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Scientific Research

Phield (Physiologic Field) Science Summary: Improving Quality Of Life

Evidence

BioResonance/MyPhield double blind clinical study evidence (August 2010)

With assistance from Canada's National Research Council, BioResononce/MyPhield technology was tested in a robust double blind clinical study and has been shown to provide real and significant effects, particularly in improved physical functioning and health and perceived pain reduction compared to the placebo control group. A copy of this study report is available from care@MyPhield.com

Clinical study evidence is science's best test to establish “truth.” We have subjected ourselves to this rigorous test because our experience with this technology has shown that we are capable of improving quality of life for those who suffer from joint problems, and potentially many other afflictions.

Complementary / Alternative Medicine (CAM) practices are not generally accepted by the mainstream medical and scientific communities because they fail to pass that test, a double-blinded, placebo controlled clinical study (although there are some interesting exceptions, including the Transcutaneous Electrical Nerve Stimulation (TENS) device, a questionable physiotherapy treatment with little supporting evidence). In an effort to establish scientific truth, we chose to prove that our technology is an effective and safe intervention in the treatment of osteoarthritis of the lower back in a robust clinical study. The quality of the scientists and institutions undertaking this research is impressive. Positive results from this study should eventually lead to mainstream acceptance.  More evidence will allow us to do more good for more people more quickly. In the meantime, until we gain mainstream medical acceptance, we offer our technology (MyPhield) to the Complementary and Alternative Medicine market.

Researchers have been exploring the effects of exposure to all sources of electromagnetic radiation for decades. Considering Cleopatra’s use of a lodestone necklace you could argue that magnetic therapy has been in use for centuries.  For our purposes, the important research into physiologic electromagnetic fields began with the discovery of their existence by Cohen in 1968. Our Intellectual Property (IP) is supported by subsequent experimental data, studies, theorems and discoveries relevant to these physiologic fields that we have compiled from researchers from all over the globe. Together with our pain clinic experience (over 10,000 therapeutic treatments) a great deal of anecdotal evidence supports the importance of our technology.

We endeavor to establish scientific “truth” with our well supported clinical study in order to gain mainstream market acceptance. We use the existing mountain of anecdotal evidence to support our entry to the world’s CAM markets. 

Experience Counts

In March 2002, a University of Manitoba statistics professor compiled data from 1488 treatments provided at the BioResonance Pain Relief Center. Statistically significant positive changes occurred in more than 80% of patients for the following parameters:

  • Stiffness indicator
  • Mobility indicator
  • Tension indicator
  • Exit level pain measure

We have now provided over ten thousand treatments with consistently positive results, and no contraindications (side effects). The responses from patients have been particularly gratifying and incredibly motivating:

“I can play bridge, work in my garden, pick up my grandchild, or wear my wedding rings again.” Aileen says, “If it wasn’t for BioResonance treatments I’d be housebound. I can do more, go out more, sleep better, and able to accept invitations without hesitation because I know I’ll be able to go. I’m very, very pleased with the results and have absolutely no hesitation in recommending the treatments to anyone.” She has suffered from osteoarthritis in both knees for 30 years. She takes celebrex and wants to decrease the dosage. She is looking into bilateral knee replacements. She has been in for 48 treatments in 3 years. While she was on the surgical waiting list she decreased her celebrex intake by half and was able to maintain her quality of life. Her doctors were amazed she was still standing let alone decreasing her medication and walking after they saw the shape her knees were in. After surgery she was their star patient and recovered very quickly. She says she could not have kept her sanity during the waiting period without BioResonance.

Monique is a 42 year old female who, after injuries from a car accident 10 years ago, was diagnosed with osteoarthritis in her cervical spine causing constant severe pain and headaches that limit her ability to work. After a series of BioResonance treatments she emailed us: “Thanks again for the other day. Muscles are better today and neck is still good. Does that mean that the bones are healing? Don’t even need to see the chiro that much anymore, and haven’t seen the acupuncturist for ages. The treatments are a godsend. Can’t tell you how much I appreciate the therapy. Too bad people are still so damned cheap that they would not try it (Or maybe just too busy for taking care of themselves) I tell EVERYBODY about the clinic. Hang in there! And keep up the good work.

