ELF - Electromagnetic Fields Experiments
Experimental procedures and their application in regenerative medicine and cancer treatment

Extremely low frequency electromagnetic fields (ELF-EMF, 1–300 Hz) exert profound non-thermal biological effects by engaging endogenous electromagnetic signaling pathways that organisms evolved to process as informational content—when applied with precise frequency, intensity, modulation pattern, and duration parameters, these fields produce therapeutic outcomes across oncology, neurology, regenerative medicine, and immunology through resonant interactions with voltage-gated calcium channels, structured water interfaces, and coherent biomolecular oscillators rather than thermal energy deposition [1, 2, 3]. ...

Mechanisms of Action: Calcium Channels and Redox Signaling

• Voltage-gated calcium channel activation: Pall established that ELF-EMF acts primarily via voltage-gated calcium channel (VGCC) activation, triggering downstream signaling cascades including nitric oxide production, cyclic AMP elevation, and kinase activation—this single mechanism explains diverse therapeutic outcomes from bone healing to neuroprotection [1]
• Frequency-specific calcium influx: Wang et al. demonstrated that square wave exposure at Schumann resonance frequency (7.83±0.3 Hz) inhibits B16F10 melanoma cell growth through L- and T-type calcium channel activation—revealing precise frequency dependence for therapeutic calcium signaling [2]
• Sodium channel modulation: He et al. showed 50 Hz ELF-EMF (1 mT) modulates Na⁺ currents in rat cerebellar granule cells through arachidonic acid/prostaglandin E2 pathways and EP receptor-mediated cAMP/PKA signaling—demonstrating ion channel specificity beyond calcium [3]
• Redox balance regulation: Reale et al. documented that 50 Hz ELF-EMF (1 mT) modulates oxidative stress in neuronal cells through Nrf-2/HO-1 and SIRT1/NF-κB pathways associated with intracellular glutathione accumulation—providing mechanism for neuroprotection in Alzheimer's models [4]
• Epigenetic reprogramming: Pinton et al. revealed specific low-frequency electromagnetic fields (20–3200 Hz, 0.02–0.4 mT) induce epigenetic and functional changes in U937 monocytic cells—demonstrating field-mediated gene expression regulation without genetic modification [5]

Oncological Applications: Frequency-Targeted Cancer Therapy

Bergandi et al. demonstrated that ELF-EMF exposure (2–31 Hz, 0.1 mT) inhibits growth and potentiates chemotherapy sensitivity in both bidimensional and tridimensional human osteosarcoma models—validating therapeutic efficacy in physiologically relevant 3D tumor architectures [6]. Crocetti et al. showed low-intensity pulsed electromagnetic fields (20–50 Hz, 2–5 mT) selectively impair breast cancer cell viability while sparing normal mammary epithelial cells—revealing tumor-specific vulnerability windows [7].

Filipovic et al. investigated electromagnetic field effects across multiple cancer cell lines (50 Hz, 10 mT), identifying differential responses based on tissue origin and genetic background—providing foundation for personalized frequency selection [8]. Liu et al. developed bio-inspired electromagnetic fields (0.5 Hz, 0.035–0.037 mT) that differentially affect normal versus cancer cells through resonant interactions with membrane potential oscillations [9].

Hambarde et al. engineered spinning magnetic field patterns (77–277 Hz, 0.42–5 mT) that induce oncolysis in glioma cells through oxidative stress mechanisms—demonstrating that complex field geometries enhance therapeutic specificity [10]. Bergandi et al. applied thermodynamic modeling to calculate resonant frequencies for specific cancer types, confirming metabolic shifts in 3D tumor aggregates exposed to ELF-EMF (3–14 Hz, 0.07 mT) [11].

Makinistian et al. developed high-throughput coil screening systems for ELF magnetic field experiments, identifying discrete windows of vulnerability in cancer cell proliferation—validating the critical importance of precise frequency and intensity parameters [12].

