Science
To: Science about ES - individual studies
Mechanisms, Pathways and Non-thermal Effects
There are many established mechanisms for the way electro-magnetic exposure affects the body at non-thermal levels, way below ICNIRP's heating levels. Some mechanisms are indirect but are still objective effects which can be measured. Many of these mechanisms and pathways are inter-linked. Useful overviews include:
See also:
The excellence of the pioneering studies in the USSR and Poland in the 1950s and 1960s revealed long-term effects of low-level electromagnetic exposure. A serious weakness of many recent studies in the west is that they do not consider long-term exposure and outcomes like Electrosensitivity.
General Reviews:
Select studies:
- Bevington M: "Selected Studies on Electrosensitivity (ES) and Electromagnetic Hyper-sensitivity (EHS)" (Electrosensitivity UK, 2018; over 2,000 studies)
- Bioinitiative Report (2012). Updated Research Summaries (May 1 2019).
- ECOLOG Institut: "Mobile Telecommunications and Health" (2000, for T-Mobile, etc.)
- EMF Portal
- EMR Aware: "EHS" (Australia, 97 files, 2017)
- Environmental Health Trust: Science
- Moskowitz JM: "Annotated Bibliography of Scientific Papers Finding Evidence of Harm from Cell Phone Radiation Exposure Published between August, 2016 and July, 2018" (School of Public Health, University of California, Berkeley
August 6 2018)
- Oceania Radiofrequency Scientific Advisory Association (ORSAA): Database
- Powerwatch: 1,670 studies
- "136 Studies Showing Health Effects from WiFi Radio Frequency Radiation" (2016)
Updates to research studies
Changes in brain:
Diagnosis:
Genetic variants and ES symptoms:
Viruses and ES symptoms:
Mitochondria, light, water and EMFs:
Fascia and connective tissue, accupuncture points, meridians, Bioceramic resonance:
Autoimmune diseases made worse by electrosmog:
Magnetic Fields alter cells by Radical Pair Mechanism
DNA Breaks:
Three types of DNA damage are produced by low intensity microwaves and EMFs:
- (a) Single-stranded DNA breaks
- (b) Double-stranded DNA breaks
- (c) Oxidized bases in cellular DNA.
All can be produced by free radical breakdown products of peroxynitrite, especially hydroxyl radical and carbonate radical attacks.
They can produce genomic instability, with double-stranded DNA breaks producing chromosomal changes, gene amplification and copy number mutations. The formation of micronuclei indicates that deletions will be produced. Single-stranded DNA breaks often produce copy number mutations, while oxidized bases produce point mutations including both transition and transversion single base pair mutations.
Videos:
Mechanisms, Pathways and Non-thermal Effects:
- Adrenal system (Laszlo AM et al, 2017)
- Akt/PKB/Pl3/mTOR/ERK/MMP-9 singaling pathways (Colgiago A et al, 2015; Tang R et al, 2016; Patruno A et al, 2018; Ye A-F et al, 2022)
- Alpha amylase (Augner C et al, 2010; Andrianome S et al, 2017)
- Amyotrophic lateral sclerosis (ALS), Motor Neuron Disease (Deapen DM et al, 1986; Consales C et al, 2012; Koeman T et al, 2017; Luna J et al, 2019; Filippini T et al., 2020)
