A Promising Cure for URTI Pandemics, Including H5N1 and SARS

Has the Final Solution to the Coming Plagues Been Discovered? (Part II)

By Eric Gordon, MD and Kent Holtorf, MD
April 2006

Historical Virotoxicity of Oligodynamic Silver

Viruses cause most upper respiratory tract infections (URTIs), such as adenovirus, coronavirus, coxsackievirus, influenza virus, parainfluenza virus, respiratory syncytial virus, and rhinovirus, which account for the majority of cases.1 A broad-spectrum anti-viral agent that really works is needed to combat over 200 viruses that cause URTIs.2 Undoubtedly oligodynamic silver fits this bill.

Emerging medical studies confirm the stellar, broad-spectrum virotoxic efficacy of oligodynamic silver (Ag+) both in vitro and in vivo. This includes some of the most formidable viral organisms like HIV (including co-infections) 3, 4, 5, 6, 7, 8, 9, 10 and Herpesvirus hominis (HSV).11, 12, 13, 14, 15, 16, 17 Despite the low yields of oligodynamic Ag+ of the past 100 years common to silver-based drugs, the collective authoritative medical literature has documented efficacy of Ag+’s virotoxicity against over 24 viruses. For the viruses relevant to URTIs, the following are known to succumb to oligodynamic Ag+:

Historical Bactericidal Properties of Oligodynamic Silver in URTI

Oligodynamic Ag+'s antimicrobial efficacy extends well beyond its virotoxicity. Oligodynamic Ag+'s lethal effects span across all microbial domains (viral, bacterial, and fungal). The following URTI-related bacteria are known to be susceptible to oligodynamic Ag+:

Case History

Perhaps oligodynamic Ag+'s most compelling nature lies in its ability to successfully eradicate pervasive primary and secondary co-infections simultaneously. A controlled trial, the equivalent of a "best case series" concerning two groups of advanced AIDS (Candidiasis and Wasting Syndrome) with immunity suppressing moieties (ISM) demonstrated complete sero-negative conversion after a single treatment with oligodynamic Ag+ hydrosol. The studies were conducted at a medical facility in Lucha Contra el Sida, Comayaguela, Tegucigalpa, Honduras , Central America.

Quoting from the study, "Furthermore, said devices [silver oxide hydrosol] are capable of killing pathogens and purging the bloodstream of immune suppressing moieties (ISM) whether or not created by the AIDS virus (HIV); so as to restore the immune system."3 (Brackets added by authors.)

This single treatment delivered a total of 200 mg of silver for a 70 kilogram patient, well within the lowest observed adverse event level (LOAEL) established by the EPA for injected silver.48 Unlike picoscalar oligodynamic Ag+ hydrosol devoid of silver oxide, the former required activation into an oligodynamic state with persulfate. Nevertheless, the results were astounding.

Pharmacology

Pharmacokinetics is concerned with how the body affects the Absorption, Distribution, Metabolism, and Excretion (ADME) of the silver-based drug:

Modern and Historical Body Pharmacodynamic

            Pharmacodynamics relates to the biochemical and physiological effects of the drug upon the body or pathogen. Those effects include the following:

Pathogen-Associated Pharmacodynamics

Particle charge

Feng has noted, 'It is revealed that bulk silver in an oxygen-charged aqueous media catalyzes the complete destructive oxidation of microorganisms. Silver and hydrogen peroxide acted synergistically on the viability of E. coli K-12. It appears that the combined toxic effect of silver and hydrogen peroxide may be related with damage to cellular proteins. However, the mechanism of antimicrobial effects of silver is still not fully understood. The effects of silver ions on bacteria may be complicated; however, direct observation of the morphological and structural changes may provide useful information for understanding the comprehensive antibacterial effects and the process of inhibition of silver ions."73 (Italics added by authors.)

