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Heavy spin-2 Dark Matter

3 Pith papers cite this work. Polarity classification is still indexing.

3 Pith papers citing it
abstract

We provide further details on a recent proposal addressing the nature of the dark sectors in cosmology and demonstrate that all current observations related to Dark Matter can be explained by the presence of a heavy spin-2 particle. Massive spin-2 fields and their gravitational interactions are uniquely described by ghost-free bimetric theory, which is a minimal and natural extension of General Relativity. In this setup, the largeness of the physical Planck mass is naturally related to extremely weak couplings of the heavy spin-2 field to baryonic matter and therefore explains the absence of signals in experiments dedicated to Dark Matter searches. It also ensures the phenomenological viability of our model as we confirm by comparing it with cosmological and local tests of gravity. At the same time, the spin-2 field possesses standard gravitational interactions and it decays universally into all Standard Model fields but not into massless gravitons. Matching the measured DM abundance together with the requirement of stability constrains the spin-2 mass to be in the 1 to 100 TeV range.

citation-role summary

background 2

citation-polarity summary

fields

gr-qc 2 hep-ph 1

years

2026 1 2025 2

verdicts

UNVERDICTED 3

roles

background 2

polarities

background 1 support 1

representative citing papers

Topological charge and black hole photon spheres in massive gravity

gr-qc · 2025-09-04 · unverdicted · novelty 7.0

In dRGT massive gravity, static spherically symmetric black holes exhibit zero, one, or two photon spheres whose topological charges and stability patterns differ from Einstein gravity and from horizonless compact objects.

Gravitational wave propagation in bigravity in the late universe

gr-qc · 2025-07-15 · unverdicted · novelty 5.0

Exact solutions and uniform approximations for GW modes in bigravity in de Sitter yield regime-dependent luminosity distances, a new bound from GW170817, and retained coherence between massless and massive signal components.

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