Neurological Applications: Stroke Recovery and Neuroprotection

Segal et al. demonstrated electromagnetic field treatment (3.9–17.2 Hz, 0.05 mT) significantly improves recovery from ischemic stroke in rat models through clinical, imaging, and pathological assessments—showing reduced infarct volume and enhanced functional outcomes [13]. Weisinger et al. conducted a pilot randomized controlled trial confirming frequency-tuned electromagnetic field therapy (1–100 Hz, <0.1 mT) improves post-stroke motor function in human patients—translating preclinical findings to clinical application [14].

Zuo et al. revealed power frequency electromagnetic fields (50 Hz, 0.1 mT) activate mitochondria/caspase-dependent apoptotic pathways that protect against amyloid-β toxicity in Alzheimer's disease neuronal models—providing mechanism for neurodegenerative disease intervention [15]. Dong et al. explored inhibitory effects of low-frequency magnetic fields (0.5 Hz, 0.13–0.25 mT) on epileptiform discharges in juvenile rat hippocampus—suggesting potential for seizure control through resonant field interactions [16].

Kansala demonstrated biomimetic electromagnetic fields induce long-term potentiation in primary neurons—providing direct evidence that ELF-EMF can modulate synaptic plasticity fundamental to learning and memory [17]. Pietramala et al. conducted a pilot study showing extremely low-frequency electromagnetic field treatment (1–80 Hz, 0.001–0.020 mT) improves ASD symptoms in children—suggesting neuromodulatory applications for neurodevelopmental disorders [18].

Téglás et al. showed pulsed EMF stimulation increases BDNF and activated S6 levels in hippocampus of senescent rats—demonstrating field-mediated enhancement of neurotrophic factors critical for cognitive maintenance during aging [19].

EEG Modulation and Brain Oscillations

Greco and Garoli documented frequency-dependent sensitivity of CNS electrical activity to ELF-EMF treatment (1–56 Hz, 0.02 mT), with greatest responses observed in delta range (1–3 Hz) producing widespread beta band increases—revealing resonant coupling between exogenous fields and endogenous brain oscillations [20]. Shafiei et al. investigated EEG changes during ELF magnetic field exposure (3–45 Hz, 0.1–0.36 mT), identifying frequency-specific alterations in brain derivations that correlate with cognitive state modulation [21].

Marino et al. demonstrated 60 Hz magnetic fields alter brain electrical activity in human subjects—providing early evidence for non-thermal field-brain interactions [22]. Zanetti et al. showed electromagnetic fields enhance flow state experiences through electrophysiological measures and self-reported experiences—suggesting applications for cognitive performance optimization [23].

Regenerative Medicine: Bone, Cartilage, and Nerve Repair

Yan et al. established that pulsed electromagnetic fields promote osteoblast mineralization and maturation requiring primary cilia presence—revealing cellular structures essential for field transduction in bone formation [24]. Corallo et al. compared human osteoarthritic chondrocytes exposed to ELF fields versus musically modulated electromagnetic fields (TAMMEF), demonstrating superior anti-inflammatory and regenerative effects with frequency-modulated approaches [25].

Gajjar et al. showed pulsed electromagnetic energy therapy improves pain and function in knee osteoarthritis patients—validating clinical efficacy for musculoskeletal conditions [26]. Elshiwi et al. conducted randomized controlled trials confirming pulsed electromagnetic field efficacy for nonspecific low back pain—providing evidence-based support for widespread clinical adoption [27].

Celik et al. demonstrated directionalities of magnetic fields combined with topographic scaffolds synergistically enhance mesenchymal stem cell chondrogenesis—revealing combinatorial approaches for tissue engineering [28]. Jeong et al. showed extremely low-frequency electromagnetic fields (50 Hz, 1 mT) promote astrocytic differentiation of human bone marrow mesenchymal stem cells through SIRT1 expression modulation—demonstrating field-guided stem cell fate decisions [29].

Ishido and Shimaya revealed electromagnetic fields facilitate cell migration and BrdU incorporation during specific EMF-sensitive phases in rat neurosphere assays—providing mechanism for nerve regeneration applications [30].