Further elucidation on the complicated effects of nanoscalar Ag+ on bacteria now extends beyond its known (a) lethal oxidation of the pathogen. It also involves (b) an "intermolecular electron transfer," resulting in an electrocution of the pathogen;3 (c) a binding and chelating to essential pathogen receptor sites, which defeats the pathogen's mechanisms of invasion into host cells;3 (d) an ion non-dependent heightened catalytic action74 and (e) cleavage, which fragments essential pathogen/proteinaceous structures.75

Particle size

The size of each oligodynamic Ag+ particle in colloidal dispersion creates a cumulative surface area. Such surface area is of utmost importance. (See Baker et al. below) The antimicrobial actions of biocatalysts like oligodynamic Ag+ hydrosol are directly proportional to the adsorption power upon a pathogen.76 Ostwald demonstrated there was a geometric progression related to the surface area of hydrosol silver particles by assuming a starting point of one cubic centimeter of silver. When silver is incrementally reduced into smaller and smaller cubes, the net silver particles produced will eventually approach six square kilometer surface areas:77, 78

Uniform picoscalar oligodynamic Ag+ hydrosol generates an adsorption power many magnitudes of order greater than any previous silver hydrosol product. A high nanometer nanoscalar silver product produced in a NASA-funded experiment produced the following observation in regards to adsorption power: "It had already been noted that at 104 cells ml-1 and 50 ppb of silver ions, there are approximately 2.8 x 1010 silver ions per cell. This is a commentary on the use of the term 'oligodynamic.' In the most extreme situation (104 cells ml-1 with 250 ppb of silver), if one estimates the dry weight of a bacterial cell at 2.5 x 10-13 g, there should actually be more than one silver ion in the system for every atom in every bacterial cell."79 (Italics added by authors.)

Particle concentration

See the following section on Therapeutic Index (TI).

Therapeutic Index

Fundamentally, the Therapeutic Index (TI) range falls specifically between silver concentration levels that will be toxic to the host versus non-toxic silver concentration levels that will reliably and consistently cure infection. The EPA has established one end of the TI by determining the lowest observed adverse event level (LOAEL) for both intravenous and oral intake. Note that only a non-pathological cosmetic discoloration (i.e., argyria) is established as the sole "adverse event." Comprehensive retrospective analysis spanning over 56 years by EPA80 and ATSDR81 found NO other adverse events associated with silver exposure. For a 70 kilogram patient, intravenous silver is limited to one (1) gram over any two-to nine-year period, and for oral intake, to twenty-five (25) grams over a 70-year period. These values reflect the best gauge to prevent argyric iatrogenesis.

To determine the other end of the TI, the following publications collectively provide compelling data regarding safe and effective dosage levels for oligodynamic Ag+ hydrosol when treating a broad scope of human infections:

Zhao et al. provided an excellent retrospective review on the key 13 factors critical to the chief pharmacodynamic in vitro parameters establishing oligodynamic Ag+'s therapeusis, including the complete inhibitory concentrations (CIC), the Minimum Bactericidal Concentration (MBC), as well as the log killing time (LKT).82

A comprehensive study commissioned by NASA reported that, "Three experiments were done with E. coli. The first two employed silver propionate (a silver salt). Cell populations were quite stable at room temperature in the absence of the added silver. The silver killed the cells. The process was not precisely exponential, but there was no indication that killing would not ultimately be complete. The extinction times (10-4 killing) might have ranged from < 2 hrs. to approximately 4 hrs. at 50 ppb of silver and from < 1 hr to approximately 2 hrs. at 250 ppb. Silver from the electrolytic ion generator was used in the third experiment, and the probable extinction times were approximately 4 hrs. and approximately 2 hrs. again at 50 and 250 ppb, respectively."83

Berger has shown that the minimal lethal dose (MLD) for both gram-positive and gram-negative pathogens with oligodynamic Ag+ is ten to 100 times greater than silver sulfadiazine (also a silver salt).84

More recently, an in vitro study by Baker et al. found that, "Nanometer-sized silver particles were… found to exhibit antibacterial effects at low concentrations. The antibacterial properties were related to the total surface area of the nanoparticles. Smaller particles with a larger surface to volume ratio provided a more efficient means for antibacterial activity. The nanoparticles were found to be completely cytotoxic to E. coli for surface concentrations as low as 8 microg of Ag/cm2."85

These in vitro studies follow closely to the authoritative medical literature for in vivo applications. The key to in vivo dosing is saturating the foci (whether local or systemic) with approximately 1 ppm to approximately 10 ppm oligodynamic Ag+ for acute infectious processes, and up to 27 ppm for chronic infectious with heavy pathogen loads.

