Spherical space in the Newtonian limit: The cosmological constant
arXiv:2103.15424 · doi:10.1142/S0218271821500838
Abstract
We compute the cosmological constant of a spherical space in the limit of weak gravity. To this end we use a duality developed by the present authors in a previous work. This duality allows one to treat the Newtonian cosmological fluid as the probability fluid of a single particle in nonrelativistic quantum mechanics. We apply this duality to the case when the spacetime manifold on which this quantum mechanics is defined is given by . Here stands for the time axis and is a 3-dimensional sphere endowed with the standard round metric. A quantum operator satisfying all the requirements of a cosmological constant is identified, and the matrix representing within the Hilbert space of quantum states is obtained. Numerical values for the expectation value of the operator in certain quantum states are obtained, that are in good agreement with the experimentally measured cosmological constant.
16 pp; clarifications added
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