A et al. Int J Epi., (2010) 39:1119-(1 page)
Dolan, M et al. Environ Health Perspectives, (2009) 117:1329-1332
Lin, J Bioelectromagnetics., (2008) 29:662-
Goldberg, P The Cancer Letter., (2008) 34 No. 20 Aug 1, 2008:1-8
Valic, B et al. Bioelectromagnetics., (2009) 30:600-(1 page)
Swanson, J Bioelectromagnetics., (2009) 30:600-(1 page)
Rothman, KJ Epidemiology, (2009) 20:653-655
Kundi, M et al. Environ Health Perspect, (2009) 117:A484-A485
Dolan, M et al. Environ Health Perspect., (2009) 117:A485-1 page
Vecchia, P et al. Health Phys., (2009) 97:257-258
Vecchia, P et al. Health Phys., (2009) 97:259-261
Corona, AP et al. Braz J Otorhinolaryngol, (2009) 75:593-615
Zinelis, SA Environmental Health Perspectives, (2010) 118:A16-(1 page)
Dolan, M et al. Environmental Health Perspectives., (2010) 118:A16-A17
Shu, X et al. Epidemiology., (2012) 23:766-767
McCartney, PR MCN Am J Matern Child Nurs., (2010) 35(3):173-(1 page)
Ahearn, A Environ Health Perspect., (2011) 119:-(2 pages following A468)
Balzano, Q Bioelectromagnetics., (2005) 26:79-(1 page)
Zhao, K et al. IEEE Antennas and Wireless Propagation Letters., (2017) 16:864-867
Lin, J IEEE Microwave Magazine., (2018) 19:20-22
Lin, J IEEE Microwave Magazine., (2019) 20:14-16
Jargin, SV Braz J Otorhinolaryngol., (2019) 85:129-(1 page)
Jargin, SV Journal of Environmental and Occupational Science., (2017) 6:58-60
Pockett, S N Z Med J., (2018) 131:97-107
Foster, K et al. Environmental Research. , (2019) 168:445-447
Pockett, S Magnetochemistry., (2019) 5:31-(13 pages)
Lin, JC IEEE Microwave Magazine., (2019) February:16-20
Lin, J IEEE Microwave Magazine. , (2019) 20:18-21
Kelly, R New Zealand Medical journal., (2019) 132:96-97
Rafferty, S et al. Skin Research and Technology., (2020) :DOI: 10.1111/srt.12912-(1 page)
Jargin, SV J Radiat Oncol., (2020) 9:81-91
Hardell, L et al. Mol Clin Oncol., (2020) 12:247-257
Lin, JC URSI Radio Science Bulletin.
, (2019) :87-89
Olsen, RG Electromagnetic Compatibility Magazine., (2020) 9:27-29
Foster, KR et al. Rev Environ Health., (2021) DOI: 10.1515/reveh-2021-0086:-
Arribas, E et al. Environmental Research., (2018) 167:639-
Gadit, AM JPMA The Journal of the
Pakistan Medical Association., (2011) 61:1249-1250
Jauchem, JR Science.
, (1990) 250:739-
Jauchem, JR Lancet., (1990) 336:884-
Trichopoulos, D et al. The New England journal of medicine., (2001) 344:133-134
Leszczynski, D Reviews on Environmental Health., (2021) :-
Foster, KR et al. IEEE Microw Mag., (2022) 23:93-95
Nyberg, NR et al. Rev Environ Health. , (2022) :-
ICBE, et al. Environmental Health. , (2022) 21:92-
Lopez, I et al. Front Public Health., (2022) 10:992645-
Weller, S et al. J Expo Sci Environ Epidemiol., (2023) 33:17-20
Leszczynski, D Frontiers in Public Health., (2022) 10:-
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