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The Use of Ozone
and Oxygen Therapy in Veterinary Medicine
Robert Smatt, DVM, MS
I
History of Ozone in Medicine
The
discovery of the chemical known as ozone gas in 1840 is credited to Christian
Schonebein, a professor of physics and chemistry at the University of Basel.
Professor Schonbein also invented guncotton (methylcellulose) and explored the
use of hydrocyanic acid to stop meat putrefaction, demonstrating the possibility
that meat could be preserved for long periods of time. This was a large leap
forward in our thinking about oxidative processes. During the time of his
studies of meat preservation, he contracted anthrax. He died on August 28, 1868.
While he also advocated the use of ozone as a possibility for the control of
infectious diseases, he was unable to use it to stop his own ultimately deadly
infection.
Some
eleven years after Schoenbein’s death the chemist Werner von Siemens invented
and patented the ozone “super induction tube”, a means of generating ozone.
This was an important step forward in the use of ozone gas because it recognized
the fact that because the gas is unstable, unstorable, and highly reactive, it
needs to be generated ozone immediately before its use.
Among
the first uses of ozone was the disinfection of water.
Today more than 2500 cities throughout the world use ozone in the water
purification process. These cities include Los Angeles, Montreal, Moscow, Kiev,
Paris, Amsterdam, Singapore, and Florence to name a few.
The first ozone
generator devised for medical use was made several decades after Siemens
invention. It was devised by a physicist named Joachim Hansler (1908-1981). His
company’s device greatly enhanced the spread of the use of ozone in medicine.
Another
critical step in the use of ozone in medicine is that of a photometric device
for measuring the concentrations of ozone. Without such a device, the safety of
various concentrations of ozone could not have been established.
Born in 1871,
the Austrian surgeon, Edwin Payr, became acquainted with ozone when it was used
on him by his dentist, E.A. Fisch. Dr Fisch
applied for a patent on an ozone generator called “Cytozon,” now used
in medical ozone generators today. Dr Payr became so enthusiastic about medical
ozone that he ultimately published a 290 page book entitled, “On Treatment
with Ozone in Surgery,” which he presented to the German Surgical Society in
Berlin. This was the beginning of the use of ozone in medicine as we know it
today.
Medical ozone
was used during the First World War to treat gangrenous wounds of German
soldiers.
Dr P. Aubourg,
a French physician was the first to publish a paper in 1936 on infusion of ozone
rectally in the treatment of chronic colitis and fistulae.
In
the 1940’s autohemotherapy, the administration of a small quantity of the
patient’s ozonated blood began.
The
use of medical ozone was developed and is accepted in Germany. It is tolerated
by France, England, Italy, and Canada, and 14 states in the United States. There
is still some concern as to the legal status of medical ozone with regard to the
United States Federal laws.
Today
the use of ozone in medicine and most of the research in medical ozone takes
place in Cuba and Russia. In fact,
ozone therapy is in the medical mainstream in Russia, and especially Cuba.
II
Why oxygen and ozone therapy?
Before
we can talk about ozone (O3), we must talk first about oxygen (O2),
from which ozone is formed.
The
oxygen we breath originates primarily from two places—the plankton of the sea
and the new growth of forests.
An
oxygen molecule (the smallest amount of a chemical substance that can exist
without further breaking down) is composed of two oxygen atoms, called O2.
Fossils
encased in amber, many thousands of years old, contained bubbles which when
analyzed, were found to contain 30% O2. Presently, our atmosphere
contains 21% O2. In cities that are badly polluted this percentage is
reportedly around 15%. Oxygen content of the air in Gary, Indiana with its steel
mills and blast furnaces has been measured at 9-11 %. At 7% O2
mammalian life ceases.
Oxygen
carries and ultimately stores the sun’s energy so that all life can feed on
it.
Oxygen
is the most abundant element of the earths crust. It easily dissolves in
water. Oxygen compounds form a major part of the elements in the oceans,
rocks, and all living things. Oxygen makes up 65% of the elements of our body
tissues such as blood, organs, tissues, and skin.
All
organisms (microbes, animals, and plants) have spent countless centuries
swimming and evolving in or are contained in a sea of water and oxygen. It is
these two molecules, oxygen and water, which support the milieu of all the
chemicals which make up all the cells held together to interact and react to
create and maintain life.
Oxygen
is absolutely essential for the health of cells. It removes toxins from the body
and is the key element in the “combustion” of glucose molecules (the primary
mammalian energy source) to produce energy in the form of ATP, the
bodies primary form of stored energy at the biochemical level. When
glucose is metabolized to ATP anaerobically, six ATP molecules are produced.
When the same molecule of glucose is metabolized in the presence of O2,
thirty eight molecules of ATP are produced.
Our
personal energy can suffer from lack of exercise. The brain, comprising 2% of
human body mass, requires 20% of the bodies oxygen needs. Exercise increases
circulation and therefore the delivery of oxygen to cells. Many centuries ago
Chinese physicians proclaimed stagnation to be the root of all ill health. It is
of interest to note that the effectiveness of treatment modalities in Chinese
medicine such as cupping, moxibustion, and bleeding is due to the fact that they
bring increased circulation of blood and therefore increase oxygenation of
tissues.