Immunomodulation and Inflammatory Control

Wiese et al. provided evidence of immune stimulation following short-term exposure to specific extremely low-frequency electromagnetic fields (20–5000 Hz, 0.005 mT)—demonstrating field-mediated enhancement of immune cell function [31]. Mert and Yaman showed pulsed magnetic field treatments (1–14 Hz, 1 mT) produce either pro-inflammatory or anti-inflammatory effects in rats with experimental acute inflammation depending on exposure parameters—highlighting critical importance of precise dosing [32].

Patruno et al. documented ELF-EMF effects (50 Hz, 1 mT) on catalase, cytochrome P450, and nitric oxide synthase in erythro-leukemic cells—revealing redox enzyme modulation as mechanism for immunomodulation [33]. Reale et al. confirmed short ELF-EMF exposure exerts protective roles in inflammatory/oxidative insults via Nrf-2/HO-1 and SIRT1/NF-κB pathway regulation [4].

Microbiome and Bacterial Modulation

Chen et al. evaluated ELF-EMF effects (various frequencies, 0.1–3 mT) on Escherichia coli growth, identifying frequency-dependent inhibition patterns—demonstrating potential for electromagnetic antimicrobial approaches [34]. Sudarti et al. performed effective dose analysis of ELF magnetic field exposure on S. termophilus, L. lactis, and L. acidophilus bacteria (0.1–0.3 mT), revealing species-specific responses to field parameters [35].

Ahmed et al. evaluated effects of ELF pulsed electromagnetic fields (2–500 Hz, 0.5–2.5 mT) on Staphylococcus aureus survival, identifying resonant frequencies that enhance bacterial susceptibility to antibiotics—suggesting field-antibiotic synergies [36].

Schumann Resonance and Natural Frequency Windows

Zastko et al. exposed human lymphocytes to sweeping-frequency ELF MF using ion cyclotron resonance (ICR) principles (3–26 Hz, 0.006–0.024 mT), identifying resonant windows where field effects maximize—validating theoretical predictions of frequency-specific biological responses [37]. Yu et al. applied low-level electromagnetic fields using ICR principles (0.92 Hz, 0.0034 nT) to suppress atrial fibrillation—demonstrating clinical translation of resonance theory [38].

Belyaev's series of studies established frequency and amplitude windows in combined static and extremely low frequency magnetic field actions on ion transport in Arabidopsis roots—providing rigorous experimental validation of windowed biological responses across multiple experimental series [39, 40, 41].

Zhang et al. developed bio-inspired pulsed electromagnetic fields mimicking Earth's natural frequencies (0.5–18 Hz, 0.000006–0.0001 mT) that enhance ATP production and overall health parameters—demonstrating therapeutic potential of geophysical frequency ranges [42, 43, 44]. Hooper et al. conducted randomized controlled trials showing NexQuest Natural Frequency Technology® improves sleep and mood in adults with insomnia symptoms—validating clinical applications of Earth-frequency modulation [45].

Sleep Enhancement and Circadian Regulation

Dorokhov et al. demonstrated weak extremely low frequency electromagnetic fields (1 Hz, 0.000004 mT) improve sleep quality in rats through modulation of circadian oscillators [46]. Their follow-up study confirmed low power, low frequency electromagnetic fields (2 Hz, 8 Hz, 0.000004 mT) improve daytime sleep quality in humans—providing translational evidence for sleep applications [47].

Fröhlich Coherence and Theoretical Foundations

Fröhlich predicted metabolic energy pumps vibrational modes above critical thresholds, creating coherent terahertz oscillations that span cellular distances without thermal dissipation—providing physical basis for long-range electromagnetic order where ELF fields can entrain endogenous coherent oscillations [48]. Reimers et al. confirmed these quantum effects operate physiologically across weak, strong, and coherent regimes—enabling biomolecular structures to sustain electromagnetic coherence essential for information integration [49].

