A survey on the generalized Fermat equation of various signatures over totally real fields
2025/12/04 by Sahoo, Satyabrat
#11D41 #11G05 #11R80 #FOS: Mathematics #Number Theory (math.NT)
paper · doi:10.48550/arxiv.2512.04936
Abstract
Following the famous proof of Fermat's Last Theorem by Andrew Wiles using the modularity of elliptic curves over ℚ, significant developments have been made in the study of Diophantine equations using the modularity method. This article presents a survey of numerous results on the solutions of the generalized Fermat equation of signatures (p,p,p), (p,p,2), (p,p,3), and (r,r,p) over totally real number fields using the modularity method.
Citations
- Asymptotic Fermat equation of signature (r, r, p) over totally real fields
- On the solutions of the generalized Fermat equation over totally real number fields
- Non-trivial Integer Solutions of xr+yr=Dzp
- On Darmon's program for the Generalized Fermat equation, II
- Asymptotic Fermat for signatures (r,r,p) using the modular approach
- Two results on xr + yr = dzp
- Asymptotic Fermat for signatures (p,p,2) and (p,p,3) over totally real fields
- Elliptic curves over totally real quartic fields not containing √5 are modular
- On Ternary Diophantine Equations of Signature (p,p,3) over Number Fields
- Some extensions of the modular method and Fermat equations of signature (13,13,n)
- On the generalized Fermat equation over totally real fields
- Elliptic Curves over Real Quadratic Fields are Modular
- Elliptic curves over real quadratic fields are modular
- Recipes to Fermat-type equations of the form xr + yr = Czp
- Fermat-type equations of signature (13,13,p) via Hilbert cuspforms
- Solving Fermat-type equations x5+y5=dzp
- Modular Elliptic Curves and Fermat's Last Theorem
Related