A model to inter-relate the values of the quantum electrodynamic, gravitational and cosmological constants
arXiv:1801.10012
Abstract
The fundamental constants of electromagnetism, gravity and quantum mechanics can be related empirically by the numerical approximation , where is the low energy value of the electromagnetic fine structure constant and and are volumes corresponding to the classical electron radius, , and the Planck length respectively. This logarithmic relation is used in an ideal gas model to determine the work, , done when a hypothetical vacuum fluctuation expands relativistically from to in a time limited by the uncertainty principle. It is proposed that the expansion is a phenomenological representation of a quantum transition from a Planck-scale initial state into a final virtual photonic state of energy and lifetime , occupying a volume . The magnitude of the negative gravitational self-energy density, , of this virtual state is found to be within of the measured value of the positive "dark energy" density, . It is proposed that this is not merely an "accidental" numerical coincidence but has physical significance, namely that the sum of the two energy densities is zero, i.e. . This relation gives a value of the cosmological constant, , in agreement with astronomical measurements. The implications of these inter-relations between , the gravitational constant, , and are outlined.
References in corpus (9)
- Observational Evidence from Supernovae for an Accelerating Universe and a Cosmological Constant
- Measurements of Omega and Lambda from 42 High-Redshift Supernovae
- BVRI Light Curves for 22 Type Ia Supernovae
- A New Solution of The Cosmological Constant Problems
- Is Mass Quantized?
- A Testable Solution of the Cosmological Constant and Coincidence Problems
- Axiomatic approach to the cosmological constant
- Anthropic Estimates of the Charge and Mass of the Proton
- The apparent fine-tuning of the cosmological, gravitational and fine structure constants