For example, in acute local and systemic infectious processes, the older, authoritative medical literature reported on two popular silver hydrosol products used to treat humans, namely Collosol Argentum and Electrargol. Collosol Argentum, also known as Colsargen, was a 500 ppm concentration of silver in water, equivalent to 500 mcg/cc. For local infections, it was diluted to a 167 ppm concentration. "For injections in systemic infections the recommended dose is 30 drops (2 cc.)."86 Therefore, the typical I.V. dosage for systemic infections totaled 1 mg of silver as silver hydrosol. However, for more severe acute and invasive infections such as advanced puerperal septicemia, a clinical report appearing in The Lancet called for up to 20cc administered as an I.V. push 2 to 4 times weekly.87 In summary, the typical I.V. push dose in such situations would be the equivalent of 10 mg elemental silver. For today's equivalency, this translates into 400cc to 500cc of a hypotonic picoscalar oligodynamic Ag+ hydrosol rendered isotonic with sorbitol (4.9 grams sorbitol per 100cc hydrosol mixed together at the time of administration ~280mOSM) with a concentration range between 20ppm and 25ppm respectively.

Electrargol was a 400 ppm concentration of silver in water equivalent to 400 mcg/cc.88, 89 "The dose is 80 to 160 drops (5-10 cc.), injected intramuscularly or directly into a vein." 86 This dose was given several times weekly when indicated.90, 53 Therefore, the typical single I.V. dosage totaled 2 mg to 4 mg silver as silver hydrosol.

So, what would be the modern dose equivalents when treating for acute local or systemic infections for a picoscalar silver hydrosol containing a pure oligodynamic content of 20 ppm to 25 ppm Ag+? Answer: I.V. dosages given once or several times weekly for an average 70 kilo patient, as either a 50cc to 75cc slow push or 150cc to 200cc isotonic drip, as indicated. When exceeding 150cc in a single I.V. drip, it is important to diligently monitor for hemolysis with urine dip sticks. Limit dosage on subsequent treatments to 150cc if significant hemolysis warrants. Insignificant levels of hemolysis need not alter dosage levels.

For chronic infections with heavy loads and co-infections, what are the in vivo guidelines for utilizing I.V. oligodynamic Ag+ hydrosol in humans? Research conducted at a medical facility in Lucha Contra el Sida, Comayaguela (discussed above) appears to have determined this guideline, as well as the other end of the TI for oligodynamic Ag+. The study's conclusion found that the equivalent91 of 27 ppm oligodynamic Ag+ (as the target saturation point for the blood plasma) was sufficient to completely convert to sero-negative all advanced AIDS patients presenting with frank Candidiasis or Wasting Syndrome, when provided as a single treatment dose.3 To approach a 27 ppm blood plasma concentration with a 20 ppm to 25 ppm oligodynamic Ag+ hydrosol formulation, see the following section on Protocol Proposal.

Protocol Proposal & Call for Clinical Investigators

In cases of acute URTIs, per os, nebulized and intravenous administration may prove to be the best infectious control method yet discovered. What follows is a call for clinical investigators to discover its fullest potential.

All dosages are for an average 70 to 75+ kilo adult patient, with per os, investigational nebulized or investigational I.V. dosages being cut by one-half for patients approximately 37 kilos in size. For toddlers less than 20 kilos, the dosages are further reduced to just one-quarter of the adult amounts.

