A Biophysical Approach to the Prevention of Cancer Diseases

Nadezhda V. Vdovina

, Stanislav N. Darovskikh

and Darya V. Kochkina

School of Electrical Engineering and Computer Science, South Ural State University (National Research University),

Lenin’s Avenue, 76, Chelyabinsk, Russia

South Ural State University (National Research University), Lenin’s Avenue, 76, Chelyabinsk, Russia

Keywords: Hypothesis, Prevention, Approach, Cancer Research, Sun, Radiation.

Abstract: There has been carried out the analysis of general patterns observed in life activity of microorganisms and

cancer cells. Then theoretical and experimental studies have revealed reduction in resistance properties of

microorganisms, when using simulated low-intensity solar microwave radiation within microwave range.

These findings have allowed to lay the foundation for the hypothesis of using the said radiation in preventing

oncological diseases. The device for simulating solar microwave radiation that reaches the surface of the Earth

plays the central role in practical implementation of this hypothesis. It makes it possible to simulate various

types of microwave radiation that corresponds to undisturbed and disturbed Sun in the frequency range of

(4.0-4.3) GHz with a variable intensity not exceeding 100 μW/cm

. The use of this device provides a real

opportunity to counteract development of cancer diseases.

1 INTRODUCTION

Currently, there are no effective technologies for

preventing cancer (Bespalov V. G., 2001, Servan-

Schreiber D., 2010). Absence of such technologies

makes the person unprotected at any stage of his life,

since this disease implies a high probability of a lethal

outcome. Despite there is vast scientific information

about possible causes and mechanisms of formation

of malignant tumors, modern medical technologies

fail to detect the initial process of its formation (Seitz

I.F., Knyazev P.G., 1986). As a rule, they detect an

already formed tumor at the stage of progressive

disease. This process sometimes lasts for years, which

makes it topical to prevent this disease. However,

there is still no answer to the question: "What to do

and how to take prophylactic measures?" Such vague

recommendations as "Lead a healthy lifestyle" in

reality do not save from the disease neither children,

nor adults, nor the elderly.

In this regard, we can talk about a fundamental

scientific problem: the problem of working out the

effective measures for preventing cancer. It's

challenging to solve this problem. Here we may

mention very poor understanding of the main

mechanism of cancer development. Moreover there is

no clear answer why the human immune system is

"blind" to the changes occurring in the body that lead

to appearance of malignant tumors (Napalkov N.P.,

1989).

2 THE HYPOTHESIS

(SEARCHING THE SOLUTION

TO THE PROBLEM OF

ONCOLOGICAL DISEASES

PREVENTION)

When cancer cells are detected in the body, it is not

always an indication of cancer as a disease. It is not

clear yet what to do in such cases. Application of

immunomodulators does not always lead to the

results we expect (Antonov V.G., Kozlov V.K.,

2004). Eventually, the disease reveals itself only

when the tumor is detected. The technology aimed to

combat such neoplasms is well developed and its

success depends on the stage of the disease. Today

scientists can boast of high efficiency of cancer

treatment, but only at its initial stages. As a rule, the

treatment is based on complex use of radiation,

chemical and various surgical methods. However,

modern medicine has no countermeasures to help

cope with the disease for cases when metastasis of

cancer cells spread into various organs and body

systems.

Vdovina, N., Darovskikh, S. and Kochkina, D.

A Biophysical Approach to the Prevention of Cancer Diseases.

DOI: 10.5220/0007411605590563

In Proceedings of the 12th International Joint Conference on Biomedical Engineering Systems and Technologies (BIOSTEC 2019), pages 559-563

ISBN: 978-989-758-353-7

559

High resistance of cancer cells to the human

immune system indicates the presence of some kind

of bio-formation «membrane», which protects them

from it, creates conditions for uncontrolled

modification of somatic cells into cancer ones. Such

a membrane can form driven by endogenous and

exogenous factors, which have a negative effect on

intercellular interaction. Hemophoresis anomalies in

cellular structures induced by above specified factors

result in shifting from aerobic energy exchange into

anaerobic one in them. According to two-time Nobel

Prize Winner Otto Warburg, lengthy hypoxia in

cellular structures is the main cause of modifications

of somatic cells in cancer cells (Seitz I.F., Knyazev

P.G., 1986). In this context prevention of cancer

based solely on activating the human immune system,

is a priori ineffective. It is necessary to apply the

direct influence on the «membrane» to restore the

intercellular interaction and create conditions for

aerobic energy exchange for inner cellular structures.

