Scientific Herald of Uzhhorod University. Series "Physics"

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Scientific Herald of Uzhhorod University. Series "Physics"

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Study of gravity properties on the earth surface using a gravity receiver

Issue 56, 2024

Volodimir Landin, Eduard Sluginov, Anastasia Sluginova, Olga Sluginova

Received 10.06.2024, Revised 28.11.2024, Accepted 14.12.2024

Abstract

Relevance. This study is relevant as it provides a novel approach to measuring and analyzing the effects of gravitational forces from the Earth, Moon, Sun, Black Hole, and space-time, offering new insights into the complex interactions between gravity and space-time matter.

Purpose. The purpose of this study was to investigate the properties of the gravitational field on the Earth's surface and the influence of the Moon, Sun, space-time and Black hole on them. For this purpose, a gravity receiver was made, which is a lever with arms of different lengths located on a sharp support.

Methodology. Due to this design, it is possible to observe a change in the position of the lever relative to the horizon, depending on the magnitude of the gravitational torques on the Earth’s surface. The specific feature of such a gravity receiver is that it can rotate at a certain angle without friction on a sharp support, as if it were in outer space. It is used to determine the torques of gravity of the Earth, Moon, Sun, Black hole, and space-time matter.

Results. The torques of gravity act along the latitude of the Earth and along its meridian. The moments of gravity along the Earth’s meridian change in waves throughout the year. The torques along the latitude are on average twice as large as along the meridian. The space-time matter has the greatest moments, which, starting in 2022, acts in the direction of the Earth’s rotation. Theoretically, it has been theoretically proved that, if baryonic matter is excluded, constant gravity is determined by a simple and beautiful formula which shows that if the density of space decreases, its matter passes into the matter of time, which increases and vice versa, if time decreases, it passes into the matter of space, whose density increases. Gravity is the stabilizer of this process. Experiments have shown that space-time matter can form gravitational vortices and powerful gravitational waves called “tsunamis”.

Conclusions. The gravity receiver performs constant oscillatory movements in the vertical plane throughout the year due to the gravitational energy of space-time. If the arm of the gravity receiver is two meters long, then it captures two-meters gravity waves, if its length is one centimeter, then it captures centimeter waves, etc.

Keywords: gravity; space; time; gravity receiver

Suggested citation

Landin V, Sluginov E, Sluginova A, Sluginova O. Study of gravity properties on the earth surface using a gravity receiver. Sci Herald Uzhhorod Univ Ser Phys. 2025;(56):2798-2803.

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References

  1. Greene B. The elegant universe: Superstrings, hidden dimensions, and the quest for the ultimate theory. New York: W.W. Norton; 1999.
  2. Malkan MA, Zuckerman B. Origin and evolution of the universe: From big bang to exobiology. New York: World Scientific Publishing Co Pte Ltd; 2020.
  3. Kisak PF. Planck Units: The fundamental units of our universe. Cambridge: CreateSpace Independent Publishing Platform; 2015.
  4. Benenson WQ, Harris JW, Stocker H, Lutz H. Handbook of physics. New York: Springer; 2002.
  5. Tiwari P, Bandyopadhyay MN, Chatterjee S, Bandyopadhyay S. Expansion of the universe and its correlation with dark energy. Int J Adv Astroom. 2020;8(1):10-18.
  6. Baker Jr. R. A theory of our universe. J High Energy Phys Gravit Cosmol. 2020;6(4):609-622.
  7. Le TD. Stringent limit on space-time variation of fine-structure constant using high-resolution of quasar spectra. Heliyon. 6(9):e05011.
  8. Blackhirst R. Astrology. In: D.A. Leeming (Ed.), Encyclopedia of Psychology and Religion (pp. 124-126). New York: Springer; 2013.
  9. Solar and lunar eclipses worldwide – Next 10 years. https://www.timeanddate.com/eclipse/list.html
  10. Izzet AK, Hamwdi MJ, Jasim AT. Analytical study of Earth tides on low orbits satellites. Iraqi J Sci. 61(2):453-461.
  11. Li K, Wang J, Shi Y. A review of studies on mass-movements on the Moon. Front Astron Space Sci. 10:1223642.
  12. Marshall P. The role of quantum mechanics in cognition-based evolution. Progr Biophys Molec Biol. 180-181:131-139.
  13. Aschwanden MJ. The Sun. In: T. Spohn, D. Breuer, T.V. Johnson (Eds.), Encyclopedia of the Solar System (pp. 235-259). Amsterdam: Elsevier; 2014.
  14. Deparis V. A history of the global understanding of the Earth. Comptes Rendus Geosci. 346(11-12):275-278.
  15. Weber RC. Interior of the Moon. In: T. Spohn, D. Breuer, T.V. Johnson (Eds.), Encyclopedia of the Solar System (pp. 539-554). Amsterdam: Elsevier; 2014.
  16. Hu W-Y, Nakayama K, Takhistov V, Tang Y. Gravitational wave probe of Planck-scale physics after inflation. Phys Let B. 856:138958.
  17. Metzger PT, Grundy WM, Sykes MV, Stern A, Bell III JF, Detelich CE, et al. Moons are planets: Scientific usefulness versus cultural teleology in the taxonomy of planetary science. Icarus. 374:114768.
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