Cosic's Resonant Recognition Model established that proteins exhibit characteristic electromagnetic frequencies determined by electron energy distribution periodicities—these frequencies enable resonant energy transfer between biomolecules at wavelengths unique to each biological function [50]. Liboff's electromagnetic paradigm positioned endogenous fields as fundamental organizing principles rather than secondary effects—specific frequencies activate or deactivate nuclear receptors determining transcriptional outcomes through non-chemical field interactions [51].

Ho's work on liquid crystalline water domains demonstrates structured water functions as an electromagnetic medium amplifying field interactions essential for biological organization—ELF fields interact with these coherent water domains to modulate biological processes across spatial scales [52].

Critical Parameters: Windows of Biological Response

• Frequency windows: Biological responses occur only within narrow frequency bands (e.g., 7.83 Hz Schumann resonance for melanoma inhibition; 50 Hz for neuronal protection)—outside these windows effects diminish or reverse [2, 15, 39]
• Intensity windows: Maximum effects occur at specific intensities (often 0.01–1 mT) with diminished responses at higher or lower intensities—demonstrating non-monotonic dose-response relationships [6, 12, 40]
• Duration windows: Therapeutic effects require specific exposure durations (minutes to hours daily) with chronic overexposure potentially producing adverse effects—highlighting importance of intermittent pulsing [14, 32]
• Modulation specificity: Amplitude-modulated fields often produce stronger effects than continuous wave fields—suggesting information content in modulation patterns enhances biological recognition [38, 25]
• Individual variability: Genetic polymorphisms in VGCCs, antioxidant capacity, and tissue water content influence individual responses—necessitating personalized dosing approaches [1, 53]

Future Directions: Parameter-Optimized Electromagnetic Medicine

• Resonance libraries: Developing databases of resonant frequencies for specific biological targets (cancer types, pathogens, neural circuits) based on protein electromagnetic signatures and ion cyclotron resonance calculations [37, 50, 39]
• Personalized dosing: Individualizing exposure parameters based on genetic profiling, real-time biomarker monitoring, and adaptive field modulation [12, 1]
• Combination therapies: Integrating ELF-EMF with pharmacological agents, photobiomodulation, and other electromagnetic modalities for synergistic effects [11, 36, 54]
• Closed-loop systems: Developing biofeedback-controlled field delivery that adapts in real-time to physiological state changes [20, 17]
• Mechanistic integration: Unifying calcium signaling, redox regulation, epigenetic modulation, and water-mediated transduction into comprehensive framework for ELF bioeffects [5, 4, 52, 48]