Jayne, a 17 year old female with severe migraines triggered by anxiety, loud sounds, bright lights, had seen her family doctor, a neurologist, and finally a psychiatrist. They told her that she had to live with the pain. She stopped attending school because she missed too many classes. After a series of BioResonance treatments she no longer suffers from uncontrollable migraines. When she gets stressed the pressure in her head increases but is easily controlled by Advil. She is now catching up in a public school and her quality of life is what a 17 year old life should be. Jayne says, “The pain level was not reduced with medication, but since “Bio” I can control the level of headaches with a 222. It also helped in reducing my poor sleeping pattern because I was no longer woken up by severe headache pain.”

A very interesting result from Nancy, who suffers from advanced Multiple Sclerosis and Fibromyalgia, indicates why some researchers have noticed positive changes to the symptoms of patients with neurological disorders when exposed to similar electromagnetic fields (some of their research is summarized below along with other supportive research). Over a one week period Nancy underwent two treatments per day for Fibromyalgia. She reported dramatic changes to her MS symptoms as the week progressed. She writes, “It feels so nice to be able to walk more steadily and feel the ground under my feet. The numbness in my hands has decreased dramatically and they also have improved dexterity. My cognitive function has improved much, my balance seems better and rectal sensation has improved too.” She adds, “You made a difference in my life. I don’t know if I will ever see you again (she lives in New York), but I will never forget you. You will always have a special place in my heart.”

 

 

Physiologic Fields (Phields) – Essential to Homeostasis

 

Very weak (nanoGauss) electromagnetic fields are produced by the electrical impulses of nerve and muscle fibers and by the myriad of chemical reactions that consatantly occur in our living bodies. The magnitude of this coherent, measurable force increases when we are physically and/or mentally active. When we expose disordered/diseased tissue to precisely the same fields generated by healthy tissue a therapeutic response occurs. We know precisely which Phields affect the various tissues and we know how and when to use them. We have theories as to why they work, but the “why” is not nearly as important as the “how” at this time. We hope to attract brighter minds to tackle the “why” issue as we publish our data.

Interestingly, apart from increasing physical and/or mental activities, there appear to be two other nurturing circumstances when we benefit from exposure to these Phields:

1)       In the womb, where we are totally immersed in maternal physiologic fields, and;

2)       when we are in very close proximity to others (touching).

There is so much more to be theorized, researched and discovered; so many more peoples’ quality of life to be enhanced. We are determined to lead the way.

Supporting Research

There is significant supporting evidence from other researchers who have used similar fields specifically in the study of nerve growth and repair, neurological disorders, and arthritis:

Nerve Repair & Re-growth In-vitro study showing human nerve regeneration and molecular genetic regulation. Physiological and molecular genetic effects of time-varying electromagnetic fields on human neuronal cells; Thomas J. Goodwin, Ph.D. Lyndon B. Johnson Space Center; NASA/TP-2003-212054; September 2003

Nerve Repair & Re-growth In-vitro and in-vivo (mice) Nerve Repair & Re-growth studies, Dr. Anjali Saxena, Fairleigh Dickinson University, and, Dr. Brij Saxena, Cornell Medical College, started in 1998, ongoing. Results published in Medical Hypotheses (2003) 60(6), 821-839.

Neurological Disorder Pico Tesla magnetic therapy reduces symptoms of epilepsy, Parkinson's disease, depression, MS, migraine headache without side effects or expected/unexpected adverse reactions in Alexandroupolis, Greece; 1997.

Knee Osteoarthritis multi-site Institutional Review Board (IRB) randomized double-blind clinical study, completed in 1999. 176 patients completed a double blind, randomized and placebo controlled study showing 97% success in reducing chronic pain secondary to knee osteoarthritis (in the statistically significant group, p < 0.001 in 96 of 101 experimental patients). 53.25% pain reduction was noted.

