Approximate axially symmetric solution of the Weyl-Dirac theory of gravitation and the spiral galactic rotation problem
O.V. Babourova, B.N. Frolov, P.E. Kudlaev

TL;DR
This paper develops an approximate axially symmetric solution within a conformal Weyl-Dirac gravitational framework, modeling dark matter as a scalar field, and applies it to explain spiral galaxy rotation curves.
Contribution
It introduces a new conformal Weyl-Dirac gravitational theory with a scalar field for dark matter and derives an approximate solution relevant to galactic rotation.
Findings
Derived a static axially symmetric vacuum solution
Applied the solution to galaxy rotation velocity problems
Provided insights into dark matter effects in galactic dynamics
Abstract
On the basis of the Poincare-Weyl gauge theory of gravitation, a new conformal Weyl-Dirac theory of gravitation is proposed, which is a gravitational theory in Cartan-Weyl spacetime with the Dirac scalar field representing the dark matter model. A static approximate axially symmetric solution of the field equations in vacuum is obtained. On the base of this solution in the Newtonian approximation one considers the problem of rotation velocities in spiral components of galaxies.
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Taxonomy
TopicsCosmology and Gravitation Theories · Relativity and Gravitational Theory · Black Holes and Theoretical Physics
