Neutron-Mirror-Neutron Oscillation and Neutron Star Cooling
arXiv:2208.03771 · doi:10.1103/PhysRevLett.129.061103
Abstract
It was pointed out in a recent paper that the observed cooling rate of old, cold neutron stars (NS) can provide an upper limit on the transition rate of neutron to mirror neutron (). This limit is so stringent that it would preclude any discovery of oscillation in the current round of terrestrial searches for the process. Motivated by this crucially important conclusion, we critically analyze this suggestion and note an interesting new effect present in nearly exact mirror models for oscillation, which significantly affect this bound. The new element is the decay , which creates a cloud of mirror particles , , and inside the NS core. The can "rob" the energy generated by the transition via scattering enabled by the presence of a (minute) milli-charge in mirror particles. This energy is emitted as unobserved mirror photons via fast mirror bremsstrahlung leading to a relaxation of this upper limit.
arXiv comment5 pages + supplemental material, 1 figure, short version of arXiv:2203.08473
References in corpus (31)
- Planck 2018 results. I. Overview and the cosmological legacy of Planck
- Neutron Star Cooling
- Asymmetric Inflationary Reheating and the Nature of Mirror Universe
- Neutrino physics and the mirror world: how exact parity symmetry explains the solar neutrino deficit, the atmospheric neutrino anomaly and the LSND experiment
- Reconciling Present Neutrino Puzzles: Sterile Neutrinos as Mirror Neutrinos
- The Early Mirror Universe: Inflation, Baryogenesis, Nucleosynthesis and Dark Matter
- Mirror dark matter: Cosmology, galaxy structure and direct detection
- Dark Radiation constraints on minicharged particles in models with a hidden photon
- Mirror World and its Cosmological Consequences
- Effects of mirror dark matter on neutron stars
- Neutron -- Mirror Neutron Oscillation: How Fast Might It Be?
- Neutron - Mirror Neutron Oscillations: How Fast Might They Be?
- Structure Formation with Mirror Dark Matter: CMB and LSS
- Mirror dark matter and large scale structure
- Thermal luminosities of cooling neutron stars
- Experimental search for neutron - mirror neutron oscillations using storage of ultracold neutrons
- Neutron lifetime puzzle and neutron -- mirror neutron oscillation
- A direct experimental limit on neutron -- mirror neutron oscillations
- Cosmological bounds on the "millicharges" of mirror particles
- New experimental limits on neutron - mirror neutron oscillations in the presence of mirror magnetic field
- Hubble Space Telescope non-detection of PSR J2144-3933: the coldest known neutron star
- On the experimental search for neutron -- mirror neutron oscillations
- A search for neutron to mirror-neutron oscillations
- Heat blanketing envelopes of neutron stars
- Smoke and mirrors: Neutron star internal heating constraints on mirror matter
- Bounds on Neutron- Mirror Neutron Mixing from Pulsar Timings and Gravitational Wave Detections
- Neutron lifetime and dark decay of the neutron and hydrogen
- Limit on Continuous Neutrino Emission from Neutron Stars
- Theoretical Constraints on Neutron--Mirror-Neutron Oscillation
- Neutron-Mirror Neutron oscillations in Matter
- Improved search for neutron to mirror-neutron oscillations in the presence of mirror magnetic fields with a dedicated apparatus at the PSI UCN source
Cited by in corpus (5)
- Constraints on Neutron-Mirror-Neutron Oscillation from Neutron Star Cooling
- How Macroscopic Limits on Neutron Star Baryon Loss Yield Microscopic Limits on Non-Standard-Model Baryon Decay
- Seeking the nearest neutron stars using a new local electron density map
- Effects of Neutron-Antineutron Transitions in Neutron Stars
- Stable bi-frequency spinor modes as Dark Matter candidates