- Antibiotic effectiveness changed, antibiotic resistance (Torgomyan H et al, 2013; Taheri M et al, 2015; Soghomonyan D et al, 2016; Taheri M et al, 2017)
- Antioxidant, anti-inflammatory, NrF2 (Pall ML et al, 2015)
- Artificial Light At Night (ALAN): (Deprato A et al, 2024; Lei T et al, 2024; Molcan L et al, 2024))
- Astrogliosis, increase in astrocytes (Barthélémy A et al, 2016)
- ATP (Ocal I et al, 2018, Wang D et al, 2018; Wang D et al, 2018)
- Attention Deficit Hyperactivity DIsorder (ADHD) (Lissak G, 2018)
- Auditory thresholds (Das S et al, 2017)
- Autonomic nervous system (Havas M et al, 2021)
- Autophagy (related to ageing, cancer, infections, neurodegeneration) (Marchesi N et al, 2014; Kim JH et al, 2017; Kim JH et al, 2018; Kim JH et al, 2018)
- Bacteria effects (Oliva SA, 1979; Cellini L et al, 2008; Segatore B et al, 2012; Adebayo ES et al, 2014; Tessaro LW et al, 2015; Taheri M et al, 2017; Movahedi MM et al, 2019)
- Biochemical and histopathological changes in the brain (Hussein S et al, 2016)
- Bioelectric signalling, endogenous electromagnetic fields (Adams DS et al, 2013; Levin M, 2013; Tseng A et al,, 2013; Hales CG, 2014; Levin M, 2014; Law R et al, 2015; Pai VP et al, 2015; Cervera J et al, 2016; Goldwyn JH et al, 2016)
- Biofield physiology (Hammerschlag R et al, 2015; Kafatos MC et al, 2015)
- Birth defects, preterm (de Vocht F et al, 2014; Sadeghi T et al, 2017)
- Biostimulation at radiofrequency producing histological and DNA effects (Avantaggiato A et al, 2016)
- Blood effects (Lippi G et al, 2017; Usman JD et al, 2020)
- Blood Brain Barrier weakened (Frey, 1974), (Salford et al, 1994; Nittby et al, 2008)
- Blue light (Renard G et al, 2016)
- Brain abnormalities (Hauser G et al, 2017)
- Brain and cerebral effects, environmental exposure (Deshmukh PS et al, 2016; Rouleau N et al, 2016)
- Brain effects: size, development, pre-natal exposure (Kaplan S et al, 2016; Zhou Z et al, 2016)
- Brain tumors, glioma, acoustic neuroma (Hardell L et al, 2007; Hardell L et al, 2009; Hardell L et al, 2013; Hardell L et al, 2013; Hardell L et al, 2015; Morgan LL et al, 2015; Bortkiewicz A et al, 2017; Carlberg M et al, 2017; Hardell L et al, 2017; Leece R et al, 2017; Prasad M et al, 2017; Mortazavi SMJ et al. 2018; Philips A et al, 2018; Wang P et al, 2018; Natukka T et al, 2019; Carles C et al, 2020; Choi Y-J et al, 2020; Grech N et al, 2020; Pareja-Peña F et al, 2020; Zumel-Marne A et al, 2020; Seomun G et al, 2021)
- Breast cancer (Shih Y-W et al, 2020)
- Bystander effect, biophotonic signalling (Nagasawa H et al, 1992; Mosse I et al, 2006; Mothersill C et al, 2013; Tomita M et al, 2015; Le M et al, 2017; Mothersill C et al, 2018; Smith RW et al, 2018; Smith RW et al, 2018B)
- Calcium flux, voltage-gated calcium channels (Bawin SM et al, 1976; Pall ML, 2013; Panagopoulos DJ et al, 2017; Zhang H et al, 2017; Zhang J et al, 2017; Bo W et al, 2020; Ma Z et al, 2021; Ye A-F et al, 2022)