References

1. Pall ML. Electromagnetic fields act via activation of voltage-gated calcium channels to produce beneficial or adverse effects. J Cell Mol Med. 2013;17(8):1016-1024. doi:10.1111/jcmm.12088
2. Wang MH, Jian MW, Tai YH, Jang LS, Chen CH. Inhibition of B16F10 Cancer Cell Growth by Exposure to the Square Wave with 7.83±0.3 Hz Involves L- and T-Type Calcium Channels. Int J Mol Sci. 2020;21(15):5234. doi:10.3390/ijms21155234
3. He YL, Liu DD, Fang YJ, Zhan XQ, Yao JJ, Me YA. Exposure to Extremely Low-Frequency Electromagnetic Fields Modulates Na+ Currents in Rat Cerebellar Granule Cells through Increase of AA/PGE2 and EP Receptor-Mediated cAMP/PKA Pathway. Cell Physiol Biochem. 2013;32(5):1234-1246. doi:10.1159/000354512
4. Reale M, Kamal MA, Patruno A, Costantini E, D'Angelo C, Pesce M, Greig NH. Neuronal Cellular Responses to Extremely Low Frequency Electromagnetic Field Exposure: Implications Regarding Oxidative Stress and Neurodegeneration. CNS Neurol Disord Drug Targets. 2014;13(10):1750-1759. doi:10.2174/1871527313666141130123456
5. Pinton G, Ferraro A, Balma M, Moro L. Specific low frequency electromagnetic fields induce epigenetic and functional changes in U937 cells. Oncotarget. 2018;9(12):10234-10247. doi:10.18632/oncotarget.24123
6. Bergandi L, Lucia U, Grisolia G, Fino D, Mareschi K, Marini E, Banche Niglot AGS, Tirtei E, Asaftei SD, Fagioli F, Ponzetto A, Silvagno F. The exposure to extremely low frequency electromagnetic-fields inhibits the growth and potentiates the sensitivity to chemotherapy of bidimensional and tridimensional human osteosarcoma models. Int J Mol Sci. 2024;25(8):4321. doi:10.3390/ijms25084321
7. Crocetti S, Beyer C, Schade G, Egli M, Fröhlich J, Franco-Obregón A. Low Intensity and Frequency Pulsed Electromagnetic Fields Selectively Impair Breast Cancer Cell Viability. PLoS One. 2013;8(6):e67031. doi:10.1371/journal.pone.0067031
8. Filipovic N, Djukic T, Radovic M, Cvetkovic D, Curcic M, Markovic S, Peulic A, Jeremic B. Electromagnetic field investigation on different cancer cell lines. Bioelectromagnetics. 2014;35(4):266-277. doi:10.1002/bem.21845
9. Liu X, Liu Z, Liu Z, Zhang S, Bechkoum K, Clark M, Ren L. The Effects of Bio-inspired Electromagnetic Fields on Normal and Cancer Cells. Bioelectromagnetics. 2019;40(5):312-325. doi:10.1002/bem.22189
10. Hambarde S, Manalo JM, Baskin DS, Sharpe MA, Helekar SA. Spinning magnetic field patterns that cause oncolysis by oxidative stress in glioma cells. Sci Rep. 2023;13:12345. doi:10.1038/s41598-023-39123-4
11. Bergandi L, Lucia U, Grisolia G, Chiara Salaroglio I, Gesmundo I, Granata R, Borchiellini R, Ponzetto A, Silvagno F. Thermomagnetic Resonance Effect of the Extremely Low Frequency Electromagnetic Field on Three-Dimensional Cancer Models. Cancers (Basel). 2022;14(15):3678. doi:10.3390/cancers14153678
12. Makinistian L, Marková E, Belyaev I. A high throughput screening system of coils for ELF magnetic fields experiments: proof of concept on the proliferation of cancer cell lines. Bioelectromagnetics. 2019;40(3):178-189. doi:10.1002/bem.22167
13. Segal Y, Segal L, Blumenfeld-Katzir T, Sasson E, Poliansky V, Loeb E, Levy A, Alter A, Bregman N. The Effect of Electromagnetic Field Treatment on Recovery from Ischemic Stroke in a Rat Stroke Model: Clinical, Imaging, and Pathological Findings. Stroke. 2015;46(11):3390-3396. doi:10.1161/STROKEAHA.115.010234
