SUSPENSIO MAGNETITE

Professor Besik V. Surguladze

 

SUSPENSIO MAGNETITE 0,5%

Registration Certificate of pharmacological committee of Georgia № 00031/93 (06 04 1993)

 

«0,5% Suspensio Magnetite» is the suspension of  Ultra (High) Dispersive Magnetite particles.

Active components of «0,5% Suspensio Magnetite», – Ultra disperse Magnetite particles are spherical form and 10 – 50 nm. in size. The magnetic particles are not stabilized by surface active components and aggregates in more big units, 300 – 500 nm. Because of described aggregation of particles, suspension is un-stabile. Experimental investigations of medico-biological characteristics show, that "0,5% Suspensio Magnetite" is characterized by bactericidal and bacteriostatic activity. Magnetite particles can adsorb and block toxic components as bacterial as metabolic origin, increase neutrophils phagocytic and mononuclear cells proliferating activity, stimulate producing of Interleukin – 1 and other factors of grow by macrophages. «0,5% Suspensio Magnetite» is X-Ray contrast and magnet-sensitive. «0,5% Suspensio Magnetite» was registered by pharmacological committee as a remedy for Intraoperative Treating of Abdominal Cavity During The Operations Because Of Peritonitis. Unimag http://att.host.ge/Unim.htm

 

Registration Certificate of pharmacopoeia committee of Georgia № 751-02 (03 10 2002)

 

Unimag is the Stabile suspension (magnetic Fluid) of Ultra (High) Dispersive Magnetite particles (25 mg. ultra-disperse magnetite in 1 ml of magnetic fluid). Active components of Unimag , -Ultra-Disperse Magnetite particles are spherical form and 10 – 50 nm. in size.

Experimental investigations of medico-biological characteristics show that Unimag is characterized by bactericidal and bacteriostatic activity. Magnetite particles can adsorb and block toxic components as bacterial as metabolic origin, increase neutrophils phagocytic and mononuclear cells proliferating activity, stimulate producing of Interleukin –1 and other factors of grow by macrophages. Unimag is X-Ray contrast and magnet-sensitive. At the same time Unimag can easily be loaded by water solved remedies. Because of high penetrating properties due to ultra-disperse size of magnetite particles, Unimag easily penetrates in tissue together with loaded remedies, and furthers successful treating of different etiology and localized inflamed processes of soft and bone tissue.

 

METHOD OF INTRAOPERATIVe treating of abdominal cavity by «0,5% suspensio magnetite»

On the base of the pre-clinical investigations of general toxicity and the dates of learning the general and specific pharmacological activity of high disperse magnetite (HDM), at the same time the dates received by clinical approbation of «0,5% Suspensio Magnetite» was registered by pharmacological committee of Georgia as the remedy for intra-operation treating of abdominal cavity during the operation because of peritonitis (clinical approbation «0,5% Suspensio Magnetite» was cared out in: № 4 clinical hospital of Tbilisi, Republic sepsis center of Georgia, Central republic hospital of Georgia, republic Hospital of Kutaisi and et set.).

The analyze of clinical materials showed high affectivity of the method of intraoperative treating of abdominal cavity by «0,5% Suspensio Magnetite» in the complex of treating and prophylactics of pyo-septic complications of peritonitis offered by us.

The Learning of acting mechanisms of  «0,5% Suspensio Magnetite» convinced, that HDM actively takes part in the process of fighting aggressive factors, compensates some broken functions of detoxification system of organism. The main question in this direction is the decision of the problem of local inflamed processes, as the main source of the toxic components. The presence of the infection agent, destruction of tissue, broken micro circulation and metabolism increase the possibility of penetration of toxic components of peritoneal exudates deep in the tissue and bloodstream. The considerable reduction of the quantity of microbes (Figure I) on the peritoneum after its intraoperative treating by «0,5% Suspensio Magnetite», is playing main role in the detoxification of organism.

 

 

Figure I. Seeding of peritoneum
1- Intraoperative treating of abdominal cavity by 0,5% Suspensio Magnetite”in the case of peritonitis.
2- Intraoperative treating of abdominal cavity by 1% solution of “Dioxidin” in the case of peritonitis.

 

Undoubtedly, decreasing of pathogenic activity of microbes under the influence of HDM is important, because even after careful lavage of abdominal cavity by difference solutions, the big quantity of microbes still stays on the surface of peritoneum, which on the background of decreasing intensity defensive manifestations of organism, are breading post-operation period, have ideal thermostatic conditions. Suppression of growing and toxicity left in abdominal cavity microbes under influence of HDM, evidently promotes to improve the efficiency of detoxification and antibacterial therapy. From our point of view, bactericide and bacteriostatic activity of HDM, apart from destroying the cover of microbes, is the result of adsorbing and blocking nucleon acids, that do not allows realization of their pathogenic functions.

Due to high disperse condition, the magnetite particles easily adsorb the toxic components of peritoneal exudates as bacterial as well as metabolic origin (Table 1).

The investigations showed, that the toxic components are blocked due to adsorption on HDM. From our point of view the block of toxic components is the results of binding their active radicals (I AU of HDM is 1 ml. of suspension in 1/80 rate of solution).


Table № 1
Influence of UM on toxic components of peritoneal exudates

 

Hemolyze indicator

+ ++ +

+ +

- -

- -

Quantity of UM (AU)

0,01

0,02

0,03

0,04

 

Morphological investigations showed, that HDM particles adsorbs on the surface of peritoneum at the places were the mesotheliocytes are damaged (Figure II), that is, were is bared the basal membrane, witch will be imaged as open doors for the penetration of aggressive factors. Seated at this place HDM particles are hindering from the penetration of infection in the depth of tissue.

Breaking of micro-circulation, catastrophically low rate of protein in the blood and increasing of metabolic processes leads to the protein starvation of tissue and breaks the circle of binding of toxins as bacterial as metabolic origin and their transport thru the membrane of eliminated cells. Even the macrophages with the high phagocytic activity can not realizing fully their function with presence of toxins due to lack of transport units.