In
a room full of people, we know how uncomfortable we get, and seek larger open
spaces or moving air for relief from this discomfort. This discomfort is due to
excessive amounts of CO2 in the air. Many temporary maladies, such as
headache, fatigue, eye, nose, and throat discomfort have been shown to be caused
by high CO2 levels in airplane cabins.
These same symptoms promptly disappear upon departing the aircraft and
breathing more oxygenated air.
In
1966 the Nobel Prize winner Otto Warburg demonstrated that the key condition for
the formation of cancer is lack of oxygen at the cellular level.
Almost
every virus, fungus, parasite, and many bacteria such as Lactobacilli,
Campylobacter, Clostridium, and Bacteroides are facultative or strictly
anaerobic----they do not thrive in oxygenated environments. As time goes on, we
are finding more and more microorganisms associated with cancer.
These are bacterial, viral, and parasitic forms of life.
Water
is the other basic element which contributes to stagnation and lack of oxygen.
It takes adequate hydration of the body to transport oxygen, especially to the
brain. Again, stagnation, which translates into lack of oxygen, is the major
cause of disease.
Ozone
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Naturally
Occurring Ozone
A single molecule of oxygen, also known as singlet oxygen (one oxygen
atom with a negative charge) is highly unstable, only able to exist for
microseconds in nature. When two single oxygens unite to share electrons, they
unite to form the very stable O2 molecule found in nature. When O2
molecules are exposed to an energetic force such as electricity or ultraviolet
light, they temporarily split apart and reform into O2 molecules but
now with a small percentage of oxygen molecules forming ozone gas.
This new O3 gas
is unstable and interacts with other ozone molecules, and breaks down into more
stable oxygen O2 molecules once again. The half life of ozone is 45
minutes in glass, 30 minutes in plastic.
Chemical
Structure of Ozone
Ozone
occurs naturally in the atmosphere, and at about 20 Km (12 miles) above the
earths surface, the concentration of ozone in the ozone layer is about 10 parts
per million according to Velio Bocci, the foremost researcher in the field of
medical ozone.
Renate
Viebahn-Haensler, another authority on medical ozone, states that at a height of
20-30 Km the concentration of ozone is 1000mcg/cubic meter. If we could maintain
a constant temperature of 273 degrees K and a pressure of 101 kPa, the thickness
of the ozone layer would be only a few millimeters thick.
It
has been estimated that a 10% drop in the concentration of the ozonosphere would
result in a 25% increase in skin melanomas and carcinomas. This protective
aspect of ozone is because it acts as a shield.
This shielding effect is due to the UV light acting upon oxygen, O2,
to form ozone, O3. While ultraviolet light favors the formation of
ozone, nitrogen oxides and chlorine, air pollutants, destroy significant amounts
of ozone. The knowledge that chlorine destroys ozone dates back to 1900. The
concern then was because of chlorides from volcanoes. In 1974, the problem of
chlorinated fluorocarbons (CFC’s) was discovered. CFC’s are transported into
the stratosphere where they are acted on by UV light releasing free chlorine
which destroys the ozone layer. The hole now over Antarctica is 3.5 times larger
that the United States. During winter in Antarctica temperatures as low as minus
80 degrees C allow formation of thin ice clouds which activate chlorine, which
in turn destroys ozone more efficiently than anywhere else.
Hole in the ozone layer over Antarctica
At
street level, the situation is reversed. Man made atmospheric emissions such as
carbon monoxide, nitric and nitrous oxide, methane, and sulphur compounds, act
as catalysts in the production of ozone. At the earth’s surface, the
troposphere, the ozone concentration should be lower than 40 parts per billion.
In many large metropolises such as Mexico City, Florence and Milan Italy, ozone
reaches toxic levels, especially during the summer.
The
Safety of Ozone There
is no doubt that ozone is very toxic to the respiratory tract, because
respiratory tract lining fluids have little protective capacity from ozone.
Ozone, however, has come to be emphasized as the major cause of lung damage due
to air pollutants even though other air pollutants such as sulfur and nitrous
oxides do far more damage than ozone. This is because atmospheric ozone
concentration, being very easy to measure, has become the standard measure by
which we monitor air pollution.
The
World Health Organization states that it is permissible to work for 8 hours in
an ozone concentration of 0.6 ppm (120mcg/cubic meter or 0.12 mcg/liter). There
is a wealth of literature available on the health hazards of ozone, but almost
every reference refers to the toxic effects of ozone on the respiratory system.
The
medical use of ozone has a safety history that is unprecedented in modern
medicine. Dr Bocci states that from 1950 to 1986 in central Europe there were no
“untoward effects” in 340,000 ozone treatments.