JHE Pre- And Post-Management

Pre-JHE Management: Prevention or lessening of expected JHEs or hepatomegaly and hemolysis is a new concept. By giving the antioxidants selenium, glutathione + anthocyanins, vitamin E, lipoic acid, milk thistle (silymarin), and phosphatidylcholine in "loading" doses, a rapid upregulation of the seleno-enzyme glutathione peroxidase system will ensue. Tolerance to silver may go up by several orders of magnitude with such loading doses.51 In fact, Murine studies indicated tolerance to silver was enhanced over 10,000 fold by the use of selenium and vitamin E pre-treatment.92, 93, 51 Therefore, the key either is to take such loading doses a month or two prior to undergoing high amounts of I.V. treatment, or at the very least, to take these loading dosages daily, but always separated by a six-hour period post-I.V. administration. If taken together, each will tend to cancel out the other's benefits by binding to one another, as opposed to their intended targets.

Post-JHE Management: To rapidly control and eliminate post-JHE symptoms, drinking an abundance of Licorice and Green tea ( ½ to one gallon daily) is usually sufficient. Non-flush niacin, such as Inositol hexaniacinate, is also highly effective in the amount of 500 mg t.i.d. Historically, especially in terminal cases of disease it is extremely valuable to have patients perform enemas which involves one cup strong organic coffee or double-strength green tea rectal implants. Patients often report that they feel dramatically better since this procedure typically brings about instantaneous results.94 Retain the rectal implant for 20 minutes or longer. Performing a purified water enema prior to the rectal implant will better insure retention compliance and best results. In rarer situations, careful screening for immune system activation of coagulation (ISAC)95 must be treated with heparin and/or lumbokinase or nattokinase.

CAM Adjunctive Support

In addition to the recharging effects of administering H2O2 post-I.V. Ag+ 55, 56, 73 hydrosol, garlic capsules rich in Alliin, as opposed to Allicin, such as Pharmax’s Garlic Freeze-Dried,96, 97, 98, 99 and probiotics, such as Pharmax's HLC Intensive Capsules containing over 20 billion viable organisms per capsule,100 prove very important in the management of URTIs, as well as any associated gut dysbiosis.

Olive leaf extract rich in d-lenolate,101, 102, 103, 104 can serve as an excellent means to more slowly reduce viral loads. When given one to two months in advance of I.V. Ag+ hydrosol administration, this ability of d-lenolate also will serve indirectly as an "adaptogen," wherein low-levels of die-off will induce tolerance for more significant die-offs expected in the near future from silver administration.

Currently IMREF is devising oral protocols to induce endogenous production of H2O2. This is accomplished with Vitamins C and K. More on this later.

Jurisprudence

Four steps are required for proper jurisprudence concerning Ag+ hydrosol administration when used off-label: (1) A well written Informed Consent form should be read and signed by any patients undergoing nebulized or I.V. Ag+ hydrosol treatment. (2) Clinical progress notes must be complete and thorough. (3) Careful regular monitoring with urine dip sticks for hemolysis, and if warranted, follow-up CBC counts and liver function tests (LFTs) may be advisable. (4) Utilizing a compounding pharmacy or "in-clinic equivalent" according to all state regulations when processing Ag+ hydrosol off-label into an injectible format is required. Please see the IMREF web site to download a sample patient informed consent form.

Conclusion

Nanoscientists have produced low nanoscalar or better oligodynamic Ag+ hydrosol, which is a very promising and safe anti-viral agent. Its proper use will undoubtedly impact the global control of these diseases within this century.

Correspondence

The two authors have extensive clinical experience using picoscalar oligodynamic Ag+ hydrosol. Neither author has any financial ties to commercial or proprietary silver hydrosol products. Eric Gordon, MD, is Medical Director for Gordon Medical Associates in Santa Rosa, California; 707-575-5180. He may be contacted at gordonmd@sonic.net. Kent Holtorf, MD, is Medical Director for the Hormone and Longevity Medical Center, Inc. at 23441 Madison Street, #215, Torrance, California 90505; 310-375-2705. He may be reached at www.hormoneandlongevitycenter.com

Reference


1See:http://www.clevelandclinicmeded.com/ diseasemanagement/infectiousdisease/urti/urti.htm

2 See: http://www.dartmouth.edu/~health/resources/uri.html

3 Antelman MS. Method of curing AIDS with tetrasilver tetroxide molecular crystal devices. USPTO # 5,676,977, October 14, 1997.