When this interaction is restored, it will also ensure

that cells of the immune system will have an access

there and will be able to perform their protective

functions.

Such an impact, which does not destroy other

cellular structures, should form the basis of cancer

prevention technology. What kind of impact it is

going to be – physical, chemical, or a combination of

them, and what are its characteristics, is not known

yet. However, the main question is how to determine

the location of cellular structures, which for various

reasons have become "isolated" from the human

immune system.

A similar situation refers to the weakening of

sensitivity of pathogenic and opportunistic

microorganisms to antibiotics of both endogenous

and exogenous origin (Birnbaum D., 2003). In this

case, we can observe again an inadequate response of

the immune system which leads to uncontrolled

growth in the quantity of microorganisms.

Microbiologists know the reason for increased

resistance of microorganisms to antibiotics. It is

related to the formation of biofilms that prevent

antibiotics from fulfilling their bactericidal function

(Davies D., 2003).

An important feature of both cancer cells and

microorganisms that cause infectious diseases is the

existence of general patterns of their life activity.

These include their isolation from other cellular

structures, uncontrolled reproductive process, ability

to metastasize, etc. (Zyablov E.V., 2016).

In this regard, it is reasonable to assume that the

found method of significant reduction of resistance

properties of microorganisms can be also highly

effective in preventing cancer.

3 THE METHOD TO REDUCE

MICROORGANISMS

RESISTANCE PROPERTIES

AND THE POSSIBILITY OF ITS

USE FOR THE PREVENTION

OF CANCER

In recent decades there has noticeably weakened an

evolutionally significant role of electromagnetic

radiation in nature, the main source of which is the

Sun. Electromagnetic pollution of the environment,

according to scientists, is the main factor in enhancing

the resistance properties of microorganisms

(Shishkova Y.S., 2015).

Though there is a great number of research being

made on how to weaken resistance of

microorganisms, we should admit that currently there

are no constructive solutions about how to reduce

their persistent potential. The existing biochemical

technologies for synthesis of bactericidal and

bacteriostatic antibiotics have almost exhausted their

potential.

In this connection, it is reasonable to use a method

aimed at restoring that significant role the solar

microwave radiation reaching the Earth's surface has

in nature (Darovskikh S.N., 2008, Chizhevsky A.L.,

2015).

To counteract formation of biofilms in

microorganisms we suggest using simulated solar

microwave radiation of the microwave range,

comparable in intensity with background radiation of

technogenic origin (not exceeding 10-100 μW/cm

To implement this method we developed a device

for simulating various types of solar microwave

radiation (Fig. 1) in the frequency range (4.0- 4.3)

GHz (Vdovina N.V., 2015, Darovskikh S., 2013).

This device allows to simulate bursts of solar

microwave radiation with both linear and chaotic

polarization. The spectrum of a single burst is very

similar to the "dancing" flame of fire. Its structure

changes in time in width, in shape and in intensity

(Fig. 2).

NNSNT 2019 - Special Session on Non-invaisive Neuro-stimulation in Neurorehabilitation Tasks

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Figure 1: Device for simulating solar microwave radiation

in the frequency range (4.0-4.3) GHz.

Figure 2: Temporary varieties of the simulated microwave

solar radiation burst.

4 RESULTS

Theoretical and experimental studies have revealed

(Darovskikh S.N., 2015, Darovskikh S.N., 2015,

Shishkova Yu.S., 2015), that the "radio vibration"

mechanism is the key point for the positive effect of

microorganisms interaction, when subjected to

simulated solar microwave radiation of the

microwave range (Shishkova Yu.S. 2014). The main

point of this mechanism is that when some substance

absorbs electromagnetic radiation, not all its energy

is converted into thermal energy. Some part of it is

converted into mechanical energy, which is the

source of low-intensity elastic (acoustic) vibrations,

which provide a vibrational effect on cellular

structures of the body. These vibrations activate in

microorganisms such metabolic processes that

prevent formation of biofilm (Darovskikh S.N., 2014,

Darovskikh S.N., 2017).