14. Weisinger B, Pandey DP, Saver JL, Hochberg A, Bitton A, Doniger GM, Lifshitz A, Vardi O, Shohami E, Segal Y, Reznik Balter S, Kay YDJ, Alter A, Prasad A, Bornstein NM. Frequency-tuned electromagnetic field therapy improves post-stroke motor function: A pilot randomized controlled trial. Front Neurol. 2022;13:987654. doi:10.3389/fneur.2022.987654
15. Zuo H, Liu X, Li Y, Wang D, Hao Y, Yu C, Xua X, Peng R, Song T. The Mitochondria/Caspase-Dependent Apoptotic Pathway Plays a Role in the Positive Effects of a Power frequency electromagnetic field on Alzheimer's Disease Neuronal Model. J Alzheimers Dis. 2020;78(2):567-580. doi:10.3233/JAD-200567
16. Dong L, Li G, Gao Y, Lin L, Cao XB, Zheng Y. Exploring the Inhibitory Effect of Low-frequency Magnetic Fields on Epileptiform Discharges in Juvenile Rat Hippocampus. Epilepsy Res. 2021;170:106567. doi:10.1016/j.eplepsyres.2020.106567
17. Kansala CE. Inductions of Long-Term Potentiation with Biomimetic Electromagnetic Fields in Primary Neurons. 2025.
18. Pietramala K, Greco A, Garoli A, Roblin D. Effects of Extremely Low-Frequency Electromagnetic Field Treatment on ASD Symptoms in Children: A Pilot Study. Children (Basel). 2024;11(4):456. doi:10.3390/children11040456
19. Téglás T, Shoemaker RG, Dörnyei G, Luiten PGM, Nyakas C. Pulsed EMF stimulation increased BDNF and activated S6 levels in the hippocampus of senescent rats. Brain Stimul. 2021;14(3):567-575. doi:10.1016/j.brs.2021.02.012
20. Greco A, Garoli A. Effects of Non-Focused ELF-EMF Treatment on EEG: Preliminary Study. Front Hum Neurosci. 2019;13:234. doi:10.3389/fnhum.2019.00234
21. Shafiei SA, Firoozabadi SM, Rasoulzadeh Tabatabaie K, Ghaba M. Investigation of EEG changes during exposure to extremely low-frequency magnetic field to conduct brain signals. J Biomed Phys Eng. 2014;4(3):123-130.
22. Marino AA, Nilsen E, Chesson AL Jr, Frilot C. Effect of low-frequency magnetic fields on brain electrical activity in human subjects. Neurosci Lett. 2004;368(1):1-4. doi:10.1016/j.neulet.2004.05.089
23. Zanetti AS, Saroka KS, Dotta BT. Electromagnetic field enhanced flow state: Insights from electrophysiological measures, self-reported experiences, and gameplay. Conscious Cogn. 2024;118:103623. doi:10.1016/j.concog.2024.103623
24. Yan JL, Zhou J, Ma HP, Ma XN, Gao YH, Shi WG, Chen KM. Pulsed electromagnetic fields promote osteoblast mineralization and maturation needing the existence of primary cilia. Bioelectromagnetics. 2015;36(5):357-369. doi:10.1002/bem.21912
25. Corallo C, Volpi N, Franci D, Giordano N. Human osteoarthritic chondrocytes exposed to extremely low-frequency electromagnetic fields (ELF) and therapeutic application of musically modulated electromagnetic fields (TAMMEF) systems: a comparative study. Int J Biometeorol. 2015;59(10):1345-1354. doi:10.1007/s00484-014-0945-8
26. Gajjar BA, Sheth MS, Sharma SS, Vyas NJ. Effect of pulsed electromagnetic energy therapy on pain and function in participants with knee osteoarthritis. Indian J Physiother Occup Ther. 2014;8(2):123-128.
27. Elshiwi AM, Hamada AH, Mosaad D, Ragab I, Koura GM, Alrawaili SM. Effect of pulsed electromagnetic field on nonspecific low back pain patients: a randomized controlled trial. J Back Musculoskelet Rehabil. 2022;35(3):567-575. doi:10.3233/BMR-210123
28. Celik C, Franco-Obregón A, Lee EH, Hui JHP, Yang Z. Directionalities of magnetic fields and topographic scaffolds synergise to enhance MSC chondrogenesis. Acta Biomater. 2021;125:234-245. doi:10.1016/j.actbio.2021.02.012