4 Dean W, et al. Reduction of viral load in AIDS patients with intravenous mild silver protein – Three case reports. Clinical Practice of Alternative Medicine, 2001 Spring.

5 Oka H, et al. Inactivation of enveloped viruses by a silver-thiosulfate complex. Metal Based Drugs, 1994;1(5-6):511.

6 Hussain S, et al. Cystine protects Na, K-ATPase and isolated human lymphocytes from silver toxicity. Biochem., Biophys Res Comm, 1992;189:1444-1449.

7 Aiken C, In vitro MIC Test Against HIV-1, published account via email, AA-90 Results, Vanderbilt University, School of Medicine. 1997 Dec 16.

8 Fields CB, et al. Method for treating blood borne viral pathogens such as immunodeficiency virus. United States Patent No. 6,066,489. 2000 May 23.

9 Elechiguerra JL, Interaction of silver nanoparticles with HIV-1. J Nanobiotechnology. 2005;3:6.

10 Zhong-Yin, Z, et al. Zinc inhibition of renin and the protease from Human Immunodeficiency Virus Type 1. Biochemistry, 1991 Sept 10;30(36):8717-21.

11 Grier N, Silver and Its Compounds. In: Disinfection, Sterilization and Preservation, S. Block, edit., Lea & Febiger, Philadelphia, PA, 1983; p. 380.

12 Shimizu F, Shimizu Y, Kumagai K, Specific inactivation of Herpes simplex virus by silver nitrate at low concentrations and biological activities of the inactivated virus. Antimicrobial Agents and Chemotherapy, 1976 July;10(1):57-63.

13 Thurman RB, Gerba CP. The Molecular Mechanisms of Copper and Silver Ion Disinfection of Bacteria and Viruses. CRC Critical Reviews in Environmental Control, 1989;301.

14 Coleman VR, Wilkie J, Levinson WE, Stevens T, Javetz E. Inactivation of Herpesvirus hominis Types 1 and 2 by silver nitrate in vitro and in vivo. Antimicrob Agents & Chemother, 1973;4:259.

15 Russell AD, Hugo WB. Antimicrobial activity and action of silver. Prog Med Chem, 1994;31:354.

16 Chang, TW, Weinstein, L, "In vitro Activity of Silver Sulfadiazine Against Herpesvirus hominis,"J Infect Dis, 1975 July;132(1):79-81.

17 Tokumaru T, Shimizu Y, Fox CL. Antiviral activities of silver sulfadiazine in ocular infection. Res Commun Chem Pathol Pharmacol, 1974 May;8:151-8.

18 Searle AB. The Use of Colloids in Health and Disease, (Quoting from the British Medical Journal, 1919 Jan 15; ls(17):83.

19 Cliver DO, Sarles WB, Foell WK, Goepfert JM. Biocidal effects of silver: Contract NAS 9-9300 Final Technical Report. University of Wisconsin, Accession Number – N70 23888, NASA CR Number – CR-108338, 1970 Feb; p. 4-4 through 4-6.

20 Searle A B. The Use of Colloids in Health and Disease, (Quoting J. MacMunn in the British Medical Journal, 1917;I:685), E. P. Dutton and Company, NY, 1919; p. 86.

21 Mahnel H, Schmidt M. Effect of silver compounds on viruses in water. Zentralbl Baktenol Parasitenk Infektionskr Hyg, Abt. Orig. Reihe B. 1986;182:381.

22 "Septacrol," Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 456.

23 Leavitt RW, PhD (Prof. Microbiology). Brigham Young University, Microbiology Department, 1999 May 13; ref: ASAP – 1.25 ppm to 10 ppm concentrate of Ag+.

24 Moyers CA, et al. Treatment of large human burns with 0.5% silver nitrate solution. Arch Surg, 1965 June;90:825.

25 Ford LC, MD (Department of Obstetrics and Gynecology). UCLA School of Medicine, Center for the Health Sciences, 1988 Nov 1.