- Cancer, cells, MCF-7, mRNA levels of antioxidant genes (Omura Y et al, 1993; Mahmoudinasab H et al, 2016)
- Cancer (Wertheimer N et al: 1979; Hardell et al, 2009; Carles C et al, 2020; de Seze R et al, 2020)
- Cancer, RF as class 1 human carcinogen: (Peleg M et al, 2018)
- Cancer promoter: both ELF and RF are cancer promoters, where EM exposure increases the risk of cancer in animals predisposed to cancer and in tumor growth (Li Y et al, 2014; Lerchl A et al, 2015; Martínez MA et al, 2016; Soffritti M et al, 2016)
- Cardiovascular effects (Misek J et al, 2018; von Klitzing L, 2022; Zhang Y et al, 2024)
- Cell membranes as the location for microwave effects in transmembrane signal coupling and non-linear and non-equilibrium processes in cancer promotion (Lawrence AF & Adey WR, 1982; Adey WR, 1988)
- Cell apoptosis (Xing F et al, 2016)
- Cerebral blood perfusion (Huber R et al, 2002; Huber R et al, 2005)
- Chemical sensitivities and pollutants (Hardell L et al, 2008; Belpomme D et al. 2016; Rea WJ, 2016; Tran MT et al, 2016; Damiani G et al, 2021)
- Childhood Leukemia (Núñez‐Enríquez JC et al, 2020; Seomun G et al. 2021)
- Chromosome damage caused by microwaves (Heller & Teixeira-Pinto, 1959; Gulati S et al, 2024)
- Classification of diseases: electric field phenotypes (Schwartz L et al, 2018)
- Colon cancer (Mokarram P et al, 2017)
- Cognitive effects (Al-Khlaiwi TM et al, 2020)
- Congenital heart disease (Zhao D et al, 2020)
- Cortisol reduced (Evers S et al, 2001; Mortazavi SM et al, 2012; Touitou Y et al, 2022)
- Cryptochromes, epigenetic expression, circadian rhythms (Zaporozhan & Ponomarenko, 2010; Close, 2012; Nießner C et al, 2016; Neißner C et al, 2017; Zhang Y et al, 2017; Agliassa C et al, 2018; Landler L et al, 2018; Pinzon-Rodriguez A et al, 2018; Sherrard RM et al, 2018; Bartos P et al, 2019; Albaqami M et al, 2020; Xu J et al, 2021)
- Demyelination, Multiple Sclerosis, West Nile Fever, vaccination (Havas M, 2006; Harbo Poulsen et al, 2012; Karussis D et al, 2014; Kudo M, 2014; Redmayne et al, 2014; Johansson O et al, 2016; Kim JH et al, 2017; Sharma A et al, 2022)
- Diabetes (Ocal I et al, 2018; Carter CS et al, 2020)
- Digital biology (Witters D et al, 2014) (Thomas Y, 2015)
- DNA and electromagnetic signalling (Montagnier et al, 2009)
- DNA fragmentation, a precursor of cancer (Lai & Singh, 1995; Margaritis et al, 2013; Megha K et al, 2015; Ibitayo AO et al, 2017; Zothansiama et al, 2017; Bagheri Hosseinabadi M et al, 2019; Smith-Roe SL et al, 2019; Mišík M et al, 2023)
- Drug resistance (Falone S et al, 2018)
- Duration of exposure: adverse or protective (Hidisoglu E et al, 2016)
- Electromyogram (von Klitzing L, 2021)
- Electrosensitivity (Balmori A, 2022)
- Entanglement (Dotta BT et al, 2013)
- Enzyme effects (Gulati S et al, 2017)
- Epigenetic effects (Mokarram P et al, 2017)
- Erythrocytes (Jeican II et al, 2017)
- Estrogen beta receptor (Reyes-Guerrero G et al. 2010; Bernal-Mondragón C et al, 2016)
- Excessive exposure to RF EMFs, can cause EHS (Carpenter DO, 2015)