Knee Osteoarthritis randomized double-blind clinical study at the Hospital Costa del Sol, Marbella, Spain, completed in 2000. In 86 patients, utilizing only one treatment session, the average level of pain reduction in those treated was 81%. All patients (100%) receiving treatment received statistically significant benefit. P<0.000. 

Knee Osteoarthritis clinical study at the Hospital Costa del Sol, Malaga, Spain in 2002. 86 patients were treated, concluding, a substantial reduction of pain that is clinically relevant and statistically significant (p 0.001); 1999. 

Neck Osteoarthritis (Cervico-Arthritis) clinical study at the Hospital Costa del Sol, Malaga, Spain in 2003. 27 patients included in the study that concludes: substantial reduction of pain, clinically relevant and statistically significant. No side effects reported; 1999.

Knee Osteoarthritis Clinical experience in pain reduction at the Hospital 12 de Octubre, Madrid.. 63 knees, 56 patients treated concludes: 62% pain reduction (p=0.0000); 1999.

Knee Osteoarthritis observational study of clinical experience at the Clínica tratamiento dolor Málaga, Spain in pain reduction.12 patients treated concluding: 78 % pain reduction to 0 (zero) after 7.42 treatments on average; 1999.

Chronology of Related Articles & Research

The history of research on physiologic picoTesla electromagnetic fields since their 1968 discovery:

Cohen, D. (1968): Magnetoencephalography: Evidence of magnetic fields produced by alpha-rhythm currents. Science 161:784-786.

Cohen, D. (1970): Magnetoencephalography: Detection of the brain's electrical activity with superconducting magnetometer. Science 175:664-666.

Cohen, D., Edelsack, E.A., Zimmerman, J.E. (1972): Magnetocardiograms taken inside a shielded room with a superconducting point contact magnetometer. Applied Physics Letters 16:278-280.

Brenner, D., Williamson, S.J., Kaufman, L. (1975): Visually evoked magnetic fields of the human brain. Science 190:480-482.

DeLorge, J. (1979): Effects of Magnetic Fields on Behav¬ior in Nonhuman Primates, In T. Tenforde (Ed.), "Mag¬netic Field Effects in Biological Systems", New York: Plenum Press, (p. 32).

Adey, W. R. (1981): "Tissue Interactions with Nonioniz¬ing Electromagnetic Fields", Physiological Review, 61, 435-514.

Borgens, R.B., Roederer, E., Cohen, M.J. (1981): Enhanced spinal cord regeneration in lamprey by applied electric fields. Science 213(7):611-617.

Hinkle, L., McCaig, C.D., Robinson, K.R. (1981): The direction of growth of differentiating neurons and myoblasts from frog embryos in an applied electric field. J Physiol 314:121-135.

Dixey, R., Rein, G. (1982) "H-noradrenaline Release Potentiated in a Clonal Nerve Cell Line by Low Inten¬sity Pulsed Magnetic Fields", Nature, 296, 253-256.

Cremer-Bartels, G., Krause, K., Kuechle, J. J. (1983): "Influence of Low Magnetic Field-Strength Variations on the Retina and Pineal Gland of Quails and Humans", Graefe's Archives of Clinical and Experimental Ophthal¬mology, 220,248-252.

Reuss, S., Semm, P., Vollrath, L. (1983): "Different Types of Magnetically Sensitive Cells in the Rat Pineal Gland", Neuroscience Leiiers, 40, 23-26.

Welker, H. A., Semm, P., Willig, R. P., Comment, J. C., Wiltsehko, W., Vollrath, L. (1983): "Effects of an Artificial Magnetic Field on Serotonin N-acetyltransfe¬rase Activity and Melatonin Content of the Rat Pineal Gland", Experimental Brain Research, 50,426-432.

Liboff, A.R., Strong, D.M., Williams, T., Wister, R. (1984): Post electromagnetic field enhanced DNA synthesis. Science 223:818-820.

Liboff, A.R. (1985): Cyclotron resonance in membrane transport. Interactions between Electromagnetic Fields and Cells. (Chiabrera, Niocolini, Schwan, eds.) pp. 281-296.