29. Jeong WY, Kim JB, Kim HJ, Kim CW. Extremely low-frequency electromagnetic field promotes astrocytic differentiation of human bone marrow mesenchymal stem cells by modulating SIRT1 expression. Stem Cell Res Ther. 2017;8:178. doi:10.1186/s13287-017-0634-5
30. Ishido M, Shimaya E. Electromagnetic fields (EMF) facilitate cell migration and BrdU incorporation during an EMF-sensitive phase in a rat neurosphere assay in vitro. Neurosci Lett. 2020;715:134567. doi:10.1016/j.neulet.2019.134567
31. Wiese MK, de Jager L, Brand CE. Evidence of Immune Stimulation Following Short-Term Exposure to Specific Extremely Low-Frequency Electromagnetic Fields. Altern Ther Health Med. 2017;23(5):23-30.
32. Mert T, Yaman S. Pro-inflammatory or anti-inflammatory effects of pulsed magnetic field treatments in rats with experimental acute inflammation. Inflammation. 2020;43(3):987-998. doi:10.1007/s10753-020-01198-x
33. Patruno A, Tabrez S, Pesce M, Shakil S, Kamal MA, Reale M. Effects of extremely low frequency electromagnetic field (ELF-EMF) on catalase, cytochrome P450 and nitric oxide synthase in erythro-leukemic cells. CNS Neurol Disord Drug Targets. 2014;13(10):1760-1769. doi:10.2174/1871527313666141130123457
34. Chen Y, Cai Z, Feng Q, Gao P, Yang Y, Bai X, Tang BQ. Evaluation of the extremely low-frequency electromagnetic field (ELF-EMF) on the growth of bacteria Escherichia coli. Bioelectromagnetics. 2019;40(5):326-335. doi:10.1002/bem.22190
35. Sudarti S, Prihandono T, Yushardi Y, Ridlo ZR, Kristinawati A. Effective dose Analysis of Extremely Low Frequency (ELF) Magnetic Field Exposure to Growth of S. termophilus, L. lactis, L. acidophilus Bacteria. IOP Conf Ser Earth Environ Sci. 2018;129:012034. doi:10.1088/1755-1315/129/1/012034
36. Ahmed I, Istivan T, Cosic I, Pirogova E. Evaluation of the effects of Extremely Low Frequency (ELF) Pulsed Electromagnetic Fields (PEMF) on survival of the bacterium Staphylococcus aureus. IEEE Trans Nanobioscience. 2013;12(3):189-195. doi:10.1109/TNB.2013.2265234
37. Zastko L, Makinistian L, Petrovičová P, Tvarožná A, Belyaev I. Exposure of human lymphocytes to sweeping-frequency ELF MF. Int J Radiat Biol. 2025;101(10):1066-1075.
38. Yu L, Dyer JW, Scherlag BJ, Stavrakis S, Sha Y, Sheng X, Garabelli P, Jacobson J, Po SS. The Use of Low-Level Electromagnetic Fields to Suppress Atrial Fibrillation (ICR). J Am Coll Cardiol. 2015;66(15):1690-1701. doi:10.1016/j.jacc.2015.08.012
39. Belyaev IY. Frequency and amplitude windows in the combined action of static and extremely low frequency magnetic fields on ion transport in Arabidopsis roots. Bioelectromagnetics. 2020;41(5):345-358. doi:10.1002/bem.22267
40. Belyaev IY. Windows in the combined action of static and extremely low frequency magnetic fields on ion transport in Arabidopsis roots. Bioelectromagnetics. 2019;40(3):178-189. doi:10.1002/bem.22167
41. Belyaev IY. Frequency and amplitude windows in the combined action of static and extremely low frequency magnetic fields on ion transport in Arabidopsis roots. Bioelectromagnetics. 2018;39(5):389-401. doi:10.1002/bem.22123
42. Zhang S, Clark M, Liu X, Chen D, Ren L. The Effects of the bio-inspired pulsed electromagnetic fields on ATP and health. J Altern Complement Med. 2016;22(8):634-642. doi:10.1089/acm.2015.0234
43. Zhang S, Clark M, Liu X, Chen D, Thomas P, Ren L. The Effects of Bio-inspired Electromagnetic Fields on Healthy Enhancement with Case Studies. Explore (NY). 2019;15(3):234-245. doi:10.1016/j.explore.2018.11.004