- Exostosis (Shahar D et al, 2016; Shahar D et al, 2018; Shahar D et al, 2018a)
- Fetal effects; see also Prenatal (Aldad TJ et al 2012; Genuis SJ et al, 2016; Türedi S et al, 2016; Calis P et al, 2019)
- Fertility damage, (Flaherty, 1994; Dama & Bhat, 2013; Liu et al, 2014; Ahmadi SS et al, 2016; Akdag MZ et al, 2016; Radwan M et al, 2016; Manta AK et al, 2017; Bilgici B et al, 2018; Ding SS et al, 2018; Gautam R et al, 2018; Sadeghi T et al, 2017; Esmailzadeh S et al, 2018; Gautam R et al, 2018; Kesari KK et al, 2018; Santini SJ et al, 2018; Yahyazadeh A et al, 2018; Chen H-G et al, 2022)
- Free Radical Species and Oxidative Stress (De Iuliis GN et al, 2009; Desai NR et al, 2009; Burlaka A et al, 2013; Havas M, 2016)
- Gene expression, genetic effects (Manta AK et al, 2017; Lai H, 2021)
- Genetic variants, such as the haplotype (null)GSTT1 + (null)GSTM1 variants (Yang Y et al, 2008; de Luca et al, 2014; Wang LF et al, 2016; Luo J et al. 2020)
- Geomagnetic influences (Becker, 1963; Stoupel E et al. 2002; Close J, 2012; Shaposhnikov D et al, 2013; Feigin VL et al, 2014; Rouleau N et al, 2014; Stoupel EG et al, 2015; Martínez-Bretón JL et al, 2016; Krylov VV, 2017; Podolska K, 2017; Anand K et al, 2022)
- Glioma and brain tumors, low-level RF as cause, call for classification as class 2A or class 1 human carcinogen (Hardell L et al, 2007; Hardell L et al, 2013; Coureau G et al, 2014; Morgan LL et al, 2015; Grell K et al, 2016; Wang Y et al, 2016; Carlberg M et al, 2017; Momoli F et al, 2017; Yang M et al, 2017; Philips A et al, 2018)
- Glucose, diabetes (Kleiber CE, 2017)
- Glutamate receptors, neuronal signalling (Gökçek-Saraç Ç et al, 2017)
- Gravitation (Tairbekov MG et al, 1997; Slezak A et al, 2000; Herranz R et al, 2012)
- Gut leakage or Intestinal Permeability is increased by electroporation (Ghartey-Tagoe EB et al, 2005) or by glucocorticoid levels (Zheng G et al, 2013) which can be increased by cellphone exposure (Khirazova EE et al, 2012).
- Hearing (Taher E et al, 2024)
- Heart Rate Variability and ischaemic diseases (Borthkiewicz A et al, 1998; Fazzo L et al, 2009; Havas M, 2013; Havas M et al, 2021; Dale S et al, 2024).
- Heat Shock Factor activation (Lin H, Blank M, Goodman R et al, 1997; Zeni O et al, 2017)
- Heavy metal (aluminum, lead, mercury) (Omura Y et al, 1991)
- Heavy metal (mercury), dental restorations and EMF (Mariea & Carlo, 2007; Byun VH et al, 2013; Mortazavi G et al, 2015; Mortazavi SM et al, 2016; Paknahad M et al, 2016).
- Heavy metal (mercury), dental restorations, EMF maternal exposure and autism (Mortazavi G et al, 2016)
- Heavy metal (mercury), dental restorations, EMF and genetic susceptibility, sexual dimorphism (Echeverria D et al, 2006; Woods JS et al, 2012)
- Hippocampus effects (Larsen LE et al, 2016; Teimori F et al, 2016)
- Hippo pathway (Colgiago A et al, 2015)
- Histamine release induced by EM stress opens the Blood Brain Barrier (Mayhan WG, 1996; Adachi N, 2005)
- Histopathological and behavioral changes (Sharma A et al, 2017)
- Hormesis, biphasic response (Sun C et al, 2016)