In an article by M. Jacobs (Ozonachrichten 1986; 5:1-5), the records of
384,775 patients treated with different ozone modalities for a variety of
medical conditions were examined. There were 5,579,238 treatments administered
to these 384,775 patients with an incidence of “accidents” of 0.0007%, or 39
“accidents” in absolute numbers. This is a safety margin far greater than
that of aspirin. Most of these treatments were major autohemotherapy, the
intravenous auto infusion of ozonated whole blood, a technique which we will
describe later. Four of these accidents were fatalities, all of which resulted
from infusion of ozone gas directly intravenously.
Direct
IV therapy of ozone should never be used. It results in free radical damage,
pulmonary embolism, bronchial constriction, pulmonary failure, cardiac
arrhythmia, phlebitis, and hypoglycemia. Needless to say this form of
administration of ozone is forbidden. These phenomena have been well documented
in dogs and humans, pre and post mortem. In horses, however, ozone gas has been
introduced directly intravenously, reportedly without any of these adverse
effects, at least on a gross pathophysiological level.
The
following is a summary of the toxic effects of ozone in humans according to Dr
Velio Bocci, the foremost researcher in the use of medical ozone. At 0.1ppm
lachrymation and irritation of upper respiratory airways occurs. At 1.0-2.0 ppm
we see rhinitis, cough, headache, occasionally nausea and retching. From
2.0-5.0ppm for 10 to 20 minutes of exposure (inhalation) progressively
increasing dyspnea, bronchial spasm and retrosternal pain occur. Breathing 5.0
ppm (0.01 gamma) for 60 minutes causes acute pulmonary edema and occasionally
respiratory paralysis. Breathing 10ppm (0.02 gamma) for four hours will result
in death. Breathing 50ppm (0.1 gamma) ozone will cause death in minutes.
Frank
Shallenberger, M.D., a pioneer in the use of medical ozone in America, states
that one must inhale an ozone concentration of 20 gamma for over one minute to
cause permanent lung damage. Just one breath or even a sniff of 20 gamma ozone
will lead to severe coughing spasms. More than one inhalation is physically
impossible, let alone a 60 second exposure.
Our ozone
perception level (the concentration at which we can smell it) is 0.02mg/cubic
meter = 0.02mcg/l or 0.0002mcg/ml (gamma) or 0.1ppm. The average therapeutic
concentration of medical ozone used in treatments is 37gamma or 37 mcg/ml. It is
obvious that medical ozone treatments must be carried out in a well vented
facility.
Concentration
Calculations Some ozone
concentration conversions are given below for those wishing to calculate ozone
concentration numbers in mcg/ml or gamma.
0.1ppm=0.2mg/cubic
meter=0.2mcg/l=0.0002mcg/ml
1.0ppm=0.002mcg/ml
1000ppm=2.0mcg/ml
10,000ppm=20mcg/ml
Another way to
state ozone concentrations is that 0.5% ozone is equal to 7 mcg/ml, 1.0% is
equal to 14mcg.ml and so on up the scale.
Micrograms per milliliter or
gamma, is the common unit used in determining proper treatment concentrations of
medical ozone. Concentrations of ozone used in therapy commonly range from 20 to
80 gamma.
The bottom line
however, is that as long as ozone is used according to the guidelines previously
mentioned and described later under forms of therapy, it is one of the safest
modalities in medicine.
III
How ozone works in the body
The
gaseous substance we call medical ozone is actually a mixture of primarily pure
oxygen (95.0 to 99.5%) and a small amount of ozone (0.5-5.0%). Hereafter when we
use the term ozone, we are referring to medical ozone.
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It is well accepted that many diseases, whether
acute or chronic, are characterized by free radical oxidant stress, causing
patients to suffer from poor energy production and fatigue. Consequently, all
patients with chronic oxidant stress are observed to improve when oxidant
therapy is administered. Then how does the introduction of ozone become a
positive therapeutic event?
Organs and cells affected by ozone therapy
Free
Radical Production- a review of the
processes of oxidation and reduction and the production of free radicals. Most
biological molecules have two electrons in their outer orbit and are stable.
Free radicals are substances that contain one electron in the outer orbit and
are unstable and reactive. There are three ways a free radical can react with
other chemicals. It can extract an electron from another molecule (be reduced),
it can react with another free radical forming a stable covalent bond, or it can
donate its electron to another molecule (become oxidized).
As
a consequence, the new molecules formed in turn become free radicals and must in
turn go about extracting or sharing electrons, thus forming still more free
radicals. These reactions are enhanced by ions of iron, cobalt, copper and
nickel (commonly increased for instance in the hemolysis of blood).
Sources
of free radicals are viruses, bacteria, parasites, normal respiration and
metabolism, exposure to pollutants, exposure to the sun, x-rays, injury, and
stress to name a few. Naturally occurring free radicals are nitric oxide (NO),
hydroxyl ions (OH-), and the oxygen anion (O-), also known as singlet oxygen,
the latter resulting from the breakdown of the ozone molecule.
Oxidative Stress and Imbalances
1)
Normal conditions of health and Rest
2) Decreased Antioxidant
Production without Increased ROS
3)Marked Increase in ROS
Overwhelms Normal Antioxidant System
4)
Both a Reduction in Antioxidants and Increase in ROS
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5) Excess intake of vitamin c can lead
to oxidative stress.