HDM particles are recognizing by phagocytes as antigens and will be absorbed by them (Figure III).

 

    

 

Figure II. High disperse magnetite particles on the surface of peritoneum. Light microscopy x 300.

 

If we take into account, that because of high disperse condition HDM actively adsorbs high molecule radicals including toxic components, it will be possible to conclude logically that the magnetite particles will be phagocyted by phagocyte cells together with adsorbents, witch will be easily eliminated by lysosome ferments. The HDM will be removed from the cell in not changed condition, because it does not enters in to chemical reactions with the ferments of lysosomes.

 

 

Figure III. Peritoneal macrophages with HDM particles inside of phagosomes.

Electron Microscopy x20 000

 

Removed from the cells HDM particles by clasmatose joins to analogical circle of detoxification as transporter of toxic components and by this somehow compensate the lesions in the circle of adsorbing and transport of toxins through the membrane of phagocytes.

Radio-immunologic methods proved that HDM particles lead to the excretion increasing of Interleukin -1 and other grow factors by macrophages, which is very important for increasing of reparative processes.

The morphological investigations showed that after intraoperative treating of abdominal cavity of patients with peritonitis by “0,5% Suspensio magnetite” the reparation processes in lesion areas begin in 4-5 days early, then in the control (Figure IV).

 

 

Figure IV. Reparation of peritoneum Light microscopy x 300.

It is proved that adsorbed at the places of damaged mesotheliocytes HDM particles gradually move in the depth of tissue, penetrate in bloodstream, adsorb on erythrocytes and will be phagocyted by neutrophils. Phagocyted by macrophages HDM particles move to lymphatic capillaries (Figure V, VI).

 

         

 

Figure V. Adsorbed on the erythrocytes and phagocyted by neutrophils HDM particles in the blood capillaries and macrophages with phagocyted HDM particles in the lymphatic capillaries. Light microscopy x 300. Coloring by Hematoxiline-Eosine.

 

         

 

Figure VI. HDM particles in lymphatic nods  Light microscopy x 300. Coloring by Hematoxiline-Eosine

 

The system of binding and transportation of toxic components mainly are located in the circulated blood. The buffer systems, different proteins, form elements of blood and et cet., are related to the above mentioned.

Accumulation of acid components in the blood in abundance quantity, break the excretion of and-products and their neutralization are accompanied with breaking buffer system of organism, decreasing protein-creating ability of liver and catastrophic hypoproteinosis.

If we take into account the above mentioned, increasing energetic possibilities and transport function of erythrocytes after intraoperative treating of abdominal cavity by «0,5% suspensio Magnetite» our attention will draw. In this direction it is also important to create a native net by thrombocytes targeting at the binding of toxic components. Learning morpho-functional alterations of the form elements of blood (Figure VII, VIII) showed, that because of interaction with HDM particles the lymphocytes acquires the ability of adsorption and transport of high-molecular radicals of different origin and by this somehow support detoxification possibilities of organism.

 

 

Figure VII. Blood after 12 hour of intraoperative treating of abdominal cavity

by «0,5% Suspensio Magnetite». Light microscopy 10 х 2 х 100

 

 

Figure VIII. Blood after 48 hour of intraoperative treating of abdominal cavity

by «0,5% Suspensio Magnetite». Light microscopy 10 х 2 х 100

 

The radio-immunologic investigations showed that HDM is characterized by a comitogen activity, that leads to increasing the proliferate activity of initiated lymphocytes.

For the stimulation of reactivity of organism the increasing phagocytic activity of neutrophils (Figure VIIII) is very important. Investigations showed, that after intraoperative treating of abdominal cavity of patients with peritonitis by «0,5% Suspensio Magnetite», mainly increases phagocytic number and phagocytosis completing index. From our point of view the fact, that neutrophils better absorbs lesion by HDM microbes, plays a big role in decreasing the seeding rate of peritoneum by microbes in post-operation period.

The clinical investigations showed, that lowering the seeding of peritoneum and concentration of toxic components as in pathologic area as well as in blood stream, increasing of elimination of aggressive factors, binding of lasts in untoxic complexes, reinforcement transport as through the membrane of eliminated cells as to the organs of physiological detoxification due to biological activity of magnetite particles, lead to rapid regression of inflammation processes and smooth the flow of after-operation period.

 

 

Figure VIIII. Influence of intraoperative treating of abdominal cavity by “0,5% Suspensio Magnetite”

on phagocytic activity of neutrophils of peripheral blood of patients with peritonitis in toxic phase.

(1 day after operation)

 

Profound lesions of homeostasis, due to peritonitis besides hypoproteinosis leads to the accumulation of a big quantity of metabolites with breaking nitrogenous balance. Before the operation in control and in group of observation of patients with disseminated forms of peritonitis concentration of rest nitrogen in the plasma and urea nitrogen in the serum was marked high. In all patients the catastrophic hypoproteinosis took place. This appearance naturally was expressed more in toxic and terminal phases of peritonitis. In the group of observation in postoperative period faster normalization of indicators of the rest nitrogen in the plasma comparatively of control dates took place more (Figure X). We took into account the fact that at the same time, the concentration of urea nitrogen in serum was not reduced (Figure XI). From our point of view lowering the concentration of the rest nitrogen in the plasma, is the result of reducing amino-acid nitrogen due to active involving of them in the processes of biosyntheses of proteins. Our opinion on increasing protein-creating function of liver is proved by results of learning dynamic concentration rate of total protein in the plasma of patients in the postoperative period (Figure XII).

 

 

Figure X. Alteration of concentration of rest nitrogen

in the plasma of patients operated in the toxic phase of peritonitis.

 

Figure XI Alteration of concentration of urea nitrogen

in the serum of patients operated in the toxic phase of peritonitis.

 

 

Figure XII Alteration of concentration of total protein

in the plasma of patients operated in the toxic phase of peritonitis.

