Quantum gravity

被引:0
|
作者
Sinaiko, Elia A. [1 ]
机构
[1] 609 Commercial St, Provincetown, MA 02657 USA
关键词
Quantum Gravity; Probability Density Wave; Probability Density Matrix; Subatomic Particles; Curving of Space; Empty Space; Planck Scale; Double Slit Experiment; Levels of Analysis; Mathematical Formalisms;
D O I
10.4006/0836-1398-32.3.318
中图分类号
O4 [物理学];
学科分类号
0702 ;
摘要
Gravity has been shown in theories of relativity to be the curving of space around massive bodies. Thus, objects in orbits are following a straight line along a curved space. Why massive bodies curve space is not explained. We continue to ask "What is Gravity?" Quantum mechanics unites theories of electro-magnetism (QED), the weak nuclear force (EWT), and the strong nuclear force (QCD) in the standard model of particle physics, or with a grand unified theory (GUT) sought for these three fundamental forces. As yet there is no empirically verified quantum theory of gravity unified with these three fundamental forces. Considering gravity to be the curving of space, it is evident that gravity supervenes from the properties of space itself. In this short paper, we will attempt to define one of these spatial properties. We will not attempt to define the properties of time, though time appears to be a part of a complete model of gravity. At least in this regard, and likely in many others, our model will be incomplete. We will build a case for the massive collapse of probability density waves (PDWs) in surrounding space, due to the interactions of particles in massive bodies. The collapse of these probabilities, of each particle's possible superposition somewhere in the surrounding space, causes the apparent "curving" of space. We will conclude that space is not the absence of things. Space is a thing in itself. Included in the properties of space is the potential to contain/transmit PDWs. This potential is suggested by both the theories of relativity and the experimental observations of quantum mechanics. In the presence of massive bodies, particle superposition and the probability of existence in the surrounding space is, to varying degrees, lost and space appears to curve as a consequence. (C) 2019 Physics Essays Publication.
引用
收藏
页码:318 / 322
页数:5
相关论文
共 50 条
  • [21] A quantum Interferometer for quantum gravity studies
    Losero, E.
    Tekuru, S. Pradyumna
    Traina, P.
    Ruo-Berchera, I.
    Zucco, M.
    Degiovanni, I. P.
    Jacobsen, C. S.
    Gehring, T.
    Andersen, U. L.
    Genovese, M.
    [J]. QUANTUM COMMUNICATIONS AND QUANTUM IMAGING XVII, 2019, 11134
  • [22] On quantum determinants in integrable quantum gravity
    Runov, B.
    [J]. CLASSICAL AND QUANTUM GRAVITY, 2021, 38 (06)
  • [23] Quantum computation toward quantum gravity
    Zizzi, PA
    [J]. GENERAL RELATIVITY AND GRAVITATION, 2001, 33 (08) : 1305 - 1318
  • [24] Quantum theory from quantum gravity
    Markopoulou, F
    Smolin, L
    [J]. PHYSICAL REVIEW D, 2004, 70 (12) : 124029 - 1
  • [25] Quantum geometry II: the mathematics of loop quantum gravity-three-dimensional quantum gravity
    Manuel Garcia-Islas, J.
    [J]. CANADIAN JOURNAL OF PHYSICS, 2021, 99 (08) : 601 - 606
  • [26] Loop Quantum Gravity
    Baez, John
    [J]. PROCEEDINGS OF THE SIXTEENTH ANNUAL ACM-SIAM SYMPOSIUM ON DISCRETE ALGORITHMS, 2005, : 555 - 555
  • [27] Testing quantum gravity
    Hansson, Johan
    Francois, Stephane
    [J]. INTERNATIONAL JOURNAL OF MODERN PHYSICS D, 2017, 26 (12):
  • [28] On decoherence in quantum gravity
    Podolskiy, Dmitriy
    Lanza, Robert
    [J]. ANNALEN DER PHYSIK, 2016, 528 (9-10) : 663 - 676
  • [29] Phenomenological quantum gravity
    Kimberly, D
    Magueijo, J
    [J]. COSMOLOGY AND GRAVITATION, 2005, 782 : 241 - 263
  • [30] Loop quantum gravity
    Thiemann, Thomas
    [J]. INTERNATIONAL JOURNAL OF MODERN PHYSICS A, 2008, 23 (08): : 1113 - 1129