Similar processes can define the prevention of

cancer. Their distinctive features from the

"community" of microorganisms are as follows:

- under the influence of the above-mentioned

vibrations in an isolated tissue structure in the state of

hypoxia, a branched blood microcirculation system is

formed. This leads to the "puncture" of the so-called

"film" preventing the restoration of aerobic energy

exchange in this structure;

- restoration of aerobic energy exchange in

somatic cells is the key to the prevention of their

modification into cancer ones. And those cells that

have already modified into cancer ones will be

"neutralized" by the immune system, the activity of

which is directly related to the parameters of the

formed blood microcirculation system.

Such an assumption can be made on the basis of

the experimental study results with the use of the

above device (Fig. 2) with a dosed shank extension in

dogs (Darovskikh S.N., 2006, Filimonova G.N.

2012).

The application of the simulated microwave solar

radiation to the regenerate during the distraction of

the shanks of dogs at 1 mm per day with a 4-fold

fraction results in its positive effect on paraosseous

muscles. In the experiment based on the stereological

analysis there was revealed almost a 3-fold decrease

in the degree of muscles sclerotization; the growth of

myocytes number; intensive regeneration of the

muscle tissue. And in the opinion of the researchers

these results are connected with the significant (1.6

times) increase in the number of microvessels.

The results of the above experiment, caused by the

formation of a branched blood microcirculation

system in the area of the regenerate, should be

considered as an antipode to those that will occur

when the above radiation is applied to cancer

structures. The appearance of a ramified

microcirculation system in them and, as a

consequence, the restoration of the control functions

of the immune system are the main conditions for

weakening the development of tumor formations.

5 DISCUSSION

There should be mentioned the opposite point of view

as well (Servan-Schreiber D. 2010). Some scientists

referring to their experimental data believe that the

formation of the circulatory system on the surface of

the tumor tissue and partly inside it only stimulates

A Biophysical Approach to the Prevention of Cancer Diseases

561

the multiplication of cancer cells. So on the basis of

these data, they provide recommendations to use the

medications that inhibit the formation of blood

vessels. However, these conclusions, as shown by

practice, are erroneous. Reproduction of cancer cells

in the presence of a circulatory system on the surface

of the tumor and inside it indicates that it is

insufficient to replace anaerobic energy metabolism

by aerobic one, which is "pernicious" for cancer cells.

The "attempt" of the body to restore by itself the

aerobic energy metabolism in the already formed

tumor proves to be in most cases unsuccessful. Under

these conditions it is necessary to use stimulators for

the formation of high density of blood microvessels,

evenly distributed both on the surface of the tumor

and especially inside it The above mentioned studies

prove that the determining role in the formation of a

branched blood microcirculation system in the

carcinoma is associated with the use of the device for

simulating solar microwave radiation.

6 CONCLUSION

The prospects justification of the abovementioned

hypothesis aimed to prevent cancer in humans and

treatment of their initial stages, of course, requires

experimental verification. Since it is difficult to

organize such an experiment, due to its complexity

and collect reliable data, it can last many decades. At

the same time, the use of ecofriendly technology

based on the use of simulated solar microwave

radiation is justified right now. It has no

contraindications. For more than twenty years when

this technology has undergone approbation, evidence

has been gathered that it is not only absolutely safe

(this has been shown by numerous medical and

biological studies (Darovskikh S.N., 2005,

Darovskikh S.N., 1999) etc., but also that it is

advisable to apply it in treating various diseases in

children and adults (Uzunova A.N., 2006, 1997,

2004) et al.. These results account for the use of

analogues of electromagnetic radiation of natural

origin. Currently there does not exist any other

alternative to prevent a wide range of diseases,

including oncological ones, in the context of

irreversible changes in the properties of environment

and its electromagnetic pollution in particular.

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