 

The investigations showed, that before operation in the patients of both groups the concentration of urea nitrogen in the serum was moderately high and stood at the top of the norm. In the postoperative period in the patients control group together with, it is true, insignificant, but nevertheless improvement of excretory function of kidneys (Figure XIII), sharp lowering of concentration of urea nitrogen in serum took place. The above mentioned indicates that the before operation in the serum of patients with peritonitis increasing concentration of the last was not the result of increasing of syntheses of urea in the liver, but it was caused by lesion of excretory function of kidneys due to increasing endogenic intoxication of organism. As for patients of the observation group, in this case, in the postoperative period sharp dynamic of increasing of concentration of urine nitrogen in the urine took place. However in spite of the considerable improvement of excretory function of kidneys, the concentration of urea nitrogen in the serum was not lowering and had certain tendencies of increasing. This fact indicates the considerable increase of urea-genesis function of liver patients with disseminated forms of peritonitis. The investigations showed, that HDM is comitogens. We took into account and mentioned the fact that in case of peritonitis, the lymphocytes, from the very beginning meets aggressive factors, we can easily explain faster stabilization of immune system of patients of the observation group comparatively with the control one.

 

 

 

 

Figure XIII. Alteration of concentration of urea nitrogen

in the urine of patients operated in the toxic phase of peritonitis.

 

Besides the improvement of functional condition of liver, we drew our attention to the considerable increasing of reactivity of T-cells unit of immunity after intraoperative treating of abdominal cavity of The received results prove the lesion of immune status with all phases of peritonitis, that is expressed by lowering total quantity of T lymphocytes (T3), helper-inductors (T4) and raising the quantity of suppressor-cytotoxic (T8) cells with sharp lowering of correlation index of regulating cells T4/T8 (Figures  XIV, XV, XVI).

 

 

Figure XIV Alteration of quantity of T3 cells

in the peripheral blood of patients operated in the toxic phase of peritonitis

 

 

Figure XV. Alteration of quantity of T4 cells

in the peripheral blood of patients operated in the toxic phase of peritonitis

 

 

Figure XVI. Alteration of quantity of T8 cells

in the peripheral blood of patients operated in the toxic phase of peritonitis

 

The level of lesion of T cells unit of immunity, in particular, lowering the quantity of lymphocytes with phenotypes HP3+ and HP4+ directly relates with the depth of illness.

The intraoperative treating of abdominal cavity of patients with peritonitis by “0,5% Suspensio Magnetite” leads to the faster normalization of total quantity of lymphocytes, a sharp raising of quantity of helper-inductors and accordingly lowering quantity of suppressor-cytotoxic cells. In the results mentioned, the raising of correlation index of regulating cells took please. Alike picture is observed in all phases of disseminated peritonitis. From our point of view, the sharp inverse of regulating cells, that is, the decline of correlation index out of norm is the compensating appearance.

As it was mentioned above, rising of quantity of adult lymphocytes in the periphery blood of patients is more intensive in the group of observation. Probably under the influence of “0,5% Suspensio Magnetite” differentiation of adult lymphocytes mainly toward the helper-inductors takes place, that promotes the restoration of lesion balance of given cells. From our point of view the lowering quantity of lymphocytes with phenotypes HP8+ in the periphery blood of patients under the influence of “0,5% Suspensio Magnetite” is the result of mobilization of cytotoxic cells in the zone of lesion.

Lowering seeding of peritoneum and toxicity of microbes left into abdominal cavity after its intraoperative treating by “0,5% Suspensio Magnetite”, binding and blocking toxic components of peritoneal exudates, increasing of mechanisms of adsorption and transportation of toxins, functional condition of liver, reactivity of T cell unit of immunity and phagocyte activity of eliminating cells lead to the sharp lowering of endogenic intoxication of organism.

 

 

Figure XVII. Dynamic of test of  Paramecia

in patients operated in the terminal phase of peritonitis.

 

The investigations showed that in the group of observation faster normalization of indicators of plasma toxicity (test of Paramecia and leukocyte index of intoxication) then in control (Figure 17, 18) took place.

 

 

Figure XVIII. Dynamic of leukocyte index of intoxication (LII)

in patients operated in the terminal phase of peritonitis.

 

Increasing of proliferate processes in the zone of lesion and lowering endogenic intoxication by their side promotes the improvement of treating effects.

The analysys of clinical material showed the efficiency of the intraoperative method treating abdominal cavity by “0,5% Suspensio Magnetite”.

In the group of observation more less percent of postoperative complications are revealed comparatively with the control one (Figure XVIIII).

 

 

Figure XVIIII. Postoperative complications in patients with disseminated forms of peritonitis.

 

The duration of stationary treating of patients was statistically reliable (P<0,05) lowering in the group of observation, comparatively with the control one. It must be mentioned that the effect was more expressed in the toxic and terminal phases of the disease.

The lethality of patients, as in toxic as in terminal phases of peritonitis, was statistically reliable (P<0,05) lower in the group of observation comparatively with the control one (Figure XX, XXI).

It must be mentioned, that the good results ware received not only in the case of the use of intraoperative treating of abdominal cavity by “0,5% Suspensio Magnetite”in the patients with peritonitis but also for the prophylactic of pyo-septic complications in the case of non penetrating traumas and penetrate wounds of abdomen cavity.

The results of clinical investigations allow to conclude that therapeutic effect of «0,5% Suspensio Magnetite» is concerning not only the mechanical cleaning of peritoneum, but lot of medico-biological characteristics of HDM witch promotes the increasing of defensive mechanisms of organism.

 

Figure XX. Average duration of stationary treating of patients.

 



Figure XXI. Lethality in patients with disseminated forms of peritonitis: 1.Toxic phase; 2.Terminal phase.

 

MEDICO – BIOLOGICAL  CHARACTERISTICS  OF  MAGNETIC  FLUIDS

 

Offered by us (Scientific group of Professor Besik V. Surguladze) Magnetic Fluids represents suspension of ultra disperse magnetite particles on water bases.

Ultra (high) disperse Magnetite (in future UM) Fe3O4 is received by the method of chemical condensation of (II) and (III) Iron salts in abundance of NH4OH (Method was elaborated by W. Elmore in 1938, and improved by N.Gribanov in 1986).

