Title :
Milligauss magnetic field triggering reliable self-organization of water with long-range ordered proton transport through cyclotron resonance
Author :
Mohri, Kaneo ; Fukushima, Masanori
Author_Institution :
Graduate Sch. of Engneering, Nagoya Univ., Japan
Abstract :
Reliable experimental results were obtained using a small magnetic field of several milligauss in amplitude and twin cyclotron resonance frequencies for electrical resistivity decreasing phenomena in highly purified water and forming a highly stable water for resistivity showing a small change with a limit cycle for the water temperature variations. The effect of the twin frequency field was predicted from a water self-organization model in which long-range ordered proton transport paths were formed by gathering same size hydromolecular clusters through cluster cyclotron resonance with an external applied ac magnetic field under the geomagnetic field. Measurements of the O17-nuclear magnetic resonance supports the self-organization model with a wider resonance curve for magnetized water. The milligauss field with twin cyclotron frequencies is generated using an amplitude over modulation waveform in a function generator and is widely applicable to activate various bio effects in living bodies.
Keywords :
biomagnetism; cyclotron resonance; ionic conductivity; liquid structure; magnetic field effects; molecular clusters; nuclear magnetic resonance; water; 7.0 Hz; 8.4 Hz; O17-nuclear magnetic resonance; amplitude over modulation waveform; bio effects; blood flow promotion; cluster cyclotron resonance; cyclotron resonance; electric resistivity decreasing phenomena; external applied ac magnetic field; geomagnetic field; highly purified water; hydromolecular clusters; limit cycle; living bodies; long-range ordered proton transport; milligauss magnetic field triggering; reliable self-organization; small magnetic field; twin frequency field; water; water temperature variations; Conductivity; Cyclotrons; Electric resistance; Limit-cycles; Magnetic field measurement; Magnetic fields; Magnetic resonance; Protons; Resonant frequency; Temperature;
Journal_Title :
Magnetics, IEEE Transactions on
DOI :
10.1109/TMAG.2003.816766