Results 161 to 170 of about 1,088 (209)

Designing precision measurement of the gravitational Aharonov-Bohm effect in microgravity. [PDF]

Fundam Res
Sun Y, Liu L.
europepmc   +1 more source

An integrated tiny-YOLO v3 and Q-iteration framework for stable, energy-efficient autonomous navigation of quadruped robots on AMB82-mini microcontrollers. [PDF]

Sci Rep
Salih FH, Mazinan AH, Modaresi SM.
europepmc   +1 more source

Improvement of multiscale decomposition for space-based gravitational wave signal processing technology. [PDF]

PLoS One
Shen Q, Liu Y, Xu D, Yan F, Wu S, Chen X.   +5 more
europepmc   +1 more source

The Quantum Relative Entropy of the Schwarzschild Black Hole and the Area Law. [PDF]

Entropy (Basel)
Bianconi G.
europepmc   +1 more source

Textual interpretation of transient image classifications from large language models. [PDF]

Nat Astron
Stoppa F, Bulmus T, Bloemen S, Smartt SJ, Groot PJ, Vreeswijk P, Smith KW.   +6 more
europepmc   +1 more source

THE STOCHASTIC QUANTIZATION OF THE GRAVITATIONAL-FIELD AND THE GRIBOV PROBLEM

THE STOCHASTIC QUANTIZATION OF THE GRAVITATIONAL-FIELD AND THE GRIBOV PROBLEM
openaire  

Quantization of the gravitational field [PDF]

Annals of Physics, 1962
Abstract Present quantum theories of the gravitational field generally work in ‘flat space’. The original attempt at quantization was made by Gupta (1952) and carried out by him to first order. He started with the Lagrangian of the classical theory and applied the normal methods of quantization to it, treating the gab as ordinary ...
exaly   +4 more sources

Some of the next articles are maybe not open access.

Related searches:

On the Quantization of Einstein's Gravitational Field Equations

Physical Review, 1950
Weiss' method of quantization of field theories characterized by first-order Lagrangians can be carried out in a non-metrical "amorphous" space, as was first stated by Bergmann and Brunings. The gravitational equations can be regarded as differential equations for the field variables ${g}_{\ensuremath{\mu}\ensuremath{\nu}}$ in an amorphous space and ...
F A E Pirani, A Schild
exaly   +2 more sources

Quantization of Einstein's Gravitational Field: Linear Approximation

Proceedings of the Physical Society Section A, 1952
The approximate linear form of Einstein's gravitational field is quantized by using an indefinite metric. It is shown that only two types of gravitons can be observed, though many more can exist in virtual states in the presence of interaction. The observable gravitons are shown to be particles of spin 2.
Suraj N Gupta
exaly   +3 more sources

Gravitational Field: Equivalence of Feynman Quantization and Canonical Quantization

Physical Review, 1964
The transition amplitude for the gravitational field as given by the Feynman sum over histories expression is analyzed in analogy to the electromagnetic transition amplitude. The analysis is based on an explicit representation of the Feynman sum by means of a lattice.
exaly   +3 more sources