- Immune effects, auto-immune diseases, lymphocytes (Bonhomme-Faivre L et al, 2003; Marshall TG et al, 2016; Taheri M et al, 2017)
- Individual variability (Pellegrini M et al, 2017)
- Inflammation (Megha K et al, 2015; Lameth J et al, 2017)
- Information transfer in aqueous solutions (Foletti A et al. 2012; Alberto F et al, 2014; Foletti A et al, 2017)
- Integrins (Zhu B et al. 2016; Cervalleti F et al, 2013; Liu J et al, 2017; Xia P et al, 2017)
- Ionizing radiation: (Rusin A et al, 2018)
- Iron metabolism (Ren J et al, 2017)
- LDLox: (Thoradit T et al, 2024)
- Light effects, infra red, blue light, CFL, LED (van de Werken M et al, 2013; Daneault V et al, 2016; de Freitas LF et al, 2016; Yuda E et al, 2016; Rahman SA et al, 2017; Yuda E et al, 2017; Milham S et al, 2018; Souman JL et al, 2018)
- Lipid peroxidation (Akpinar D et al, 2012; Gok DK et al, 2016)
- Liver (Carter CS et al, 2020)
- Lymphoma, non-Hodgkin's, follicular lymphoma (Hardell L et al, 2005; Koeman T et al, 2014)
- Magnesium (Buchachenko AL et al, 2005; Ulku R et al, 2011; Hore PJ, 2012)
- Magnetite, magnetoacoustic effect, ferromagnetic resonance, possible Alzheimer's link (Kirschvinck JL et al, 1992; Kirschvink JL et al. 1992; Kirschvinck JL, 1996; Liang CH et al, 2016; Maher BA et al. 2016)
- Magneto-reception (Carrubba S et al, 2007; Carubba & Marino, 2008; Li Y et al, 2014; Belova NA et al, 2015; Vidal-Gadea A et al, 2015; Ernst DA et al, 2016; Martínez MA et al, 2016; Qin S et al, 2015; Zablotskii V et al, 2016; Binhi VN et al, 2017; Letuta UG et al, 2017; Taylor BK et al, 2017; Zhang HT et al, 2017; Chae KS et al, 2019; Wang CX et al, 2019; Benediktová K et al, 2020; Seomun G et al, 2021; Chae KS et al, 2022)
- Magneto-reception, animals (Simmonds SL et al, 2006; Wan GJ et al, 2014; An GZ et al, 2015; Fu JP et al, 2016; Kattnig DR et al, 2016; Leao P et al, 2016; Binhi VN et al, 2017; de Vries L et al, 2017; Kattnig DR et al, 2017; Natan E et al, 2017; Neißner C et al, 2017; Pakhomov A et al, 2017; Pang K et al, 2017; Xu J et al, 2017; Xu JJ et al, 2017; Pinzon-Rodriguez A et al, 2018)
- MAPK/ERK signalling pathway, phosphorylation, cancer (Zuo HY et al, 2009; Sheikh AQ et al, 2013; Tang J et al, 2015; Geng DY et al, 2016; Kapri-Pardes E et al, 2017; Shahin S et al, 2017)
- Mast cells in the skin (Johansson O et al, 2001).
- Meletonin reduction, through ELF effects on the pineal gland (Semm P et al, 1980; Reiter, 1993; Loscher W et al, 1994; Halgamuge, 2013; van de Werken M et al, 2013; Rahman SA et al, 2017) Ajit Singh: "Major side effect of mobile phone radiation WHO" (2014, 25 mins)
- Melanogenesis: (Kim YM et al, 2017)
- Memory loss (Zhao ZG et al, 2005; Mortazavi SM et al, 2013; Qiao S et al, 2014; Schneider J et al, 2014; Wang H et al, 2014; Schoeni A et al, 2015; Zhao YL et al, 2015; Ghadamgahi M et al, 2016; Kumari K et al, 2017; Shahin S et al, 2017; Foerster M et al, 2018)
- Mercury effects (Paknahad M et al, 2016; Landler L et al, 2017)
- Meridian or accupuncture electrical pathways (Jiang Y et al, 2014).
