Quantum Gravity and String Theory

1911 Submissions

[6] viXra:1911.0264 [pdf] submitted on 2019-11-15 01:19:00

Trapped Interferometer Gravity Probe

Authors: George Rajna
Comments: 46 Pages.

Atoms held in place by laser beams offer a new and more compact means of measuring the local acceleration due to gravity, paving the way for applications ranging from geophysical exploration to sensitive tests of fundamental forces. [34] In a study published online in Nature Methods, Prof. Compact quantum devices could be incorporated into laptops and mobile phones, thanks in part to small devices called quantum optical micro-combs. [31] Taking their name from an intricate Japanese basket pattern, kagome magnets are thought to have electronic properties that could be valuable for future quantum devices and applications. [30] A team of Cambridge researchers have found a way to control the sea of nuclei in semiconductor quantum dots so they can operate as a quantum memory device. [29] Researchers successfully integrated the systems-donor atoms and quantum dots. [28] A team of researchers including U of A engineering and physics faculty has developed a new method of detecting single photons, or light particles, using quantum dots. [27] Recent research from Kumamoto University in Japan has revealed that polyoxometalates (POMs), typically used for catalysis, electrochemistry, and photochemistry, may also be used in a technique for analyzing quantum dot (QD) photoluminescence (PL) emission mechanisms. [26] Researchers have designed a new type of laser called a quantum dot ring laser that emits red, orange, and green light. [25]
Category: Quantum Gravity and String Theory

[5] viXra:1911.0217 [pdf] submitted on 2019-11-12 01:18:49

Determining the Length Scale at Which the Force of Gravity is Strong Between Any Two Electrons

Authors: Balungi Francis
Comments: 4 Pages.

In this study we show that the gravitational force between any two electrons becomes strong when the distance between them is the Planck length and that this happens when the applied electric field used to accelerate one electron towards the other up to the Planck length where gravity becomes strong has a value of approximately 5.5269 ×10^60��/��. We also deduce the limiting lengths and electric field at which the electromagnetic and Casimir force becomes strong. This study has implications for physics beyond the standard model.
Category: Quantum Gravity and String Theory

[4] viXra:1911.0214 [pdf] replaced on 2019-11-14 13:20:33

An Extension of the Dynamics of the Core of Baryons

Authors: Sylwester Kornowski
Comments: 6 Pages.

Presented here an extension of the dynamics of the core of baryons reduces the initial 3 iterative numbers in the Scale-Symmetric Theory (SST) to 2. Now SST starts from 7 parameters and 2 iterative numbers which are derived after formulation of the theory. We calculated mass of the central condensate which is responsible for the nuclear weak interactions, the coupling constant for such interactions, the binding energy of the torus/electric-charge and central condensate, and masses of charged and neutral core. We showed also how important are the axial symmetries in weak interactions.
Category: Quantum Gravity and String Theory

[3] viXra:1911.0209 [pdf] replaced on 2019-11-13 01:16:29

Dynamics of the Core of Baryons

Authors: Sylwester Kornowski
Comments: 2 Pages.

In 2017, scientists from Osaka University measured unexpected gamma-ray energy spectrum of the lithium reaction with the 246-MeV protons. Here, using the dynamics of the core of baryons described within the Scale-Symmetric Theory (SST), we showed that the two absorption lines follow from such dynamics.
Category: Quantum Gravity and String Theory

[2] viXra:1911.0185 [pdf] submitted on 2019-11-10 20:56:18

Hopf Field Unification Plan

Authors: Jennifer Lorraine Nielsen
Comments: 1 Page.

Unification via the Hopf field and the Beltrami flux
Category: Quantum Gravity and String Theory

[1] viXra:1911.0122 [pdf] submitted on 2019-11-07 08:06:18

Theory with a Finite Mass Gap

Authors: Sylwester Kornowski
Comments: 5 Pages.

Here we present how neutrinos acquire their masses and how internal structure of the neutrinos leads to the volumetric quantum confinement described within the Neutrino Quantum Gravity (NQG). Such confinement is responsible for mass of the condensates/scalars that are made of the Einstein-spacetime components (they are the neutrino-antineutrino pairs). Mean distance between such pairs in the two-component spacetime is slightly larger than the range of NQG.
Category: Quantum Gravity and String Theory