26 Carr HS, Wlodkowski TJ, Rosenkranz HS. Silver Sulfadiazine: In vitro Antibacterial Activity. Antimicrobial Agents and Chemotherapy, Nov 1973;4(5):585-6.

27 Hamilton-Miller, Shah, S, Shah, C. Silver Sulphadiazine: A Comprehensive in vitro Reassessment. Chemotherapy, 1993;39:406.

28 Searle AB. The Use of Colloids in Health and Disease, (Quoting Sir James Cantlie in the British Medical Journal, 1913 Nov 15). E. P. Dutton and Company, NY, 1919; p. 83.

29 Searle AB. The Use of Colloids in Health and Disease, (Quoting C.E. A. MacLeod in Lancet, 1912 Feb 3). E. P. Dutton and Company, NY, 1919; p. 83.

30 "Neo-Protosil," Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 350.

31 "Silver Floride, Silver Iodate, Silver Iodide, Silver Lactate, Silver Nitrate" Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 460.

32 Searle AB. The Use of Colloids in Health and Disease, (Quoting J. Mark Hovell in the British Medical Journal, 1917 Dec 15). E. P. Dutton and Company, NY, 1919; p. 86.

33 "Collargol," Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 178.

34 See: http://www.emedicine.com/med/topic2184.htm

35 "Argenol," Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 91.

36 See: http://www.clevelandclinicmeded.com/ diseasemanagement/infectiousdisease/urti/urti.htm#definition

37 Bechhold, H, Colloids in Biology and Medicine, translated by J. G. M. Bullow. D. Van Nostrand Company, New York, 1919; p. 376.

38 Searle, A B, The Use of Colloids in Health and Disease, (Quoting Henry Crookes), E. P. Dutton and Company, NY, 1919; p. 70.

39 "Proganol," Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 422.

40 "Protargol," Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 424.

41 "Silver Nitrite, Silver Nucleinate, Silver Oxalate, Silver Oxide, Silver Permanganate, Silver Phenolsulphonate" Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 461.

42 Dick JD, PhD (Director of Bacteriology). Johns Hopkins University, Department of Pathology, Division of Microbiology, 1997 Feb 14; Ref: Aqua Argentica.

43 "Neo-Protosil," Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 350.

44 "Neo-Silvol," Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 350.

45 "Silver Protein, Silver Salicylate, Silver Sulphate, Silver Sulphide, Silver & Potassium Cyanide, Silver & Sodium Chloride, Silver & Sodium Thiosulphate, Silver & Thallium Nitrate, Silvol" Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 462.

46 Bechhold, H, Op. cit., p. 368.

47 "Septacrol," Merck's Index, fourth edition, Merck & Co., Inc., Rahway, NJ, 1930; p. 456.

48 See: EPA/IRIS CASRN 7440-22-4, 1996. The EPA has provided dosage ranges that indicate not to: (1) exceed 1 gram of silver I.V. exposure over a 2 to 9 year time period for an average adult weighing 70 kg, or (2) not to exceed 25 grams orally over a lifetime for an average adult weighing 70 kg.

49 CRC Handbook of Chemistry and Physics, 80th Edition, ed. By David R. Lide, CRC Press, Boca Rotan, Fl, 1999-2000, Section 15, p. 28.

50 Agency for Toxic Substances and Disease Registry (ATSDR) Toxicological Profile for Silver – CAS# 7440-22-4, Dec. 1990, Section: 2.3.2.4 -OTHER ROUTES OF EXPOSURE.

51 Fung MC, Bowen DL. Silver Products for Medical Indication: Risk-Benefit Assessment. Clinical Toxicology, 1996;34(1):121.

52 Rungby J, Danscher G. Localization of Exogenous Silver in Brain and Spinal Cord of Silver Exposed Rats. Acta Pharmacol Toxicol. 1984;60:92-8.

