Positive Mass in General Relativity Without Energy Conditions
arXiv:2408.00154 · doi:10.1103/PhysRevD.111.044027
Abstract
A long-standing problem in physics is why observed masses are always positive. While energy conditions in quantum field theory can partly answer this problem, in this paper we find evidence that classical general relativity abhors negative masses, without the need for quantum theory or energy conditions. This is done by considering many different models of negative-mass "stars" and showing they are dynamically unstable. A fortiori, we show that any barotropic negative-mass star must be dynamically unstable.
26 pages, 9 figures. v3 accepted for publication in Phys. Rev. D. Two extra appendices relative to the published version
References in corpus (18)
- The Dynamics of General Relativity
- Gravitational Vacuum Condensate Stars
- A Quantum Focussing Conjecture
- Gravitational Condensate Stars: An Alternative to Black Holes
- Proof of the Quantum Null Energy Condition
- Energy conditions in general relativity and quantum field theory
- Warp drive basics
- Light Rays, Singularities, and All That
- Proving the Achronal Averaged Null Energy Condition from the Generalized Second Law
- Spherically symmetric relativistic stellar structures
- Averaged null energy condition in spacetimes with boundaries
- Plate with a hole obeys the averaged null energy condition
- Investigations on T violation and CPT symmetry in the neutral kaon system -- a pedagogical approach --
- OGRe: An Object-Oriented General Relativity Package for Mathematica
- A poor man's positive energy theorem
- Stars creating a gravitational repulsion
- Can quantum mechanics breed negative masses?
- Positivity of Mass in Higher Dimensions