The
site of free radical production takes place at the mitochondrial level from
either ischemia (less O2) or excessive functional demand on the cells (again
poor oxygen utilization).
When
ozone enters the water fraction of plasma, its first order of preference is to
attack lipids, especially polyunsaturated fatty acids (PUFA’s). Second it is
neutralized by antioxidants such as vitamin E, C, glutathione, bilirubin,
cysteine rich proteins and carbohydrates. PUFA’s
are found in cell walls and membranes, lipoproteins, triglycerides, and
chylomicrons. As a result of this
ozone-lipid reaction, ozonides, peroxides, aldehydes, and other free radicals
are formed.
These
free radicals damage cells by literally punching holes in them (damaging the
cell membrane), and damaging DNA.
Ozone,
not a free radical itself, does not cause significant free radical damage
when introduced into the body because 1) Ozone is introduced in small quantities
relative to the amount of tissues present in the body (blood is considered a
tissue) 2) Immediately upon entering the body, ozone reacts with tissue
chemicals such as PUFA’s, vitamin C, glutathione, etc mentioned above. 3)
Ozone is never administered directly into the bloodstream. 4) The byproducts of
ozone-tissue chemical reactions are readily metabolized by the liver and
kidneys. The ozonides and peroxides formed by ozone-lipid contact are not toxic
as is ozone when directly contacting tissues. It is for this reason that ozone
bubbled through olive oil by a diffuser can be used in inhalation therapy
without causing damage to the respiratory system.
5) As mentioned above, ozone
itself is not a free radical, for it has paired electrons in its outer orbit. It
is, like water, a magnetic dipolar molecule, represented by the chemical picture
O=O-O, involving an ionic bond. The magnetic potential of a dipolar molecule
prevents the formation of free radical in aqueous environments of pH less than
8, a pH not found in the body.
However,
as the ozone molecule reacts with substances in the body, such as reduced
glutathione, it gives rise to an unstable O3 molecule which ultimately results
in the generation of a hydroxyl radical, the most potent oxidant known in
chemistry.
A
general synopsis of the positive effects of the introduction of ozone into
biological systems
Paracelsus
was the first physician to observe that like cures like. For example, vaccines
(the injection of microbes) kill microbes by stimulating a process that allows
the body to eradicate the offending microbes. And so it is with ozone.
The
Arndt-Schultz phenomenon states that a substance is stimulating in a small dose,
modulating in a larger one, and suppressive in a still larger dose. And again,
so it is with ozone.
Finally,
the state of free radical oxidant stress is caused by a lack of free radical
buffering ability that is really the cause of the buildup of excess free
radicals. Ozone “turns on” the free radical buffering systems and remedies
this problem.
When
we take these three statements together, we find that ozone therapy offers a
very effective solution to health problems. When correct doses of ozone are
given, it stimulates free radical buffering systems, it can kill bacteria
(bactericidal), viruses(virostatic), fungus(fungicidal), and
parasites(parasiticidal), and it stimulates the production of all the cytokine
systems of the body, specifically interleukin -2 ( secreted by T helper cells),
interferon, and tumor necrosis factor, and stimulates the production of white
blood cells. Thus, it eliminates microbes by direct kill and indirectly as in
the vaccine example.
In
a paper published in early 2004 in the journal “Science”, a group of
researchers from Scripps Institute in San Diego, California, has demonstrated
that all antibodies appear to make ozone.
In
addition to being valuable in antimicrobial therapy, ozone breaks down
petrochemicals, increases the flexibility and elasticity of red blood cells, and
oxidizes arterial plaque. Very importantly, it increases the red blood cell
enzyme 2, 3 DPG, which catalyzes the release of oxygen from red blood cells into
tissues, and very importantly, accelerates the Krebs or citric acid cycle. We
will discuss this last and very important benefit of ozone below.
Ozone
and the Production of Energy
The feature characteristic to all chronically ill patients is that they
produce insufficient energy. This is seen as a lowered core body temperature,
decreased ATP production, and lowered basal metabolic rate. Assuming that there
is normal cardiopulmonary function and no anemia, possible causes of deficient
energy metabolism are 1) increased fibrin accumulation in capillaries due to
abnormal clotting from immune causes 2) decreased cellular uptake of substrates
of fat and glucose, due to chronic insulin excess secondary to insulin
resistance. (This is always a problem in diabetics and persons over 50 years of
age.) 3) Mitochondrial dysfunction,
where glucose metabolism takes place.
Mitochondrion
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Energy in the body is derived from fats,
carbohydrates (glucose), and proteins, but no matter the source, products of
their metabolism ultimately end up in the citric acid cycle.
The
amount of energy released from one mole (180 grams) of glucose is 686,000
calories. Of these, 230,000 calories are used for heat and 456,000 calories can
be stored in the form of ATP, adenosine triphosphate, the primary energy
currency of the body. ATP is present everywhere in the cytoplasm and nucleoplasm
of cells. Essentially all
physiological mechanisms that require energy obtain it from ATP and another high
energy phosphate, guanosine triphosphate. There are two high energy phosphate
bonds per ATP molecule, and the energy released from one of these high energy
phosphate bonds under normal body conditions is 12,000 calories.