53 Duhamel BG. Electric metallic colloids and their therapeutic applications. The Lancet. 1912 Jan 13.

54 Fuller AW. Severe epidemic encephalitis. The Lancet, 1926 July 24;2:172. Also see JAMA, 1926 Sept 25;1071.

55 Gallyas F. Physico-chemical mechanism of the Argyrophil I reaction. Histochemistry. 1982;74:393.

56 Gallyas F. Simultaneous determination of the amounts of metallic and reducible silver in histologic specimens. Histochemistry. 1979;64:77-86.

57 Padlewska KK, Schwartz RA. eMedicine Journal. 2001 Nov 2;2(11):(see under Histologic Fnidngs). www.emedicine.com/derm/topic595.htm

58 Jansson G. Harms-Ringdahl M. Stimulating effects of mercuric- and silver ions on the superoxide anion in human polymorphonuclear leukocytes. Free Radic Res Commun, 1993;18(2):87-98.

59 Clayton GD, Clayton FE. Patty's Industrial Hygiene and Toxicology, 3rd revised edition, NY, John Wiley & Sons, 1981; p. 1881-94.

60 Fowler BA, Nordberg GF. Silver. In: Handbook on the Toxicology of Metals, 1st edition, Friberg, L., Norbderg, GF, VB Vouk, eds., Elsevier/North-Holland Biomedical Press, NY, 1979; p. 579-86.

61 Phalen, RF, Morrow, PE, Health Phys, 1973; 24:509. In: Clayton, GD, FE Clayton, Patty’s Industrial Hygiene and Toxicology, 3rd revised edition, NY, John Wiley & Sons, 1981; 1890.

62 Samuni A, et al. On the Cytotoxicity of Vitamin C and metal ions. Eur J Biochem. 1983;99:562.

63 Horsmanheimo, M. Lack of proliferation of circulating white blood cells in patients with syphilis before and after a Jarisch-Herxheimer Reaction. Br J Vener Dis. 1978 Aug;54:225-8.

64 Loveday C, Bingham JS. Changes in circulating immune complexes during the Jarisch Herxheimer Reaction in secondary Syphilis. Eur J Clin Microbiol Infect Dis. 1993 Mar;12:185-91.

65 Brown G. Colloidal silver in sepsis. Journal of the American Association of Obstetricians and Gynecologists, 1916 Jan.

66 Bechhold H. Op. cit., p. 371-4.

67 Dean W, et al. "Reduction of viral load in AIDS patients with intravenous Mild Silver Protein – Three Case Reports," Clinical Practice of Alternative Medicine, 2001 Spring;2(1):48-53.

68 Bechhold H. Op. cit., p. 371-2.

69 Rikimaru T, et al. Three cases of localized pleural Tuberculosis which looked exacerbated during antituberculous chemotherapy. Kekkaku. 1991 Feb;66:101-7.

70 Karachunskii MA. Exacerbation of pulmonary Tuberculosis during chemotherapy. Probl Tuberk, 1996;23-5.

71 Lawrence C, et al. Seronegative chronic relapsing Neuroborreliosis. Eur Neurol, 1995;35:113-7.

72 Berg D, Berg LH, Couvaras J. Is CFS/FM due to an undefined hypercoagulable state brought on by immune activation of coagulation? Does adding anticoagulant therapy improve CFS/FM patient symptoms?  AACFS Proceedings: Cambridge, MA. 1998 Oct 10-12;62.

73 Feng QL, et al. "A mechanistic study of the antibacterial effect of silver ions on Escherichia coli and Staphylococcus aureus,"J Biomed Mater Res, 2000 March;52:662.

74 Morones, JR, et al., "The bactericidal effect of silver nanoparticles," Nanotechnology, 2005;16:2346-2353.

75 Eichorn GL, et al. Interaction of metal ions with biological systems, with special reference to silver and gold.  Proceedings of the First International Conference on Gold and Silver In Medicine, Bethesda, MD, published by The Silver Institute, Washington, D.C. 1987 May 13-14;4.