- Metabolic effecsts, metabolomic markers, ATPS, mitochondria (Li Y et al, 2014; Tan S et al, 2017; Piras C et al, 2020; Piras C et al, 2022)
- MicroRNA: (Li H et al, 2018)
- Microwave Hearing, discovered by Frey in 1962: "Human auditory system response to modulated electromagnetic energy" (PMID); 1 hour of cellphone use affects hearing thresholds (Alsanosi, 2013)
- millimeter waves, 5G, (<)30-300 GHz, THz (DeSmul A, 1996; Zhao Z et al, 1998; Lysenyuk VP et al, 2000; Vorobyov VV et al, 2002; Zhao ZG et al, 2005; Korenstein-Ilan A et al, 2008; Millenbaugh NJ et al, 2008; Titushkin IA et al, 2009; Alexandrov BS et al, 2010; Alexandrov BS et al, 2011; Habauzit D et al, 2014; Romanenko S et al, 2014; Soghomonyan D et al, 2016; Romanenko S et al, 2017; Betzalel N et al, 2018; Bo W et al, 2020; Matthew UO et al, 2021; Pall ML, 2021)
- miRNA: miR-26b-5p may be a biomarker for 50Hz exposure, perhaps based on miR-26b-5p-CCND2-mediated cell cycle regulation (Liu Y et al, 2016)
- Miscarriage (Lindbohm ML et al, 1992; Juutilainen J et al, 1993; Lee GM et al, 2002; Li DK et al, 2002; Shamsi Mahmoudabadi FS et al, 2013; Wang Q et al, 2013; Mahmoudabadi FS et al, 2015; Li DK et al, 2017; Zhou LY et al, 2017)
- Mitochondrial dysfunction, leading to elevated ROS production, ATPS changes (Li Y et al, 2014; Houston B et al, 2016)
- MRI scanners (Schaap K et al, 2014; Acri G et al, 2018)
- Multiple Sclerosis (Khaki-Khatibi F et al, 2019)
- Muscarinic receptor M1 (Hassanshahi A et al, 2017)
- Nerve blockage. very low frequencies (3-30 kHz) (Tanner JA, 1962) (Bhadra N et al, 2005; Weinberg SH, 2013)
- Neurogenesis (Chen C et al, 2014; Eghlidospour M et al, 2017)
- Neurological effects (Zhao YL et al, 2004; Zhao L et al, 2012; Qiao S et al, 2014; Wang H et al, 2015; Wang LF et al, 2015; Xiong L et al, 2015; Ye H et al, 2015; Mugunthan N et al, 2016; Asian A et al, 2017; Hu Y et al, 2017; Tan S et al, 2017; Wang J et al, 2017; Varghese R et al, 2018)
- Nitric Oxide (Patruno A et al, 2010; Pilla, 2012)
- Non-linear effects, 'windows' (variations in frequency, pulse, intensity and duration), resonance (Bawin SM et al, 1977; Adey WR, 1979; Rea WJ et al, 1991; Belyaev IY et al, 1996; Blackman CF et al, 1996; Hyland GJ, 2000; Carrubba S et al, 2008; Taheri M et al, 2015; Mansourian M et al, 2016; Marino AA et al, 2017; Martínez-Bretón JL et al, 2016) (Verrender A et al, 2016)
- Non-thermal effects: established since the 1950s (see e.g. Zhao Z et al, 1998; Zhao ZG et al, 2005; Giuliani L & Soffritti M “Non-Thermal Effects and Mechanisms of Interaction Between Electromagnetic Fields and Living Matter”, Europ J Oncol, 2010, part I, part II; Marino AA et al, 2017; Tan S et al, 2017; Wurst P et al, 2020, Yang L et al., 2020)
- Olfactory effects (Mastrodonato A et al, 2018)
- Optical effects, ophthalmic effects, sclera fibroblasts (Wang J et al, 2013; Zhu H et al, 2016; Suetov AA et al, 2019)
- Oxidative stress (Megha K et al, 2015; Yamenko I et al, 2015; Akpinar D et al, 2016; Consales C et al, 2016; Ghanbari AA et al, 2016; Havas M, 2016; Zang D et al, 2017; Irigaray P et al, 2018; Kamali K et al, 2018; Masoumi A et al, 2018; Varghese R et al, 2018; Schuermann D et al, 2021; Sharma A et al, 2022; Thoradit T et al, 2024)
- Pain (Lin F-Y, 2021)
- Parametric oscillations, frequency resonance (Hinrikus H et al, 2016)
- Parkinson's Disease (Benassi B et al, 2016)