There are four phases of
glucose metabolism in the production of energy in the form of ATP.
Two Forms of the Glucose Molecule
The
first stage is glycolysis, which yields pyruvic
acid and 2 molecules of ATP from each molecule of glucose and
releases four hydrogen atoms.
The
next stage is the formation of acetylcoenzyme A, accomplished
by combining the pyruvic acid with coenzyme A, a derivative of
pantothenic acid. This reaction forms no ATP but releases four hydrogen atoms,
which later are used to create more ATP in the citric acid cycle and electron
transport chain.
Citric
Acid Cycle
Acetylcoenzyme
A initiates the citric acid cycle. The citric acid cycle releases sixteen
hydrogen atoms. These hydrogen atoms must be transferred through the eight steps
of the citric acid cycle. This is carried out by nicotinic adenine dinucleotide
(NAD+). Each NAD+ is converted to NADH in three steps of the citric acid cycle.
FAD is converted to FADH2 in step six of the cycle similar to the
production of NADH. Buildup of pyruvic acid (caused by inadequate oxygen) and
NADH stop the glycolytic process. For each molecule of glucose the citric acid
cycle occurs twice, giving the net production of two more molecules of ATP.
Electron Transport System
FAD
and NAD are supplied by oxidative phosphorylation, the major source of energy
production in the body. This catalyzes the reduction of hydrogen and formation
of water, releasing ATP. NADH and FADH2 are supplied by the citric
acid cycle, and thus oxidative phosphorylation and the citric acid cycle are
mutually dependent. When one system slows down, so must the other. In
chronically ill patients it is found that there is a lowered NAD/NADH ratio
signifying a blockage, so to speak, at the level of oxidative phosphorylation.
By using ozone to oxidize NADH to NAD and FADH to FAD increased levels of
coenzyme A are available to fuel the citric acid cycle and oxidative
phosphorylation. Some studies have shown a total increase of 40% in ATP
production after ozone therapy and an increase in lowered NAD/NADH ratios found
in all ill persons.
It
should be noted that the best source of acetyl CoA is from fat metabolism.
Acetyl CoA only lasts 2 hours in the system. As we grow older, fat metabolism
becomes more inefficient and we burn glucose instead to form acetyl CoA. Glucose
is more easily exhausted and thus so is the older patient who complains of brain
fatigue. Also, the brain can only
generate acetyl CoA from glucose, not from fat.
Decreased
mitochondrial function may be caused by insufficient coenzyme A production from
glucose resulting in the accumulation of excess lactic acid responsible for the
tiredness and acidosis of the chronically ill. There may also be decreased
coenzyme A production via fat metabolism. Insufficient coenzyme A leads to the
suppression of the citric acid cycle. Also, a decrease in oxidative
phosphorylation can be initiated by viruses, heavy metals, pesticide and
petrochemical sensitivity, and autoantibodies. By oxidizing NADH and FADH2
to NAD and FAD, medical ozone can correct all these mitochondrial lesions. This
process is best carried out by Major AutoHemoTherapy (MAHT).
During
glucose breakdown from glycolysis through citric acid cycle, 24 hydrogen
molecules are released. Twenty of these hydrogen molecules are converted to ATP
by oxidative phosphorylation in the chemiosmotic process of the electron
transfer system. During this process, up to 3 ATP molecules per each 2 hydrogen
molecules are released, generating an additional 30 ATP molecules.
The
remaining four hydrogen molecules are also released into the chemiosmotic system
to generate 4 more ATP molecules. In total, from glycolysis, acetylcoenzyme A
production, the citric acid cycle and the electron transfer sysytem, 38
molecules of ATP are formed from each molecule of glucose being processed by
this four step process. The citric acid cycle also is oxygen dependent. Without
oxygen the citric acid cycle cannot be completed.
More importantly, without oxygen, the initial step of acetylcoemzyme A
production from pyruvate cannot happen. In the absence of sufficient oxygen,
pyruvate is turned into lactic acid instead of forming acetylconezyme A, a
process which to generates only 6 molecules of ATP and does not allow the
utilization of glucose to proceed through the citric acid cycle and the electron
transport process.
Another
way in which ozone exerts its therapeutic effect is the activation of the immune
system. Here we see the physiological release of cytokines (interferones,
interleukins, and tumor necrosis factor). It has been shown that the dose of
ozone responsible for maximum release of cytokines is 78 gamma. This suggests
that ozone has an indication for diseases accompanied by an immune deficiency,
such as an additional therapy for types of cancer.
Ozone
also activates red blood cells by increasing ATP and 2, 3 diphosphoglyerate
which more readily allows oxygen to be released from hemoglobin and thus more
available to tissues. Here the indication for ozone could be for any circulatory
disorder, peripheral or central (e.g. cerebral arterial).
