Pith. sign in

Reconstructing k-essence: Unifying the attractor $n_S(N)$ and the swampland criteria

1 Pith paper cite this work. Polarity classification is still indexing.

1 Pith paper citing it
abstract

The reconstruction of a k-essence inflationary universe, considering the unification between the swampland criteria and the attractor given by the scalar spectral index $n_S(N)$ together with the slow roll parameter $\epsilon(N)$in terms of the number of $e$-folds $N$ is studied. In the context of a coupling of the form $L(\phi)\,X$ in the k-essence model, we find the effective potential $V$ and the coupling parameter $L$ in terms of the scalar spectral index and the slow roll parameter under a general formalism. To apply the unification in our model, we consider some examples in order to rebuild the effective potential $V(\phi)$ and the coupling parameter $L(\phi)$ as a function of the inflaton field $\phi$. Here, we find that the reconstruction gives rise to an exponential potential and also to natural and hyperbolic inflation, respectively. Thus, in this article we show that it is possible to unify the theoretical foundations from the swampland criteria and the observational parameters corroborated by observations, in the reconstruction of an inflationary universe.

citation-role summary

background 1

citation-polarity summary

fields

astro-ph.CO 1

years

2025 1

verdicts

CONDITIONAL 1

roles

background 1

polarities

unclear 1

representative citing papers

Nonlinear reconstruction of general dark energy theories

astro-ph.CO · 2025-07-02 · conditional · novelty 6.0

A reconstruction method is derived that turns background expansion and linear perturbation data into full non-linear Lagrangians for quintessence, scalar-tensor, k-essence, and shift-symmetric cubic Galileon dark energy models.

citing papers explorer

Showing 1 of 1 citing paper.

  • Nonlinear reconstruction of general dark energy theories astro-ph.CO · 2025-07-02 · conditional · none · ref 67 · internal anchor

    A reconstruction method is derived that turns background expansion and linear perturbation data into full non-linear Lagrangians for quintessence, scalar-tensor, k-essence, and shift-symmetric cubic Galileon dark energy models.