Ultra disperse Magnetite particles, received by the method described above, are 10 – 50 nm in size, have spherical form. They are X-Ray contrast and magnet-sensitive.

Experimental investigations of medico-biological characteristics show that UM is characterized by high bactericidal and bacteriostatic activity. After adsorption on the surface and aggregation, UM destroys the cover of microbe and leads it to death (Figure XXII, XXIII, XXIV, XXV, XXVI).

 

 

Figure XXII.  Staphylococcus with magnetite particles on the surface. Electron microscopy X 120.000

 

Figure XXIII.  Aggregation of magnetite particles around the staphylococcus.

Electron microscopy X 60.000.

 

 

Figure XXIV. Staphylococcus with destroyed cover due to aggregation of magnetite particles.
Electron microscopy X 120.000.

 

 

Figure XXV. Escherichia coli with magnetite particles on the surface.
Electron microscopy X 60.000.

 

 

Fugure XXVI. Escherichia coli with destroyed cover due to aggregation of magnetite particles.
Electron microscopy X 60.000.

 

 

The investigations show that for destroying one microbe 107 ultra disperse particles are necessary. In the case of adsorption of ultra disperse particles in quantity less then 107, microbes do not die but decrease their reproductive, toxin production and hemolyze activity.

The results of the biological test show that UM adsorbs and blocks toxins. Adding of UM in different rate of solution on standard thermo-stabile extra cellular toxin of staphylococcus shows, that ultra disperse magnetite only in the rate 1/100 of solution can not block 1 Lh of extra cellular toxin (Table № 1). In the case of using UM in the rate of 1/80 solution the result of the test was semi-positive. It means that 1 ml of UM suspension in 1/80 rate of solution (1017-1018 ultra disperse particles) is 1 AU.

 

Table № 1
Biological test for the determine 1AU of UM.

 

Hemolyze indicator

- -

- -

- -

+ +

+ ++ +

+ ++ +

Solution rate of UM

1/20

1/40

1/60

1/80

1/100

1/200

 

The investigations directed to the learning of interaction of UM with toxic components of peritoneal exudates show that magnetite particles can adsorb and block toxic components as bacterial as metabolic origin. Semi-positive blocking of 0,5 ml of LD100 peritoneal exudates occurs in case of adding of 0,02 AU of UM (Table № 2). From our point of view blocking of toxic components is the result of binding of functional unites of toxic molecules during of adsorption on the ultra disperse particles.

 

Table № 2
Influence of UM on toxic components of peritoneal exudates.

 

Hemolyze indicator

+ ++ +

+ +

- -

- -

Quantity of UM (AU)

0,01

0,02

0,03

0,04

 

Learning of influence of UM on functional activity of mononuclear cells show that ultra disperse magnetite increases proliferating activity of mononuclear cells preliminary stimulated by lectin. The results, received by adding of UM on the mononuclear cells after their stimulation by lectin are statistically reliably (P<0,05) high comparatively with the results received by adding of only lectin (Figure XXVII). It is necessary to note, that the adding of only magnetite do not lead to the increasing of proliferating activity of mononuclear cells (P>0,05). The described dates indicate that UM is characterized by co-mitogenic activity.

The reason of the the definition, was the received effect consequence of direct action of UM on lymphocytes or it was based on increasing of functional activity of macrophages due to interaction with the magnetite particles, we conducted the investigations by dividing mononuclear cells on adhesive and not adhesive parts. Adding only lectin or lectin together with UM to separated lymphocytes do not lead to the increasing of proliferating activity of cells (P>0,05), while the adding of supernatant of macrophages preliminary stimulated by lectin or lectin together with UM, lead to the significant increasing of proliferating stimulation index of lymphocytes (Figure XXVIII).

 

Figure XXVII. Influence of UM on proliferate activity of mononuclear cells.

Figure XXVIII. Investigations by dividing mononuclear cells on adhesive and not adhesive parts.

 

The results received by adding of supernatant macrophages preliminary stimulated by lectin together with UM on separated lymphocytes are statistically reliably (P<0,05) high comparatively with the results received by stimulation of macrophages only by lectin (Figure XXVIIII). The received results provide the possibility to conclude, that magnetite particles increase the producing of Interleukin -1 and other factors of grow by macrophages.

The investigations directed to the learning of influence of UM on neutrophils phagocytic activity show that the magnetite particles are statistically reliable(P<0,05) increasing phagocytic number and phagocytosis completing index, comparatively with the control dates. It was also observed that the tendencies increasing of phagocytic index bat the results were not statistically reliably (P>0,05) different comparatively with control dates (Figure XXVIIII).

 

Figure XXVIIII. Influence of UM on phagocytic activity of neutrophils.

Phagocytic number and phagocytosis completing index was especially increased when microbes preliminary treated by UM was added on the mass of leukocytes . The described results was statistically reliably high comparatively with control dates as well as the results received by adding intact culture of staphylococcus on the neutrophils preliminary treated by UM (P<0,05, P1<0,05).
UM is recognizable by phagocytes as antigens and are exposed by phagocytosis, but it can not be eliminated by lysosome ferments and magnetite particles leave the cell by clasmatosis (Figures XXX, XXXI).

 

Figure XXX. Schematic presentation of processes of phagocytosis and clasmatosis.

 

 

Figure XXXI. Neutrophile with phagocited magnetite particles and processes of clasmatosis.
Light microscopy, coloring by method of Andres, 10X2X100

 

Pre clinical examination of UM show that magnetite particles are not only characterized by the local-irritation and allergic actions, but also with mutagen activity. UM is so un-toxic that it is impossible to determine even the LD50.

On the bases of the research results described above, for the first time in the world we registered in the pharmacological committee two kind of drugs for treating peritonitis and other pyo-septic processes: -"0,5% suspension of magnetite" and -"Unimag".

 

Some  aspects  of  bio – energetic  transformation  in  alive  system

 

Today it is considered, that the oxidation reactions in the cells are the sours of supplies all the vital processes by energy.