Another
group of chemicals activated by ozone are enzymatic antioxidants and radical
scavengers such as super oxide dismutase, catalase, and reductase, are induced
and activated, thus increasing the organisms antioxidative capacity. The
mechanism of this process has been shown to be the enhancement of the
glutathione peroxidase system. The
glutathione peroxidase system is primarily responsible for the antioxidant
buffering system of the body, although we also have superoxidases, catalases,
and reductase. Increased production and enhancement of these systems is
stimulated by treatment with ozone. In this scenario, vitamin E and C can only
support these antioxidant buffer systems but by themselves cannot correct the
basic lesion. Therefore ozone is beneficial for treating inflammatory processes
such as arthritis, strained muscles, trigger points, vascular diseases, and
aging.
Ozone
also directly kills microorganisms, as already mentioned.
I
have been asked the question, “Could these phenomena be due to oxygen
alone?” The answer is no. Research has shown that only the addition of ozone
will cause or enhance the above mentioned phenomena.
IV
Techniques in the Administration of Medical Ozone
Major
Autohemotherapy
Major
autohemotherapy is the major form of systemic ozone application. The reaction
mixture of ozone and the patient’s whole blood takes place extracorporeally
and is infused back into the patient, containing activated and lysis resistant
enhanced red blood cells and activated immunocompetent cells.
Blood is removed from the
patient, 50 to 250 ml in humans, 25 to 100ml in dogs and cats, and 250 to 1000
ml in the horse. Most practitioners use an aliquot of blood collected in
heparin. Calcium chloride is added to the heparinized blood as calcium ions
enhance the action of ozone. The heparinized blood is combined with an equal
amount of medical ozone at 70 to 80 gamma concentration. (Hemolysis of only
0.2-0.5 percent of total red blood cells occurred when human whole blood was
exposed to 100gamma ozone.) This
solution is then mixed by gentle inversion. According to Dr Velio Bocci, the
period of mixture of blood and ozone should be done for at least five minutes to
be most effective. This blood-ozone mixture is infused back into the patient as
with any other blood infusion or transfusion.
Collection
and administration of blood is best done in glass bottles or syringes. It has
been shown that the number of plastic particles is increased dramatically in
ozonated fluids collected in plastic containers. In dogs and cats, I often
infuse the ozonated blood back into the patient by injecting it
intraperitoneally instead of intravenously. This route of administration seems
to be equally effective. This procedure is repeated every one to seven days
depending upon the condition. This procedure should greatly enhance surgical
healing and anesthesia recovery when done before and after surgery. In general,
an obvious and immediate increase in vitality, appetite, and competitiveness is
noted in people, dogs, cats, and horses
Case
History: Beth Lang, 6 years old Malemute, Hepatic cirrhosis and cadmium
intoxication resolved using major autohemotherapy
SGPT
ALK PHOS GGT T.BILI
Date
2/29
3014
3309
245
1.2
3/12
2769
2865
161
2.8
4/1
3314
3250 45
4.8
4/21
3543
1918 27
2.1
5/11
2213
1103 26
1.4
6/6
1329
810
23
1.7
7/11
449
508
12(N)
2.0
(Returned
to internist 8/1)
8/2
357
379
?
0.71(N)
Case
History:Angel Kahn - 10 year old female sheltie
Treatment:
Rectal Insufflation only
Cushings
Disease + Terminal Kidney Failure
Pre
O3/5-25 Post O3/5-29
PostO3/6-15
BUN
107
79
64
Creatinine
9.1
2.7
2.3
Phosphorus
8.6
8.2
6.9
Rectal
Insufflation
Equipment
needed: a rectal inflation bag (available from the Ozonosan Corporation-Germany)
or a large 12 to 150 cc syringe depending upon the size of the animal patient to
act as ozone reservoirs or delivery systems, and polyvinyl female urethral
catheter(12 gauge 18 inch works well for humans) again depending upon the size
of the patient. Most small animals take a 12 gauge, 8-16 inch polyvinyl urethral
catheter. Small cuffed endotracheal tubes and various diameter Foley catheters
also work well in small animals. Ozone concentration should be 20-30 gamma. Dogs
will take 20 to 150 ml volumes of ozone comfortably, depending on their size.
Infusion is best preceded by an enema, although an enema is not entirely
necessary. Cats comfortably take up to 25 ml. Ozone should be retained for 40
minutes to be effective. We use rectal infusions for 80% of our small animal and
equine patients, and could easily justify its use in 100% of all medical and
surgical problems. It is very well tolerated (accepted by both animals and their
human companions). Invariably there is an immediate increase in vitality and
appetite after the first administration.
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Vision Map of Retina with Retinitis
Pigmentosa
Minor
Autohemotherapy
Fill
the syringe with a volume of 37 gamma ozone equal to the amount of blood to be
injected. Draw the blood into the syringe with gas and mix them gently for at
least 30 seconds (I try for at least one minute and have gone up to five minutes
without the blood clotting). Remove the dead space left by the gas and inject
the blood only intramuscularly. Inject 3 to 12 cc of blood in cats and dogs,
depending upon the size of the patient. I have also injected the blood
intraperitoneally. By the intraperitoneal route the amount of blood injected can
be much larger and the blood and gas can mix longer without danger of causing
clotting problems.