76 Bodansky M. Introduction to Physiological Chemistry, John Wiley & Sons, Inc., NY, 1934; p. 22-3.

77 Bechhold, H. Op. cit., p. 13, 366 & 368.

78 Hartman RJ. Colloid Chemistry, Houghton Mifflin Co., The Riverside Press, Cambridge, MA, 1939; p. 13.

79 Cliver, DO, et al., "Biocidal Effects of Silver: Contract NAS 9-9300 Final Technical Report," University of Wisconsin, Accession No. N71-24436, NASA CR-114978, Code G3, Category 04, February 1971; p. 5-2.

80 EPA/IRIS CASRN 7440-22-4, 1996.

81 Agency for Toxic Substances and Disease Registry (ATSDR) Toxicological Profile for Silver – CAS# 7440-22-4, Dec. 1990.

82 Zhao G, Stevens SE. Multiple parameters for the comprehensive evaluation of the susceptibility of Escherichia coli to the silver ion. Bio Metals, 1998;11:28.

83 Cliver, DO, et al., Op. cit. February 1971; p. 3-1.

84 Berger, TJ, et al., "Electrically Generated Silver Ions: Quantitative Effects on Bacterial and Mammalian Cells," Anti Microb Agents, 1976;9(2):357-8.

85 Baker C, et al. Synthesis and antibacterial properties of silver nanoparticles. J Nanosci Nanotechnol, 2005 Feb;5(2):244-9.

86 Woods HC, et al. The Dispensatory of The United States of America, Centennial (22nd) Edition, J.B. Lippincott Co., Philadelphia, 1937; p. 1578.

87 Sanderson-Wells TH. A case of Puerperal Septicemia successfully treated with intravenous injections of Collosol Argentum. The Lancet, 1918 Feb 16;258.

88 "E. Fougera & Co." Reports Council on Pharmacy and Chemistry Reports, 1920;58.

89 Council on Pharmacy and Chemistry of the American Medical Association, In: Hill, WR, Pillsbury, DM, Argyria: The Pharmacology of Silver, The Williams & Wilkins Co., Baltimore, MD, 1939; p. 170.

90 Searle, A B, The Use of Colloids in Health and Disease, (Quoting J. MacMunn in the British Medical Journal, 1917;I:685), E. P. Dutton and Company, NY, 1919; p. 86.

91 The study used 40 ppm concentrations of tetrasilver tetroxide. By deducting the oxygen amount, this leaves the equivalent of 27 ppm elemental silver concentration.

92 Wagner PA, Hoekstra WG, Ganther HE. Alleviation of silver toxicity by selenite in the rat in relation to tissue glutathione peroxidase. Proc Soc Exp Biol Med, 1975;148:1106-10.

93 Bunyan J, Diplock AT, Cawthorne MA, Green J. Vitamin E and stress. 8. Nutritional effects of dietary stress with silver in vitamin E- deficient chicks and rats. Br J Nutr, 1968;22(2):165-182.

94 "Liver Detoxification with Coffee Enemas as Employed in the Gerson Method," Townsend Letter for Doctors and Patients, #216, July 2001;45-50.

95 See: http://www.hemex.com/

96 Phamax: Nutriceutical & Biophysical Systems, product catalogue, WA, page PA 03. See www.pharmaxllc.com .

97 Yakovlev AI, Zvyagin SG. Influence of phytoncides on virus influenza A. Action of the volatile components from garlic and onion on virus influenza A. Byull Biol Med (Bull Biol Med), 1950;29:384-387(Russian).

98 Cai Y. Anticryptococcal and antiviral properties of garlic. Cardiol Pract, 1991;9:11.

99 Tsai Y, Cole LL, Davis LE, Lockwood SJ, Simmons V, Wild GC. Antiviral properties of garlic: in vitro effects on influenza B, herpes simplex, and coxsackie viruses. Planta Med, 1985;51:460-461.

100 Phamax: Nutriceutical & Biophysical Systems, product catalogue, WA, page PB 12. See www.pharmaxllc.com .

101 De Whalley CV, et al. Biochem Pharmacology, 1990;39:1743-50.