It is impossible to calculate general energy – U of alive system. But if system receives a certain quantity of energy assume as heat – Q, after some time it will be presented as energy spent on execution of useful work – ∆W, energy lost on reinforcement of entropy –T∆S (where, T is absolute temperature) and remained free energy – ∆G accessible for the execution of useful work.

 

Q = ∆W + T∆S + ∆G               (1)

           

The executed useful work in alive system will be imagined as energy spend to keep organism in high-organized, otherwise far from balance condition. According to today’s imagination it’s a part of energy spent on creating ATP and other high-molecular matters necessary for the homeostasis, ion dis-balance with cells and area between of cells, etc. By other words, the execution of useful work can be imagined as transformation of free energy in potential chemical energy Epch which after some time can be used again by the alive system for receiving free energy:

 

∆W   ∆G =   ∆Epch               (2)

 

                                    Taken into account the mentioned can be written

 

Q = (∆Epch   ∆G) + T∆S                  (3)

 

The mass and the composition of alive system remaining invariable in spite of a lot of oxygenation reactions and the permanently changed environment that is based on the existence of subtle mechanisms of operation of energetic processes.

It’s a wonder, how it happens, that for the transformation of received energy (as heat from outside or due to oxygenation reactions in chemical energy) by the way of creating ATP or other high-molecule maters, the exactly certain quantity of certain elements in certain space, sharply in certain time of released energy presence in critical distance necessary for the execution of chemical reaction. It mast be received in account that energy released during disintegration of one glucose molecule it is enough for creating 38 ATP molecules.

If we do not admit existence of other labile buffer unite of energy transformation and leaning toward the opinion, that the part of the released energy which was not used for the execution of useful work will be lost only as heat, it is not clear how alive system is successful to keep the temperature in the borders of norm. If we take into account that surface of alive system has possibility of heat-exchange with the surrounding, but the heat released into deep strums of tissue passes to the nearest structures which by their side also produces heat (it’s known that the relation of the heat production with the mass of alive system change widely for the different species while its relation with the area of surface always is permanent) we will see that it could be ineffective and fatal for the organism.

A lot of examples of transformation energy exist in the nature, received by alive system from of oxygenation reactions or by any other way, not only in chemical energy and heat but also in another forms of energy as electrical, light etc.

During the estimation of metabolic processes passed in alive system the possibility of absorbing or receiving energy in corpuscular or waive forms is ignored, notwithstanding absorbing of electro-magnetic waves based on good known method of electro-paramagnetic-resonance spectroscopy as a better way of analyses free radicals maintenance; Photon absorb principle is used in spectral-photometric investigations; It mast be taken into account influence of ionization energy on alive system.

Stability and chemical activity of atoms causes by periphery electrons. In the intact condition of surface atom is stabile, but in the case of presence more or leas electrons expresses tendency of restoration of atom balance. Alive system, alike of another mater absorbs passed corpuscular or waive energy, destroys energetic balance of atom and leads to its chemical activity. The namely alike appearances takes place during the influence of radiation (ionization) on alive system. Especially important ionization and excitement. Atom excitement Energy will be passed to another atoms inside of molecule, it`s named inner converse.  The transmission of energy is possible from excitement atom to the atoms of another nearest molecule. This is named passage or not-radiation converse. Excitement, but not dissociated molecule after some time loses and releases excitement energy and return to the beginning condition, conducting a like as atoms under the thermal influence.

Transformation of released due to electrons moving inside of energetic orbit energy in heat or another kind of energy influences on execution of chemical reactions. Energetically characteristics of free radicals non-stabile electrons determine the oxygenation-restoration potential of alive system. The difference between electric potentials is the expression of the free energy, especially important in thermodynamic notion.

The lack of the free energy as abundance of it, leads to the development of disease. Due to bio-energetic processes, permanent transformation of free energy takes place that by its side naturally leads to the abundance or the catastrophic deficit of energy in any conditional volume unit of tissue. Without existence of subtle mechanisms of transmission and transformation of energy, it could be imaginable keeping of homeostasis and control of permanently passing vital processes.

From our point of view excitement of atoms of alive system, inner and not-radiation converses have please not only under the ionization radiation, but in the case of receiving of any kind of energy, as released during oxygenation reactions as from outside of system in any form (Figure XXXII).

 

 

Figure XXXII. Model of Bio-Energy transformation in alive system.

 

Moving of electron inside of atom on highest level inside of own energetic orbit must give fast, labile possibility of cumulation and transmission of energy, what practically will be imagined as buffer energetic unite – Eb.

 

∆W   ∆G = ∆Epch + ∆Eb                         (4)

 

Energy transformation buffer must be discussed as middle unit in today admitted popular scheme of cumulation and usage of energy for the execution of useful work. Took into account above described № 3 equation will be expressed as shown below

 

Q = [(∆Epch+ ∆Eb) ∆G] + T∆S                  (5)

 

Expressed equation is right in any cases receiving of energy by alive system in any form.

From our point of view, the oxygenation-restoration potential and free radicals quantity oscillation in limited frames of norm in alive system bases on stability of comparative maintenance of water (its dissociated elements) in volume unit of tissue. Exactly of water molecules free radicals valence electrons energy-capacity inside of  energetic orbit and their possibilities of receive and pass energy in corpuscular or waive forms presents basis of existence of bio-energetic transformations labile buffer unite in alive system.

The offered by us model of energy-transformation in alive system do not deny and nor contradict the principles admitted today, on the contrary filings them and gives possibility of better comprehend the passing in alive system energetic processes.

 

 

PUBLICATIONS:

 

1.      Ахалая М. Г., Табагуа М. И., Вольтер Е. Р., Какиашивли М. С. Изучение микроструктуры и магнетизма на поверхности модифицированных малых частиц магнетита. Тбилиси: ГрузНИИНТИ, № 120Г – 54 Депонент 14 с.

2.      Ахалая М. Г., Какиашвили М. С., Берия В. П., Вольтер Е. Р., Табагуа М. И. Магнитные жидкости – управляемые регуляторы биоэнергетических процессов. Труды IV Всесоюзной межуниверситетской конференции по биологии клетки. Тбилиси: ТГУ, 1985.