Limb
Bagging
Extremities
are placed in limb bags specially made for this process which may be purchased
from the Ozonosan Corporation or standard trash bags can be used to encase the
limb being treated. The bag is wrapped from distal to proximal with an ace
bandage to expel air and sealed at the top with tape. The ace bandage is removed
and the bag is filled with ozone (80-90 gamma for infection, 40 gamma for wound
healing. The gas is retained for 30-40 minutes. Treatments are one to two times
per day.
Ozone
in Water
Ozone is very soluble in water. Eighty gamma ozone is bubbled through a
column of double distilled water with a diffuser at a flow rate of 125ml per
minute for 25 minutes. This will give a concentration of 30mcg ozone per ml of
water. At room temperature it has a half life of 10 hours. Refrigerated it has a
half life of 24 hours. Using
mono-distilled water will decrease the half life to only a couple of hours. The
latter is great for drinking.
Ozone
in Saline
Using
the diffusion technique, as above for water, higher concentrations of ozone can
be achieved in saline. This is advantageous because physiological saline is
kinder to tissues and can be used to instill into the bladder, vagina, ears,
rectum, and eyes. It can be used for irrigation of large surface wounds to
vastly increase healing rates. It can also be injected into necrotic tissue.
This solution can also be given intravenously. Ozonated saline is excellent for
flushing chronically infected nasal passages and sinuses in cats following viral
infections to abort chronic sinusitis. 37 gamma ozone is used for sensitive
tissue surfaces.
Ozone
Directly into Joints
Thirty
seven gamma ozone is injected directly into the joint via a 25 ga ¾ or 1 ½”
needle depending upon the size of the animal. The injection is directed even
more point specifically if the ozone is to act as a proliferative agent for
prolotherapy. For instance in the case of cruciate ligament tears or patellar
luxations the specific targets for injection are the cruciate ligaments, the
femoropatellar ligament, and the medial and collateral ligaments. These
injections can be preceded by 2% lidocaine which will cause little to no pain
reaction when the ozone is introduced. Immediately
after injection the patient may favor the involved limb for a few hours followed
by improvement in the condition. Pet owners should be made aware that this will
occur. Cruciate ligament tears should be treated once to twice weekly for two to
three weeks.
Prolotherapy/Sclerotherapy
37
gamma ozone should be used as a proliferative agent for sclerotherapy. The
treatment may or may not be preceded by a local anesthetic depending upon the
sensitivity of the patient.
Acupuncture
(ozone-puncture)
Ozone
used at acupuncture points has given me better results than aqua puncture using
vitamin B12 at the same points for the same condition. For instance, K3, UB 60,
Du 1, Ren 1, Ren 3, UB40, UB 36, and the ba liao points work much better to
control urinary incontinence in dogs using ozone gas injections than does the
same treatment using vitamin B12.`37 gamma ozone is used.
Trigger
Point Injection and Muscle Spasms, especially Quadratus lumborum and Iliopsoas
muscles
Inject
one to two cc’s of 37 gamma ozone into trigger points, motor points, and along
the entire length of palpable muscle spasms. There is no more pain than
experienced with the injection of local anesthetics into a muscle; therefore, no
preinjection with local anesthetics is necessary. There will be only momentary
pain immediately after the injection. One to two injections two to three days
apart should be all that is necessary to resolve these myofascial pain regions.
Ozone
in Olive Oil
Ozonated
olive oil is very effective when used topically for any skin condition such as
eczema, herpes, fungal dermatitis and paronychia. For topical application it is
best made by bubbling 40 gamma ozone through olive oil in a column via a
diffuser at the bottom for 36 hours until it reaches the consistency of
Vaseline. Eye drops which are used for treating corneal ulcers and
conjunctivitis can be made by bubbling 40 gamma ozone through olive oil for
about one hour.
Inhalation
While
ozone is very toxic to the respiratory mucosa, it can be bubbled through olive
oil which causes the production of peroxides and ozonides that are non toxic to
the respiratory epithelium.
Subconjunctival
injection
Twenty
gamma ozone is injected into the sinuses or subconjunctivally for chronic
conjunctivitis and as an aid in the treatment of indolent corneal ulcers.
Tonsilitis
One
injection of 37 gamma ozone usually resolves chronic(or acute)tonsillitis. The
patient must be anesthetized. For some reason, probably the embryonic connection
of stomodeal and proctodeal membranes, Injecting tonsils with 37 gamma ozone
will usually resolve chonic colitis.
Gingival
and Tooth Apex Injection
This
is the area where the gingival meets the buccal mucosa. First inject ½ to 1 cc
of an appropriate local anesthetic into the area corresponding to the root of
the tooth you are treating. This is followed by one to five cc of 33 gamma ozone
into the same area. Here we are treating osteomyelitis and are essentially
eliminating the need for root canals. Osteomyelitis is readily controlled and
eliminated with ozone therapy.
