The possible role of active oxygen in the Memory of Water

Vladimir L. Voeikov

doi:10.1016/j.homp.2007.05.003

Homeopathy, Table of Contents

Homeopathy 2007; 96(03): 196-201
DOI: 10.1016/j.homp.2007.05.003

The possible role of active oxygen in the Memory of Water

Vladimir L. Voeikov

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Abstract

Phenomena of long-term ‘memory of water’ imply that aqueous systems possessing it remain for a long period after the initial perturbation in an out-of equilibrium state without a constant supply of energy from the environment. It is argued here that various initial perturbations initiate development of a set of chain reactions of active oxygen species in water. Energy, in particular high grade energy of electronic excitation, released in such reactions can support non-equilibrium state of an aqueous system. In principle, such reactions can continue indefinitely due to specific local structuring of water with even minute ‘impurities’ that are always present in it and by continuous supply of oxygen amounts due to water splitting. Specific properties of several real aqueous systems, in particular, homeopathic potencies in which such processes could proceed, are discussed. The role of coherent domains in water in maintenance of active oxygen reactions and in emergence of oscillatory modes in their course is considered.

Keywords

active (reactive) oxygen species - water splitting - electronic excitation - homeopathy - nanoparticles - coherent domains

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References

References
1 Zheng J., Pollack G.H. Solute exclusion and potential distribution near hydrophilic surfaces. in: Pollack G.H., Cameron I.L., Wheatley D.N. Water and the Cell. 2006. Dordrecht: Springer; 165-174
2 Elia V., Baiano S., Duro I. et al. Permanent physico-chemical properties of extremely diluted aqueous solutions of homeopathic medicines. Homeopathy 2004; 93: 144-150.
3 Elia V., Elia L., Napoli E. et al. Conductometric and calorimetric studies of serially diluted and agitated solutions: the dependence of intensive parameters on volume. Int J Ecodyn 2006; 1: 1-12.
4 Katsir Y., Miller L., Aharonov Y. et al. The effect of rf-irradiation on electrochemical deposition and its stabilization by nanoparticle doping. J Electrochem Soc 2007; 154: D249-D259.
5 Freitas Jr RA. Fullerene-based pharmaceuticals. Nanomedicine, Vol IIA: Biocompatibility. Georgetown, TX: Landes Bioscience, 2003 [chap 15.3.2.3].
6 Andrievsky G.V., Klochkov V.K., Bordyuh A. et al. Comparative analysis of two aqueous–colloidal solutions of C₆₀ fullerene with help of FTIR reflectance and UV–Vis spectroscopy. Chem Phys Lett 2002; 364: 8-17.
7 Andrievsky G.V., Klochkov V.K., Derevyanchenko L.I. Is C₆₀ fullerene molecule toxic?!. Fuller Nanotub Car N 2005; 13: 363-376.
8 Laidler K.J., Cornish-Bowden A. Elizabeth Fulhame and the discovery of catalysis. in: Cornish-Bowden A. New Beer in an Old Bottle: Eduard Buchner and the Growth of Biochemical Knowledge. 1997. Valencia: Universitat de Valencia; 123-126.
9 Bach A.N. On the role of peroxides in the processes of slow oxidation. Zh Russ Phys-Chem Soc 1897; 29: 373-395.
10 Wentworth Jr P., Jones L.H., Wentworth A.D. et al. Antibody catalysis of the oxidation of water. Science 2001; 293: 1806-1811.
11 Xu X., Muller R.P., Goddard 3rd W.A. The gas phase reaction of singlet dioxygen with water: a water-catalyzed mechanism. Proc Nat Acad Sci USA 2002; 99: 3376-3381.
12 Baramboim N.K. Mechanochemistry of High Molecular Weight Compounds. Moscow: Chimiya; 1971.
13 Domrachev G.A., Roldigin G.A., Selivanovsky D.A. Mechano-chemically activated water dissociation in a liquid phase. Proc Russ Acad Sci 1993; 329: 258-265.
14 Woutersen S., Bakker H.J. Resonant intermolecular transfer of vibrational energy in liquid water. Nature 1999; 402: 507-509.
15 Voeikov V.L., Naleto V.I. Weak photon emission of non-linear chemical reactions of amino acids and sugars in aqueous solutions. in: Chang J.-J., Fisch J., Popp F.-A. Biophotons. 1998. Dordrecht: Kluwer Academic Publishers; 93-108.
16 Semyonov N.N. Chemical Kinetics and Chain Reactions. Oxford: Oxford University Press; 1935.
17 Voeikov V.L., Baskakov I.V., Kafkialias K. et al. Initiation of degenerate-branched chain reaction of glycin deamination with ultraweak UV irradiation or hydrogen peroxide. Russ J Bioorg Chem 1996; 22: 35-42.
18 Bruskov V.I., Chernikov A.V., Gudkov S.V. et al. Activation of reducing properties of anions in sea water under the action of heat. Biofizika 2003; 48: 1022-1029.
19 Voeikov V.L., Khimich M.V. Amplification by argon of luminol-dependent chemiluminescence in aqueous NaCl/H₂O₂ solutions. Biofizika 2002; 48: 5-11.
20 Voeikov V.L., Asfaramov R., Koldunov V. et al. Chemiluminescent analysis reveals spontaneous oxygen-dependent accumulation of high density energy in natural waters. Clin Lab 2003; 49: 569.
21 Del Giudice E., Preparata G., Vitiello G. Water as a free electric dipole laser. Phys Rev Lett 1988; 61: 1085-1088.
22 Arani R., Bono I., Del Giudice E. et al. QED Coherence and the thermodynamics of water. Int J Mod Phys B 1995; 9: 1813-1841.
23 Del Guidice E., De Ninno A., Fleischmann M. et al. Coherent quantum electrodynamics in living matter. Electromagn Boil Med 2005; 24: 199-210.
24 Voeikov V.L. Fundamental role of water in bioenergetics. in: Beloussov L.V., Voeikov V.L., Martynyuk V.S. Biophotonics and Coherent. Systems in Biology. 2006. New York: Springer; 89-104.
25 Voeikov V.L. Reactive oxygen species (ROS): pathogens or sources of vital energy? Part 1. ROS in normal and pathologic physiology of living systems. J Alt Compl Med 2006; 12: 111-118
25a Voeikov V.L. Reactive oxygen species (ROS): pathogens or sources of vital energy? Part 2. Bioenergetic and bioinformational functions of ROS. J Alt Compl Med 2006; 12: 265-270.