The paper claims a torsion-based F(R,T) model can replace dark matter but provides no derivations, likelihoods, or data, leaving the claim unsupported.
Nonminimally-coupled warm Higgs inflation: Metric vs. Palatini Formulations
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abstract
In this work, we study the non-minimally-coupled Higgs model in the context of warm inflation scenario on both metric and Palatini approaches. We particularly consider a dissipation parameter of the form $\Gamma=C_{T}T$ with $C_{T}$ being a coupling parameter and focus only on the strong regime of the interaction between inflaton and radiation fluid. We compute all relevant cosmological parameters and constrain the models using the observational Planck 2018 data. We discover that the $n_s$ and $r$ values are consistent with the observational bounds. Having used the observational data, we constrain a relation between $\xi$ and $\lambda$ for the non-minimally-coupled warm Higgs inflation in both metric and Palatini cases. To produce $n_s$ and $r$ in agreement with observation, we find that their values are two orders of magnitude higher than those of the usual (cold) non-minimally-coupled Higgs inflation.
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gr-qc 1years
2025 1verdicts
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Dark Matter Constraints in Myrzakulov $F(R,T)$ Gravity: A Vielbein Approach in Weitzenb\"{o}ck Spacetime with Observational Data
The paper claims a torsion-based F(R,T) model can replace dark matter but provides no derivations, likelihoods, or data, leaving the claim unsupported.