Urinary
Bladder Insufflation
The
empty urinary bladder is filled with 37 gamma ozone over a period of 1-2
minutes. The ozone is retained for twenty minutes.
Cervical,
Thoracic, and Lumbar disc protrusions
The “Discosan” method refers to a
mode of treatment of herniated discs developed by an Italian orthopedic surgeon
in 1984. He has since treated more than 6000 cases, with a 95% success rate.
Chronic
and acute disc problems are treated in the same way injecting about 3-5 cc’s
of 37 gamma ozone via a 25 gauge 1 or 1 ½ inch needle in dogs. Inject the areas
just lateral to the posterior edge of spinous processes of the disc space
involved, the one anterior and the one posterior to it. Aim for and try to touch
the bone of the articular facets of the vertebrae mentioned above. I also inject
the interspinous spaces. Treatments are repeated twice to three times weekly
until resolution, which will be 2 weeks to 2 months. As an alternative,
injections can also be done into the paravertebral muscles at the level of the
disc problem. If one has access to imaging equipment for needle placement and
ozone injection directly into the disc, resolution of the problem is much
accelerated. Go lightly on the
local anesthetics if you precede the ozone injections with local anesthetics.
Too large a quantity of local anesthesia in the region of the spinal foraminae
can lead to temporary or pseudo paralysis.
Plate
above shows disc protrusion: Plate below after 12 O3 treatments
Tumors
Tumor
cells have a high intolerance to peroxides. These inhibit tumor growth by about
40-60% although do not ultimately seem to be curative. Ozone can be injected
directly into the tumors but works just as well by injecting around the tumor. I
use 37 gamma ozone.
V
Conditions for Which Ozone Has Been Used and Case Histories
The
literature is filled with treatments for so many common and many not so common
problems, that I will simply list some of these (in addition to those already
mentioned) and suggest that the bibliography or the readers imagination be
consulted for specific treatment protocols.
Coronary artery disease,
atherosclerosis, angina, Reynauds disease, Buergers disease, microvascular
disease such as those associated with diabetes, gangrene, burns(chemical and
thermal), intermittent claudication, macular degeneration, retinitis pigmentosa,
chronic infections including herpes I and II, hepatitis B and C, Epstein Barr,
Cytomegalovirus, HIV, mycoplasma, TB, cytomegalovirus, Lymes Disease, mycoses,
Giardiasis, non healing wounds, osteomyelitis, cystitis, proctitis, dental and
gum disease, tonsillitis, osteoarthritis, hypercholesterolemia, ischemic
cerebrovascular disease, an adjunct to cancer treatment, antiaging/cerebral
atrophy, gynecological disease especially if infectious, osteoporosis,
Parkinson’s disease, rheumatoid arthritis, peritonitis, silicon induced immune
dysfunction, snakebite, chronic fatigue syndrome, fibromyalgia, enhancing brain
function and athletic performance.
VI
Summary
Medical
ozone is an effective and safe treatment modality when used properly. The only
way one can get into trouble is by administering the gas directly intravenously.
Never use room air, only pure oxygen, to generate medical ozone. Room air will
generate highly toxic nitrous and nitric oxides.
The
only known contraindications in medical syndromes are uncontrolled
hyperthyroidism, and fauvism (deficient G-6-PD enzyme, the oxidant protection
system of red blood cells), thrombocytopenia, and serious cardiovascular
instability. We always, in addition, like so many other treatment modalities,
list pregnancy under this heading, although personal communications suggest an
enhancement of fetal development and birth processes by the use of ozone.
Always
use an ozone generator from a reputable company. No homemade versions please.
The machine should be able to be calibrated and its ozone output periodically
checked for reliability.
Use
concentrations of 80 gamma for disinfection only once or twice for direct
introduction into tissues for disinfection purposes. This concentration inhibits
tissue regeneration. Then use lower concentrations of around 37 gamma or less to
effect tissue healing. This concentration will also be effective in disinfecting
tissue. Use ozone in any and all
disease conditions to enhance whatever modalities you are already using.
“Imagination
is more important than knowledge.” Albert
Einstein.
Bibliography
1.
Flood Your Body With Oxygen
by Ed McCabe, Energy Publications 6th edition, 2003
2.
The Use of Ozone in Medicine
by R. Viebahn-Haensler, Karl F Haug, publisher, 1999
3.
Oxygen-Ozone Therapy, a Critical Evaluation by Dr Velio Bocci, Kluwer Academic Publishers,
2002
4.
Oxygen Healing Therapies
by Nathaniel Altman, Healing Arts Press, 1998
5.
Second International Symposium
on Ozone Applications Abstracts, 1997,
Havana, Cuba
6.
Principles of Medical
Biochemistry by Meisenberg and
Simmons, Mosby Publications, 1998
7.
The Extraordinary Chemistry of
Ordinary Things by Snyder, John Wiley
and Sons Publishers, 2003
8.
Fundamentals of Organic and
Biological Chemistry by McMurray and
Castellion, Prentice Hall Publishers, 1999
9.
Textbook of Medical Physiology
by Guyton and Hall, W.B. Saunders Publishers, 1996
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