| _version_ | 1866901969058136064 |
|---|---|
| author | Rusishvili, Mikheil |
| author_facet | Rusishvili, Mikheil |
| contents | <p>We present Dissipative Information Medium Theory (DIMT), a minimal effective field theory in</p> <p>which information is promoted to a physical, dissipative medium interacting with spacetime geometry. The theory is governed by a single dimensionless dissipation parameter η, fixed independently</p> <p>across multiple physical regimes. Using neutron star mass–radius observations from NICER, we constrain η ≈ 0.12 and demonstrate enhanced compactness of massive neutron stars without requiring</p> <p>an excessively stiff equation of state. Applying the same parameter to late-time cosmology, DIMT</p> <p>naturally alleviates the Hubble tension while preserving early-universe consistency and predicts a</p> <p>redshift-dependent equation of state crossing the phantom divide. Finally, DIMT yields a fully specified, frequency-domain gravitational-wave echo template characterized by chromatic damping and</p> <p>phase drift. The theory is predictive and falsifiable, providing a unified framework linking compact</p> <p>objects, cosmology, and gravitational-wave phenomenology.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_18684755 |
| institution | Zenodo |
| language | |
| publishDate | 2026 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Dissipative Information Medium Theory (DIMT) Rusishvili, Mikheil Dissipative Information Medium Theory (DIMT) Effective Field Theory (EFT) Information as a physical medium Dissipative spacetime Modified gravity Neutron stars Neutron stars Mass–radius relation Compact objects Tolman–Oppenheimer–Volkoff equations Cosmology Dark energy Hubble tension Phantom divide crossing Gravitational waves Scalar field cosmology Black hole echoes Frequency-domain waveform Ringdown physics Quantum gravity phenomenology Gravitational-wave data analysis <p>We present Dissipative Information Medium Theory (DIMT), a minimal effective field theory in</p> <p>which information is promoted to a physical, dissipative medium interacting with spacetime geometry. The theory is governed by a single dimensionless dissipation parameter η, fixed independently</p> <p>across multiple physical regimes. Using neutron star mass–radius observations from NICER, we constrain η ≈ 0.12 and demonstrate enhanced compactness of massive neutron stars without requiring</p> <p>an excessively stiff equation of state. Applying the same parameter to late-time cosmology, DIMT</p> <p>naturally alleviates the Hubble tension while preserving early-universe consistency and predicts a</p> <p>redshift-dependent equation of state crossing the phantom divide. Finally, DIMT yields a fully specified, frequency-domain gravitational-wave echo template characterized by chromatic damping and</p> <p>phase drift. The theory is predictive and falsifiable, providing a unified framework linking compact</p> <p>objects, cosmology, and gravitational-wave phenomenology.</p> |
| title | Dissipative Information Medium Theory (DIMT) |
| topic | Dissipative Information Medium Theory (DIMT) Effective Field Theory (EFT) Information as a physical medium Dissipative spacetime Modified gravity Neutron stars Neutron stars Mass–radius relation Compact objects Tolman–Oppenheimer–Volkoff equations Cosmology Dark energy Hubble tension Phantom divide crossing Gravitational waves Scalar field cosmology Black hole echoes Frequency-domain waveform Ringdown physics Quantum gravity phenomenology Gravitational-wave data analysis |
| url | https://doi.org/10.5281/zenodo.18684755 |