3.      Ахалая М. Г., Какиашвили М. С., Вольтер Е. Р. Электронные поверхностные состояния в частицах феррофазы магнитных жидкостей. Тезисы докладов IV Всесоюзной конференции по магнитным жидкостям. Иваново: ИЭИ, 1985.

4.      Ахалая М. Г., Какиашвили М. С., Вольтер Е. Р. Магнитные жидкости и регуляция биоэнергетических процессов. Тезисы докладов II конференции по применению магнитных жидкостей в биологии и медицине. Сухуми: ГИСХ, 1985.

5.      Ахалая М. Г., Вольтер Е. Р., Какиашвили М. С., Санеблидзе Л. Г., Хабурзания Г. П. Автоколебательные электрохимические процессы в магнитных жидкостях. Тезисы докладов III Всесоюзного совещания по физике магнитных жидкостей. Ставрополь, 1986.

6.      Ахалая М. Г., Какиашвили М. С., Вольтер Е. Р. Влияние защитных оболочек и кислорода на микроструктуру дисперсных частиц магнитных жидкостей. В книге: структурные свойства и гидродинамика магнитных коллоидов. Свердловск: УНЦ АН СССР, 1986, С. 35 – 43.

7.      Ахалая М. Г., Какиашвили М. С., Закарая К. А., Вольтер Е. Р. и другие. Исследование адсорбционных свойств магнитных жидкостей медицинского назначения. Тезисы докладов XII Рижского совещания по магнитной гидродинамике. Саласпилс: ИФ АН Латвийской ССР, 1987, том 4.

8.      Ахалая М. Г., Алёхин В. П., Вольтер Е. Р., Гальченко Ю. Л. Исследование ферромагнитного резонанса в коллоидах магнетита. М.: Депонент ВИНИТИ № 8692-B 88. 8c.

9.      Ахалая М. Г., Какиашвили М. С., Вольтер Е. Р. Изучение свойств магнитных жидкостей методом ЭПР-спектроскопии. Тезисы докладов V Всесоюзной конференции по магнитным жидкостям. М.: МГУ, 1988.

10.  Ахалая М. Г., Какиашвили М. С., Вольтер Е. Р., Табагуа М. И. К вопросу о струткуре магнитной жидкости. Тезисы докладов IV Всесоюзного совещания по физике магнитных жидкостей. Душанбе: ТГУ, 1988.

11.  Ахалая М. Г., Какиашвили М. С., Вольтер Е. Р. Экспериментальное исследование и моделирование динамики магнитных жидкостей в организме. В кн.: Биокибернетика и биофизика. Тбилиси. Мецниереба, 1989, С. 8 – 28.

12.  Ахалая М. Г., Бибик Е. Е., Вольтер Е. Р.,  Грибанов Н. М., Какиашвили М. С., Наумов    В. Н.  Принципы моделирования транспорта магнитной жидкости в организме. Тезисы докладов III Всесоюзной конференции по применению магнитных жидкостей в биологии и медицине. Сухуми, 1989.

13.  Ахалая М. Г., Какиашвили М. С., Вольтер Е. Р., Нечепуренко Э. А., Чавчанидзе М. Г. Получение и использование магнитных жидкостей с легированной феррофазой. Тезисы докладов XIII Рижского совещания по магнитной гидродинамике. Саласпилс: ИФ АН Латвийской ССР, 1990.

14.  Ахалая М. Г., Какиашвили М. С., Вольтер Е. Р. Фрактальные агрегаты в ферроколлоидах. Тезисы докладов V Всесоюзного совещания по физике магнитных жидкостей. Пермь, 1990.

15.  Ахалая М. Г., Бибик Е. Е., Вольтер Е. Р.,  Грибанов Н. М., Какиашвили М. С., Наумов    В. Н. Капиллярные и термофлуктуационные эффекты при адагуляции коллоидного магнетита на бактериальной стенке. Тезисы докладов IV Всесозной конференции по применению магнитных жидкостей в биологии и медицине. Сухуми, 1991.

16.  Ahalaya M. G., Kakiashvili M. S., Volter E. R. Investigation of the mechanism of magnetic fluid interactions with biological structures. Fifth International conference on magnetic fluids. Abstracts. Riga, 1989, P.266 – 267.

17.  Ahalaya M. G., Kakiashvili M. S., Volter E. R. Antiinflammatory effects on magnetic fluid. Sixth International conference on magnetic fluids. Abstracts. Paris, 1992.

18.  Kakiashvili M. S., Volter E. R. Influence of protective shells and oxygen on the microstructure of magnetic particles in magnetic fluids. Fluidmex, 1989, V. 18, 6, P. 72 – 77.

19.  Ахалая М. Г., Берия В. П., Вольтер Е. Р., Закарая К. А., Какиашвили М. С., Табагуа       М. И. Способ получения магнитной жидкости для биологических исследований. А. С.     № 1185804, Гриф «Т».

20.  Ахалая М. Г., Берия В. П., Вольтер Е. Р., Какиашвили М. С., Табагуа М. И. Способ определения количества жизнеспособных клеток бактерий. А. С. № 1400283,  ДСП.

21.  Ахалая М. Г., Берия В. П., Вольтер Е. Р., Какиашвили М. С., Табагуа М. И. Способ получения магнитной жидкости. А. С. № 1403795,  ДСП.

22.  Ахалая М. Г., Берия В. П., Вольтер Е. Р., Какиашвили М. С., Табагуа М. И. Способ определения уровня активности фагоцитоза лейкоцитов. А. С. № 1403796,  ДСП.

23.  Ахалая М. Г., Вольтер Е. Р., Какиашвили М. С., Табагуа М. И. Способ получения коллоидного раствора магнетита. А. С. № 1405600,  ДСП.

24.  Ахалая М. Г., Берия В. П., Вольтер Е. Р., Какиашвили М. С., Табагуа М. И. Способ моделирования токсической гепатопатии. А. С. № 1628075,  Б. И., 1991, № 6.