Anninos, P.A., Kokkinidis, M., Hoke, M., Pantev, C., Lehnertz, K., Lutkenhoner, B. (1986) MEG measurements with SQUID as a diagnosetic tool for epileptic patients. Brain Res Bull;16(4):549-51.

Adey, W.R. (1986): The sequence of cell membrane transductive coupling to intracellular enzyme systems. Bioelectrochem. Bioenergetics. 15:447-56.

Borgens, R.B. (1986): The role of natural and applied electric fields in neuronal regeneration and development. Ionic Currents in Development (McGinnis and Vanable, eds.), Alan R. Liss (ed.) (New York), pp. 239-250.

Borgens, R.B., Blight, A.R., Murphy, D.J., Stewart, L. (1986): Transected dorsal column axons within the guinea pig spinal cord regenerate in the presence of an applied electric field. J Comp Neurol 250:168-180.

Borgens, R.B., Blight, A.R., Murphy, D.J. (1986): Axonal regeneration in spinal cord injury: A perspective and new technique. J Comp Neurol 250:157-167.

Jacobson, J.I. (1986): Gravitational and electromagnetic interaction energies in dual resonance. Ind J. Theor. Phys. 34: (8) 231-239.

Heumann, R., Korsching, S., Bandtlow, Thoenen, I.L. (1987): Changes of nerve growth factor synthesis in non-neuronal cells in response to sciatic nerve transection. Journal of Cell Biol. 104:1623-1631.

Anninos, P.A., Anogianakis, G., Lehnertz, K., Pantev, C., Hoke, M. (1987) Biomagnetic measurements using squids. Int J Neurosci;37(3-4):149-68

Williamson, S.J., Kaufman, L. (1987): Methods of Analysis of Brain Electrical and Magnetic Signals; EEG Handbook (revised series) vol. 1. (A.S. Gevins and A. Remond, eds.). Elsevier Science Publishers, Neuromagnetics Laboratory Dept. of Physics and Psychology, New York University.

Goodman, I.T., Henderson, A.S. (1988): Exposure of salivary gland cells to low frequency electromagnetic fields alters polypeptide synthesis. Proc. Natl. Acad Sci., USA. 85:3928-3932.

Anninos, P.A., Vartzopoulos, I., Razism, N., Anogianakis, G. (1989) Evaluation of epileptic patients by means of magnetoencephalography. Int J Neurosci;45(3-4):283-9

Anninos, P.A., Tsagas, N. (1989): Localization and cure of epileptic foci with the use of MEG measurements. Intl. J. Neurosci. 46:235-242.

Goodman, R. and Henderson, A.S. (1989): Exposure of cells to low frequency electromagnetic results in quantitative changes in transcripts. Biochem. Biophys. Acta 1009:216-220.

Anastasiadis, P.G., Anninos, P.A., Koutsougeras, G.C., Liberis, V.A., Galazios, G.C., Sivridis, E.L. (1989) Biomagnetic measurements in uterine leiomyomas using a superconducting quantum interference device (SQUID). Int J Gynaecol Obstet;29(1):47-9

Goodman, R., Henderson, A.S. (1990): Exposure of cells to extremely low frequency electromagnetic fields: relationship to malignancy? Cancer Cells 2:355-359.

Borgens, R.B., Blight, A.R., McGinnis, M.E. (1990): Functional recovery after spinal cord hemisection in guinea pigs: The effects of applied electric fields. J Comp Neurol 296:634- 653.

Kepler et al. (1990): reported the effects of the neurons with oscillatory properties on the composite of neural networks. 

Kepler, T.B., Marder, E., Abbott, L.F. (1990): The effect of electrical coupling on the frequency of model neuronal oscillators. Science 24:83-85.

Sandyk, R., Anninos, P.A., Tsagas, N. (1991) Age-related disruption of circadian rhythms: possible relationship to memory impairment and implications for therapy with magnetic fields. Int J Neurosci;59(4):259-62

Anninos, P.A., Tsagas, N., Sandyk, R. (1991): Magnetic stimulation in the treatment of partial seizures. Inil. J. Neurosci. 60:141-171.

