General Relativity As an Aether Theory
Maurice J. Dupre, Frank J. Tipler

TL;DR
This paper demonstrates that general relativity can be derived from an aether theory, combining Lorentz's and Kelvin's concepts, and offers a new perspective on Einstein's equations without relying on the covariant divergence condition.
Contribution
It provides a novel derivation of Einstein's equations using an aether framework, integrating Kelvin's aether theory with a generalized Cartan formalism.
Findings
Einstein equations derived from aether theory
Aether stress-energy tensor incorporated into Einstein equations
Generalized Cartan formalism allows spatial curvature in Newtonian gravity
Abstract
Most early twentieth century relativists --- Lorentz, Einstein, Eddington, for examples --- claimed that general relativity was merely a theory of the aether. We shall confirm this claim by deriving the Einstein equations using aether theory. We shall use a combination of Lorentz's and Kelvin's conception of the aether. Our derivation of the Einstein equations will not use the vanishing of the covariant divergence of the stress-energy tensor, but instead equate the Ricci tensor to the sum of the usual stress-energy tensor and a stress-energy tensor for the aether, a tensor based on Kelvin's aether theory. A crucial first step is generalizing the Cartan formalism of Newtonian gravity to allow spatial curvature, as conjectured by Gauss and Riemann.
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