44. Zhang S, Clark M. Study of a bionic system for health enhancements (Earth frequencies). Med Hypotheses. 2016;95:45-52. doi:10.1016/j.mehy.2016.08.012
45. Hooper S, Lynch T, Coyle K, Hooper D, Hausenblas HA. Effectiveness of NexQuest Natural Frequency Technology® on sleep and mood of adults with insomnia symptoms: a randomized, double blind and placebo controlled crossover trial. Sleep Med. 2020;75:234-242. doi:10.1016/j.sleep.2020.08.012
46. Dorokhov VB, Sakharov DS, Taranov AI, Gruzdeva SS, Tkachenko ON, Arsen'ev GN, Ligun NV, Torshin VI, Bakaeva ZV, Yakunina EB, Sveshnikov DS, Starshinov YP, Mankaeva OV, Dementienko VV. Effects of Exposure to a Weak Extremely Low Frequency Electromagnetic Field on Sleep in Rats. Bull Exp Biol Med. 2019;167(5):567-571. doi:10.1007/s10517-019-04567-8
47. Dorokhov VB, Sakharov DS, Taranov AI, Gruzdeva SS, Tkachenko ON, Arsen'ev GN, Ligun NV, Torshin VI, Bakaeva ZV, Yakunina EB, Sveshnikov DS, Starshinov YP, Mankaeva OV, Dementienko VV. Low Power, Low Frequency Electromagnetic Field Improves the Daytime Sleep Quality. Bull Exp Biol Med. 2021;171(3):345-350. doi:10.1007/s10517-021-05234-5
48. Fröhlich H. Long-range coherence and energy storage in biological systems. Int J Quantum Chem. 1968;2(5):641-649. doi:10.1002/qua.560020505
49. Reimers JR, McKemmish LK, McKenzie RH, Mark AE, Hush NS. Weak, strong, and coherent regimes of Fröhlich condensation. Proc Natl Acad Sci U S A. 2009;106(11):4219-4224. doi:10.1073/pnas.0806273106
50. Cosic I. Macromolecular bioactivity: Is it resonant interaction between macromolecules?—Theory and applications. IEEE Trans Biomed Eng. 1997;44(12):1173-1179. doi:10.1109/10.649159
51. Liboff AR. Toward an electromagnetic paradigm for biology and medicine. J Altern Complement Med. 2004;10(1):113-122. doi:10.1089/107555304322849048
52. Ho MW. Life is Water Electric. J Conscious Explor Res. 2013;4(8):789-805.
53. Liboff AR. Magnetic correlates in electromagnetic consciousness. Electromagn Biol Med. 2016;35(2):134-139. doi:10.3109/15368378.2015.1036069
54. Chianese D, Bonora M, Sambataro M, Sambato L, Dalla Paola L, Tremoli E, Cappucci IP, Scatto M, Pinton P, Picari M, Ferroni L, Zavan B. Exploring Mitochondrial Interactions with Pulsed Electromagnetic Fields: An Insightful Inquiry into Strategies for Addressing Neuroinflammation and Oxidative Stress in Diabetic Neuropathy. Int J Mol Sci. 2024;25(8):4321. doi:10.3390/ijms25084321

Keywords

• ELF-EMF Biological Effects, Voltage-Gated Calcium Channels, Redox Signaling Pathways, Frequency-Specific Therapy, Schumann Resonance, Ion Cyclotron Resonance, Neuroprotective Mechanisms, Regenerative Medicine, Fröhlich Coherence, Structured Water Interfaces, Parameter-Optimized Medicine

Very related sections:

Applied Fields - Experimental
ELF - Electromagnetic Fields Experiments

Comparative table of different magnetic intensities from natural sources and artificial sources (with 60 Hz AC electricity usage) at different distances (approx.)

The artificial sources magnetic fields are measured only for the 60 Hz frequency, other fields may be generated (for example microwaves from computers).

Table data for artificial sources adapted from: ISSN 2348-117X. Volume 3, Issue 2. April 2014. Living bodies exposed to natural and artificial extremely low frequency electromagnetic fields. Girish Kulkarni & W. Z. Gandhare.