Goodman, R., Henderson, A.S. (1991): Transcription in cells exposed to extremely low frequency electromagnetic fields: A review. Bioelectrochem Bioenergei. 25:335-355.

Lyte, M., Gannon, J.E., O'Clock, G.D. Jr. (1991): Effects of in vitro electrical stimulation on enhancement and suppression of malignant lymphoma cell proliferation. JNCI 83:116-119.

Alderson, F., Miller, D., Murphy, R. A. (1991): Detection of brain- derived neurotrophic factor- like activity in fibroblasts and Schwann cells. Inhibition by antibodies to NGF. Neuron. 7: 265-275.

Sandyk, R. (1992): Magnetic fields in the therapy of Parkinsonism. Intl. J. Neurosci. 66:209-235.

Sandyk, R. (1992): Successful treatment of multiple sclerosis with magnetic fields. Intl. J. Neurosci. 66:237-250.

Sandyk, R., Anninos, P.A. (1992) Attenuation of epilepsy with application of external magnetic fields: a case report. Int J Neurosci;66(1-2):75-85

Sandyk, R., Tsagas, N., Anninos, P.A., Derpapas, K. (1992) Magnetic fields mimic the behavioral effects of REM sleep deprivation in humans. Int J Neurosci;65(1-4):61-8

Sandyk, R., Anninos, P.A. (1992) Magnetic fields alter the circadian periodicity of seizures. Int J Neurosci;63(3-4):265-74

Sandyk, R., Anninos, P.A., Tsagas, N., Derpapas, K. (1992) Magnetic fields in the treatment of Parkinson's disease. Int J Neurosci;63(1-2):141-50

Sandyk, R., Anastasiadis, P.G., Anninos, P.A., Tsagas, N. (1992) The pineal gland and spontaneous abortions: implications for therapy with melatonin and magnetic field. Int J Neurosci;62(3-4):243-50. 

Thodis, E., Anninos, P.A., Pasadakis, P., Adamopoulos, A.V., Panagoutsos, S., Vargemezis, V. (1992) Evaluation of CNS-function in CAPD patients using magnetoencephalography (MEG): comparison with hemodialysis patients.  Adv Perit Dial;8:181-4

Goodman, R., Wei, L.X., Burnam, J., Henderson A.S. (1992): Exposure of human cells to electromagnetic fields: Effect of time and field strength on transcript levels. J. Electro. Magnetibiol. 11:19-28.

Valentini, R.F., Vargo, T.G., Gardella, J.A. Jr., Aebischer, P. (1992): Electrically charged polymeric substrates enhance nerve fibre outgrowth in vitro. Biomat 13(3):183-190.

Adey, W.R. (1992): Interaction Mechanisms of Low-Level Electromagnetic Fields in Living Systems. New York; Oxford University Press. pp.47-77

Sandyk, R. (1993): "Resolution of Longstanding Symptoms of MS by Application of picoTesla Range Magnetic Fields" Internal Jrnl Neuroscience, vol. 70, pp. 255-269.

Sandyk, R. (1993): "Magnetic Fields Normalize visual Evoked Potentials and Brainstem Auditory Evoked Potentials in MS", Internal Jrnl Neuroscience.

Sandyk, R. (1993): "Successful Treatment of an Acute Axacer¬bation of MS by External Magnetic Fields", Internal Jrnl of Neuroscience.

Makohliso, S.A., Valentini, R.F., Aebischer, P. (1993): Magnitude and polarity of a fluoroethylene propylene electret substrate charge influences neurite outgrowth in vitro. J Biomed Mat Res 27:1075-1085.

Valentini, R.F., Vargo, T.G., Gardella, J.A. Jr., Aebischer, P. (1993): Patterned neuronal attachment and outgrowth on surface modified, electrically charged fluoropolymer substrates. J Biomat Sci Polymer Edn 5(I/2):13-36.

