UDC 53.02
Introduction
The Kirlian method [1], according to the author, allows medicine to assess the state of the external human gravitational field. It does not allow visualization of gravitational waves in human internal organs, since the light range signal obtained during the conversion cannot leave the internal organs due to its absorption by living tissue.
Relevance
Until now, there is an opinion that the mass of living matter does not emit gravitational waves.
Goals, objectives, materials and methods.
The purpose of this article is to prove that all interactions of bodies are produced by gravitational waves that are emitted by interacting bodies during internal nuclear interactions, which are gravitational.. The objective is to prove that the positron emission tomography method makes it possible to visualize gravitational waves arising in the mass of matter of human organs during tomographic studies using radiopharmaceuticals.
Scientific novelty
The author believes that all material waves are gravitational, as they contain a gravitational component that allows them to move — that is, to change their position in space and change the position in space of interacting bodies.
Now it is impossible to deny that the human body emits infrared electromagnetic waves, which have a certain energy due to which they can spread and can perform certain actions — that is, they are gravitational. Infrared radiation from living matter arises as a result of metabolic processes in living nature.
On the other hand, the human body consists of atoms in which the nucleons make gravitational fluctuations. During these fluctuations, high-frequency gravitational waves are emitted — gamma radiation. The energy of these vibrations is very high, but the range is short. Gravitational interaction takes place in space and fractally depends on the distance between interacting bodies or particles. In the Casimir force, which occurs at distances of about 1 nanometer, the inverse dependence of acceleration on distance is already in the fourth degree. For nuclear interactions occurring at distances a million times smaller — about 1 fermi — this dependence is many times greater, but the author has not found any specific information in the open press. The attitude to the gravitational interaction needs to be reconsidered. It cannot be calculated at distances commensurate with the nuclear ones according to I. Newton’s law and claim that it is weak.
There is every reason to believe that the gravitational interaction is not only not the weakest, but also the only one, and there are no other elastic interactions.
The state of the human internal gravitational field can currently be assessed by tomographic studies using special radiopharmaceuticals injected into the human body before examination. The method is based on the fact that the direction of movement of particles of decaying radiopharmaceuticals is influenced by gravitational waves (gamma radiation) emitted by the mass of the studied organs. This method uses the conversion of a gamma radiation signal, which, according to the author, is gravitational waves from nuclear interactions, into a light signal. The transformation takes place outside the human body in special scintillation detectors mounted on a ring that can rotate around the object under study. The direction of movement of particles of decaying radiopharmaceuticals is recorded and converted into electromagnetic waves by special scintillators (gamma-ray converters to visible light), amplified by photoelectronic multipliers (photomultipliers) and processed by computers. The result of the research is the construction of a 3-D model of the organ of interest. Currently, positron emission tomography (PET) methods are widely used. [2, p. 67]
Positrons occur during the decay of a radionuclide, which is part of a radiopharmaceutical that is injected into the body before examination [2, p. 5]. The positrons emitted by the radionuclide lose energy when moving in the medium, that is, they cool down to kinetic energies corresponding to the temperature of the medium. When they slow down below a certain speed, it becomes possible to interact with the atoms of matter of the organ under study. The registration of a pair of gamma quanta arising from the annihilation of positrons on electrons is carried out by detectors switched on according to the coincidence scheme. If gamma-ray quanta with 511 keV energies are simultaneously absorbed, then it should be expected that the annihilation point is located on the straight line connecting these two detectors. More often, a large set of detectors is used, located on a ring around the object under study, but sometimes two detectors are used that are moved around the object.
The positron emission tomography method allows using detection equipment (PET scanner) to track the distribution of biologically active compounds labeled with positron-emitting radionuclides in the body and obtain volumetric (tomographic) images of areas of interest. PET is a non-invasive method for determining the concentrations of compounds labeled with positron emitters in biological tissues. The presence of the main organogenic elements (carbon, nitrogen, oxygen) among the positron emitters of radionuclides makes it possible to use a wide variety of biologically active compounds labeled with these radionuclides contained in a normally functioning living organism. The principle of operation of the PET scanner is shown in (Fig. 1)
Figure 1. The principle of operation of the PET scanner.
The figure (Fig. 1) was taken by the author from the source [2, p. 284]. The figure does not show the moment when an electron joins a proton, after which a neutron is formed. If the electron does not attach after the positron radiation, a «hole» will form, which will have to be filled with an electron, the mass of which, according to the author, will be brought by a gravitational wave. A similar idea is embedded in the arguments about P. Dirac’s field and matter (electron) and antimatter (positron). When a proton loses a positron, it will spin up until it begins to add the mass of an electron and at the same time begins to reduce its rotation speed to the rotation speed of the neutron with which it interacts.
A schematic view of the detector unit and the PET scanner ring is shown in (Fig.2).
Figure 2. Schematic view of the detector unit and the PET scanner ring.
The extent to which radiation from the studied organs stimulates the decay of radiopharmaceuticals is not described in the technical literature. The author believes that the transformation of a proton into a neutron in a radionuclide occurs under the influence of gravitational waves of gamma radiation from the matter under study, which brings the proton additional mass in the size of an electron to transform it into a neutron (positive half-wave). In this case, the proton is slowed down to the rotational speed of the neutron. At the same time, the mass of the positron (negative half-wave) is released in free form, as the positron goes into a higher orbit, moving away from the retarded neutron (former proton) . The binding mass of a pair of nucleons remains superfluous, which may be the mass of a neutrino (Fig. 3). In fact, the binding mass of a proton and a neutron represents the bond of an electron with a neutron and a positron with a proton. The positron, being in high orbit, actually does not enter the mass of the proton anymore, and the binding mass acquires independence. This can be compared to a rocket that, while on Earth, enters the mass of the Earth, but after moving to the Moon, it does not enter the total mass of the Earth, since the mass of the rocket, while on the Moon, practically does not affect the gravitational interactions of the Earth with the surrounding space.
Figure 3. Transformation of a proton into a neutron in a radionuclide under the influence of gravitational waves of gamma radiation of the studied matter
Conclusions
According to the author, all interactions of bodies are produced by gravitational waves that are emitted by interacting bodies during internal nuclear interactions, which are gravitational.
The positron emission tomography method allows using radiopharmaceuticals to visualize gravitational waves that occur as gamma rays during nuclear interactions in the mass of human organs and reproduce a visual 3D image of the organ on a computer screen.
Bibliographic list:
1. Nechaev A.V. Gravitational waves emitted by living and inanimate matter. The Kirlian effect. [electronic resource]. URL access mode: http://vprikusku.com/prilivnaya-volna/gravitaczionnye-volny-izluchaemye-zhivoj-i-nezhivoj-materiej-effekt-kirliana.html , (Accessed 24.09.25)
2. Bekman I.N. Radiation and nuclear medicine: physical and chemical aspects. Radiochemistry. Volume 7:. Study guide / I.N.Bekman. Moscow region, Shchelkovo: Publisher Markhotin P.Y. 2012. 400 p.