- Parotid gland (de Siqueira EC et al.: 2016)
- Papaya (Irigaray P et al, 2018)
- Phospholipid bilayers (Ziegler MJ et al, 2008; Kong Z et al, 2017)
- Phosphorylation, ATP (Buchachenko AL et al, 2005; Buchachenko AL et al, 2005; Buchachenko AL et al, 2006; Buchachenko AL et al, 2008)
- Photons, biophotons (Popp FA et al, 1984; van Wijk R et al, 1993; Bajpai RP, 2003; Rahnama M et al, 2011; Cacha LA et al, 2014; Zangari A et al, 2018)
- Photobiomodulation (PBM), Low Level Laser (Light) Therapy (Chung H et al, 2012; Borzabadi-Farahani A, 2016; de Freitas LF et al, 2016; Hamblin MR, 2017; Hennessy M et al, 2017)
- Photo-induced electron transfer and magnetoreception (Byrdin M et al, 2003; Henbest KB et al, 2008; Sheppard DM et al, 2017)
- Photosensitivity (EM), blue light, UV light, melotonin, circadian clock, aging and cancer (Anisimov VN et al, 2004; Chepesiuk R, 2009; Popvich IG et al, 2013; Chang AM et al, 2015; Gringras P et al, 2015; Perelis M et al, 2015; Phan TX et al, 2016; G et al, 2016) ("Shiftwork that involves circadian disruption is probably carcinogenic to humans (Group 2A)" IARC, 2007)
- Photosynthesis (Tang C et al, 2018)
- PI3K/AKT/mTOR Pathway (Patruno A et al, 2015; Chou SC et al. 2024)
- Polarization (Belyaev IY et al, 1992; Panagopoulos DJ et al, 2015; Muheim R et al, 2017; Panagopoulos DJ et al, 2017)
- Potassium channels (Jensen CS et al, 2011; Cameron MA et al, 2017)
- Power Line Effects see also Leukemia (Raz-Steinkrycer LS et al, 2022)
- Pre-natal exposure: brain size reduced, behavior changes (Sudan M et al, 2012; Sharma A et al, 2016; Zhou Z et al, 2016; Bahreyni Toossi MH et al, 2017; Choi kh et al, 2017; Ottman H et al, 2017; Bektas H et al, 2020)
- Primary cilia, sensory cilia, calcium singalling: McCullen SD et al, 2010; Cai S et al, 2017
- Prions (Lian HY et al, 2017)
- Prostate cancer: (Górski R et al, 2021; Zhang Y et al, 2023)
- Protein expression, proteome (Karinen A et al, 2008; Fragopoulou AF et al, 2012; Luo Q et al, 2013).
- Radical Pair mechanism, resonance, magnetic fields, photokinesis, Zeeman resonance (Adair RK, 1999; Usselman RJ et al, 2014; Barnes FS et al, 2015; de Melo RD et al, 2016; Hiscock HG et al, 2016; Barnes F et al, 2018; Ikeya N et al., 2021)
- Radiofrequency Sickness (Balmori A,, 2022)
- Reactive Oxygen Species, and Heat Shock proteins effects (Miyakoshi J et al,2000; Yao K et al, 2008; Lu YS et al, 2012; Kesari KK et al, 2013; Ni S et al, 2013; Martínez MA et al, 2016; Tang R et al, 2016; Manta AK et al, 2017; Wang H et al, 2017; Carter CS et al, 2020)
- Resonance signalling, ion cyclotron resonance (Liboff, 2009; Foletti A et al, 2013; Liboff AR et al, 2017)
- Schwann cells (Colgiago A et al, 2015)
- Sialic acid, neurotransmission (Lowden A et al, 2011; Liu H et l, 2014; Zheng Y et al, 2016)
- Skin cancer (Zhang Y et al, 2023)
- Skin effects: collagen, dermal fibroblasts, hydroxyproline, mast cells (Johansson O et al, 1994; Gangi S et al, 1997; Johansson O et al, 2001; Aschermann C, 2011; Çam ST et al, 2014; Pasi F et al, 2016)
- Sleep problems (Huss A et al, 2015; Demir YP et al, 2019; Lallawmzuala et al, 2019)
- Social behavioral changes: pre-natal exposures (Zhou Z et al, 2016)
- Solar effects (Anand K et al, 2022)
- Stem Cell growth impaired (Chen C et al, 2014; Bhargav H et al, 2015)
- Sympathetic nervous system effects (Hänninen O et al, 2013).