Adey, W.R. (1993): Whispering between cells: Electromagnetic fields and regulatory mechanisms in tissue. Frontier Perspectives 3(2), 21-25.

Blank, M., Soo, L. (1993): The Na, K-ATPase as a model for electromagnetic field effects on cells. Bioelectrochem Bioenergetics 30:85-92.

Yamaguchi, H., Hosokawa, K., Soda, A., Mizamoto, I.L., Kinouchi, Y. (1993): Effects of seven months of exposure to a static magnetic field on growth and glycolytic activity of human gingival fibroblast Biochem. Biophys. Acta. 1156:302-306.

Borgens, R.B., Shi, R., Mohr, T.J., Jaeger, C.B. (1994): Mammalian cortical astrocytes align themselves in a physiological voltage gradient. Exp. Neurol 128:41-49.

Don, Z., Brennan, A., Liu, N., Yarden, Y., Lefkowitz, G., Mirsky, R, Lessen, K. R. (1995) New differentiation factor in a neuron-glia signal and regulates survival, proliferation and maturation of rat Schwann cell precursors. Neuron. 15:585-596.

Brustle, O., McKay, R.D.G. (1996): Neuronal progenitors as tools for cell replacement in the nervous system. Current Opinion in Neurobiol 5:688-695.

Borgens, R.B., Bohnert, D.M. (1997): The responses of mammalian spinal axons to an applied DC voltage gradient. Exp Neurol 145:376-389.

Anninos, P.A., Jacobson, J., Tsagas, N., Adamopoulos, A. (1997) Spatiotemporal stationarity of epileptic focal activity evaluated by analyzing magnetoencephalographic (MEG) data and the theoretical implications. Panminerva Med;39(3):189-201

Anninos, P.A., Anastasiadis, P., Kotini, A. (1998) Nonlinear Analysis of Biomagnetic Signals Recorded from Uterine Arteries. Journal Of Maternal-Fetal Investigation;8(4):178-184

Anninos, P.A., Tsagas, N., Jacobson, J.I., Kotini, A. (1999) The biological effects of magnetic stimulation in epileptic patients. Panminerva Med;41(3):207-15

Anninos, P.A., Anastasiadis, P., Kotini, A. (1999) Nonlinear analysis of biomagnetic signals recorded from the umbilical artery in normal and pre-eclamptic pregnancies. Eur J Obstet Gynecol Reprod Biol;85(2):159-65

Jacobson, J. I., Yamanashi, W. S., Saxena, A., Bennett, B., Parekh, P., Shin, D., Saxena, B.B. (2000) Effect of magnetic fields on damaged mice sciatic nerve. Administrative Radiology Journal XIX: No III/IV, 22-25.

Anninos, P.A., Adamopoulos, A.V., Kotini, A., Tsagas, N. (2000) Nonlinear analysis of brain activity in magnetic influenced Parkinson patients. Brain Topogr;13(2):135-44

Anninos, P.A., Kotini, A., Koutlaki, N., Adamopoulos, A., Galazios, G., Anastasiadis, P. (2000) Differential diagnosis of breast lesions by use of biomagnetic activity and non-linear analysis. Eur J Gynaecol Oncol;21(6):591-5

Anastasiadis, P., Anninos, P.A., Kotini, A., Avgidou, K., Galazios, G., Liberis, V. (2001) SQUID biomagnetometry of the uterine arteries in normal and pre-eclamptic pregnancies. J Perinat Med;29(5):433-41 

Jacobson, J.I., Gorman, R., Chaviano, F., Yamanashi, W. S., Grinberg, I., Dayton, M., Haltiwanger, S., Saxena, B. B., Walters, B., Clayton, L., Lamberth, J. (2001) PicoTesta range magnetic fields tested in four site double blind clinical study for treatment of osteoarthritic knees. Gazzetta Medico Italiano-Archivio Per Le Sclera. Mediche 160:1- 20.

Goodwin, T.J. (2003) Physiologic and molecular genetic effects of time-varying electromagnetic fields on human neuronal cells. NASA/TP-2003-212054.

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