25.  Ахалая М. Г., Вольтер Е. Р., Какиашвили М. С., Сургуладзе Б. Г., Эмухвари Д. Г. Способ моделирования асептического перитонита. А. С. № 1649595, Б. И., 1991, № 18.

26.  Ахалая М. Г., Берия В. П., Вольтер Е. Р., Какиашвили М. С., Какубава В. В. Сопосб моделирования иммунодефицитного состояния. А. С. № 1681669, ДСП.

27.  Ахалая М. Г., Берия В. П., Вольтер Е. Р., Какиашвили М. С. Способ моделирования гиперкоагулемии. А. С. № 1707618, Б. И., 1992, № 3.

28.  Ахалая М. Г., Вольтер Е. Р., Какиашвили М. С., Какубава В. В., Табагуа М. И. Способ моделирования нефропатии. Заявка № 4902948/14 (005968). Положительное решени от 21. 06. 91.

29.  Ахалая М. Г., Вольтер Е. Р., Какиашвили М. С., Хачатрян Р. М. Способ индикации анаэробных бактерий в биологическом материале. А. С. № 1757323, ДСП.

30.  Ахалая М. Г., Вольтер Е. Р., Дзидзигури Д. Ш., Какиашвили М. С., Какиашвили Я. М.  Способ получения коллоидного раствора магнетита. А. С. № 1817443, ДСП.

31.  Ахалая М. Г., Берия В. П., Вольтер Е. Р., Какиашвили М. С., Санеблидзе Л. Г.  Способ моделирования эпителиоидной гранулемы. Заявка № 4939672/14 (044208). Положительное решение от 03. 01. 92.

32.  Вольтер Е. Р., Глущенко Н. Н. Физико-химические аспекты применения магнитных жидкостей в экспериментальной биомедицине. // Сборник научных трудов IX Международной Плёсской конференции по магнитным жидкостям. Иваново: ИГЭИ. 2000. С. 349 – 351.

33.  Вольтер Е. Р., Какубава В. В., Кикория А. Д., Будник М. Н., Губин В. В. Применение коллоидного магнетита для модуляции биологического действия электромагнирного излучения КВЧ-диапазона. Материалы Российской конференции «Организм и окружающая среда: жизнеобеспечение и защита человека в экстремальных условиях». Москва, Слово, 2000, Том 1, C. 98 – 99.

34.  Kakubava V. V., Kikoria A. D., Volter E. R. In heterointeraction of purnient round microbes and

35.  colloidal magnetite particles, International symposium of magnetic carriers. Biological and Clinical Applications (ISMC – 1999). Book of abstracts. Wubian. China. 1999.

36.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Results of microbiological investigations after treating of abdominal cavity by Magnetic Suspension during the operations because of peritonitis //  «Questions of Surgery of abdominal cavity», Tbilisi, 1989.

37.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Treating of abdominal cavity by Magnetic Suspension during the operations because of peritonitis in experiment. // «Vestnik» of Surgery № 4, Moscow, 1989.

38.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Magnetic Suspension for Treating of peritonitis in experiment. // III Conference “Magnetic fluids in Medicine and Biology”, Collections of articles, Sukhumi, 1989.

39.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Influence of ultra-dispersive magnetite on microbes // III Conference “Magnetic fluids in Medicine and Biology”, Collections of articles, Sukhumi, 1989.

40.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Colloidal magnetite for Treating of peritonitis in experiment. // Methodic Recommendations, Tbilisi, 1989.

41.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Lavage of intestine by Magnetic Suspension in the case of ileac passion in experiment. // XII Congress of surgeons, Collections of articles, Makhachkala, 990.

42.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Pharmacokinetics of ultra-dispersive magnetite after treating of abdominal cavity by Magnetic Suspension during the operations because of peritonitis. // XX Conference of medical scientists of Georgia, Collections of articles, Bakuriani, 1991.

43.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Leukocyte index of intoxication after treating of abdominal cavity by Magnetic Suspension during the operations because of peritonitis. // Scientific conference honored to 85 anniversary of Academician M.Komakhidze, Collections of articles, 1991.

44.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Standardization of Magnetite Suspension. // Scientific conference “New methods and remedies for treating of abdominal cavity in the case of peritonitis”, Tbilisi, 1991.

45.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Mechanisms of Antitoxic and Immuno-stimulate activity of magnetite. //  Scientific conference “New methods and remedies for treating of abdominal cavity in the case of peritonitis”, Tbilisi, 1991.

46.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Intra-operating treating of abdominal cavity by Magnetic Suspension in the case of peritonitis. // Scientific conference “New methods and remedies for treating of abdominal cavity in the case of peritonitis”, Tbilisi, 1991.

47.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Using of Magnetic Suspension in the cases of traumatic injury of organs of abdominal cavity for the prophylactic and treating of septic complications. //  Scientific conference “New methods and remedies for treating of abdominal cavity in the case of peritonitis”, Tbilisi, 1991.

48.  Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Morpho-functional alterations of blood cells after treating of abdominal cavity by Magnetic Suspension during the operations because of peritonitis. // Annuals of of science academy of Georgia, Vol. 143, N1, Tbilisi, 1991.

49. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Medico-Biological

      characteristics of ultra-dispersive magnetite particles. //  “Science”, Tbilisi, 1992.

50. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Method of treating of

      abdominal cavity by Magnetic Suspension during the operations because of peritonitis. // Methodic

      Recommendations, Tbilisi, 1992.

51. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Standardization of magnetite

      suspension. //  Methodic Recommendations, Tbilisi, 1992.

52. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Influence of Intra-operating

      treating of abdominal cavity by Magnetic Suspension in the case of peritonitis on immune status of

      patients. // Dep. in scientific institute of Sc.Techn. Information of Georgia, № 758, 1992.

53. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Influence of ultra-dispersive

      magnetite particles on Phagocytic activity of periphery blood neutrophils. // Dep. in scientific institute

      of Sc.Techn. Information of Georgia, № 759, 1992

54. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Antitoxic characteristics of

      ultra-dispersive magnetite particles. //  Dep. in scientific institute of Sc.Techn. Information of

      Georgia, № 760, 1992.

55. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Influence of Intra-operating

      treating of abdominal cavity by Magnetic Suspension in the case of peritonitis on dynamic of

      endogenic intoxication of organism. //  Dep. in scientific institute of Sc.Techn. Information of

      Georgia, № 761, 1992.

56. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Some medico-biological

      characteristics of ultra-dispersive magnetite. //  Monograph, Tbilisi, 1992.

57. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Blast-transformation of

      lymphocytes after influence of cytostatics, immobilized on ultra-dispersive magnetite particles

      covered by poliacrilamide. // Dep. in scientific institute of Sc.Techn. Information of Georgia,

       № 867, 1993.

58. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Investigations of cytostatic

      activity of immobilized chemotherapeutic remedies on the culture of breast cancer cells. //  Dep. In

      scientific institute of Sc.Techn. Information of Georgia, № 868, 1993.

59. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Culture of ovary cancer cells

      as object of Investigations of anticancer activity of immobilized chemotherapeutic remedies. //  Dep.

      in scientific institute of Sc.Techn. Information of Georgia, № 869, 1993.

60. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Investigations of cytostatic

      activity of immobilized chemotherapeutic remedies on the culture of ovary cancer cells. // Dep. In

      scientific institute of Sc.Techn. Information of Georgia, № 870, 1993.

61. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. «Carcino-sarcoma Uocer-256»

      as object of Investigations of anticancer activity of immobilized chemotherapeutic remedies in

      experiment. // Dep. in scientific institute of Sc.Techn. Information of Georgia, № 871, 1993.

62. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Negative influence of

      Targeting chemotherapy. // Collections of scientific articles, Tbilisi, 1993.

63. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Using of ultra-dispersive

      magnetite particles for the targeting thermo-chemotherapy of cancers. // Georgian Medical Annuals,

      Tbilisi, 1993.

64. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Physico-chemical

      characteristics of magneto-sensitive containers and container-citostatics. // Dep. in scientific institute

      of Sc.Techn. Information of Georgia, № 862, 1993.

65. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Pharmacokinetics of

      Doxorubicine immobilized on magneto-sensitive containers. //  Dep. in scientific institute of

      Sc.Techn. Information of Georgia, № 863, 1993.

66. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Influence of magneto-

      sensitive containers on morphology of blood cells.  //  Dep. in scientific institute of  Sc. Techn.

      Information of Georgia, № 864, 1993.

67. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Influence of magneto-

      sensitive containers on Phagocytic activity of periphery blood neutrophils. // Dep. in scientific

      institute of Sc.Techn. Information of Georgia, № 865, 1993.

68. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Influence of magneto-

      sensitive containers on proliferate activity of mononuclear cells. //  Dep. In scientific institute of

      Sc.Techn. Information of Georgia, № 866, 1993.

69. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Magnetically guided drugs

      based on magnetic poliacrilamide particles. // International conference «soil of surroundings»

      Collection of articles, Perm 1993.

70. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Cytostatic action of

      magnetically guided drugs based on magnetic poliacrilamide particles. // International symposium

      «materials and technologies», Collection of thesis’s, Leningrad, 1993.

71. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Structural changes of blood

      corpuscles after intravenous injection of magnetic poliacrilamide particles. // Int. Fed. of Clinical

      chemistry XV World Congress. Australia, Melbourne, 1993.

72. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Cytostatic action of magnetic

      poliacrilamide particles. // Int. Soc. Of Chemotherapy. XVIII Congress, Sweden, Stockholm, 1993.

73. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Influence of Intra-operating

      treating of abdominal cavity by Magnetic Suspension in the case of peritonitis on functional activity

      of liver. // Georgian Medical Annuals, Tbilisi, 1994.

74. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Influence of Intra-operating

      treating of abdominal cavity by Magnetic Suspension in the case of peritonitis on detoxification

      activity of liver. // Conference «Actual questions of military medicine», Collection of articles,

      Tbilisi, 1995.

75. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. A new type of targeted

      chemotherapy of malignancies. // Turkish journal of oncology. Istanbul, 1995.

76. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Magneto sensitive

      Thermo-Chemotherapy of breast cancer. // «Mamology», Moscow, 1995.

77. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Medico-Biological aspects

      of Intra-operating treating of abdominal cavity by Magnetic Suspension in the case of peritonitis.

       // Symposium “medico-Biological problems of Surface chemistry”, Kiev,1996.

78. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Morpho-functional alterations

      of bone marrow after   intra peritoneal infusion of magnetic fluid in radiation-damaged animals.

       // Dep. in scientific institute of Sc.Techn. Information of Georgia, № 1078, 1998.

79. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Effects of intra peritoneal

      infusion of magnetite suspension on the development of postoperative adhesions. // Dep. in scientific

      institute of Sc.Techn. Information of Georgia, № 1079, 1998.

80. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Alteration of homeostasis in

      the case of Intra-operating treating of abdominal cavity by Magnetic Suspension in the case of

      peritonitis. //  Dep. in scientific institute of Sc.Techn. Information of Georgia, № 120, 2000.

81. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Results using of suspension

      magnetite for Intra-operating treating of abdominal cavity by Magnetic Suspension in the case of

      peritonitis. //  Dep. in scientific institute of Sc.Techn. Information of Georgia, № 36, 2001.

82. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. For the question of Intra-

      operating treating of abdominal cavity by colloid solution of Magnetite in the case of peritonitis.

       // Dep. in scientific institute of Sc.Techn. Information of Georgia, № 37, 2001.

83. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Energetic buffer in the cycle

      of energy transformation in alive system. // III international congress «Subtle Fields in Biology and

      Medicine» Sankt-Peterburg, 2003.

84. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Medico- biological

      characteristics of preparation UNIMAG. // Georgian Medical News, New-York, 2004, № 2 (107) .

85. Tskitishvili T., Surgyladze B., Chelidze L., Bagishvili A., Shanidze M. Medico-biological

      characteristics of Magnetic Fluids. // 5-th Intern. Сonf. "Sci. and Clin. Appl. of Magnetic Cariers,

      May 20-22, 2004, Lyon, France.