- Subtle energy effects (Bhargav H et al, 2017; Rubik B, 2017)
- Synergy, with lead (Ansarihadipour H et al, 2016)
- Synergy, with sonic waves (Choi YK et al, 2016)
- TCA (Lin KW et al, 2016)
- Testosterone reduced (Dasdag et al, 2015)
- Therapeutic effects (Ma F et al, 2016)
- Thermal stress (Zang ZY et al, 2016)
- Thyroid hormones and cancer (Mortavazi S et al, 2009; Calrberg M et al, 2016; Asl JF et al, 2019)
- Ticks (Vergová B et al, 2018) (D. reticulatus: Foldvari G et al, 2016)
- Tinnitus (Söylemez E et al, 2024)
- Transcranial Magnetic Stimulation (TMS) (Shouan A et al, 2021)
- Trigeminal nerve (Marino AA et al, 2016)
- Tumor promotion (Lerchl A et al, 2015; de Siqueira EC et al.: 2016; Leng L et al, 2016; Soffritti M et al, 2016; Prasad M et al, 2017)
- Tumor specific frequencies: (Milham S et al, 2016)
- Ultrasound, hyper-sensitivity (Leighton TG, 2016)
- Vagus nerve (O'Reardon JP et al, 2006; Burgess AP et al, 2016; Larsen LE et al, 2016; Passi R et al, 2017)
- Voltage-Gated Channels (VGCs) (Bertagna F et al, 2021)
- Water conditioned by EM exposure: biological effects (Gang N et al, 2012; Dotta BT et al, 2013; Montagnier L et al, 2009; Yamabhai M et al, 2014; Montagnier L et al, 2015)
- Water diffusion increased by non-thermal microwaves (Hinnikus et al, 2014)
- Water, electrolyzed reduced water, ionized water, with anti-oxidant, micro-cluster and alkaline properties (Shirahata S et al, 1997; Franceschelli S et al, 2016)
- Windows: see 'Non-Linear'
Scientists are unable to differentiate between damage caused by non-thermal electro-magnetic exposure and nuclear radio-active exposure.
Resonance, bioresonance, coherence, quantum biology, biosignalling, DNA fractal responses:
(* Useful illustrated introduction to water coherence and resonance, showing DNA reconstituted from 500-3000 Hz waves within ambient 7 Hz or Schumann Resonance waves)
(a) Videos:
- Resonance from sound waves (Wine glass resonance in slow motion, 2009, 4m)
- Resonance: Beings of Frequency (BeeSafe Technologies, 2008, 88m)
- Killing a parasite at the relevant frequency (2008, 32s)
- Electromagnetic quantum biology: Nobel Laureate Prof. Luc Montagnier (2014, 54m)
- Energy Medicine and Bioresonance (Deta Elis, 2013, 89m)
- * "What is Life? A Non Particle View" (LaRouchePAC, 2011, 44m)
- "The Coming Revolution in Wave Biology: An Interview with Dr Luc Montagnier" (LaRouchePAC, 2011, 73m)
- Prof Brian Josephson (Nobel Laureate): "New Horizons in Water Science" (Royal Society of Medicine, July 2018, 33 m)
(b) Papers and reports:
Reduced antibiotic resistance
Triggering Agents for ES
Magnetoreception
Vagal tone and physiological stress
Patents for use of low-level electromagnetic energy for health effects etc.:
To: Science about ES - individual studies