Daniel Flores Galiote
  • Home
  • Research
  • Publications
  • Talks
  • Teaching
  • About
Daniel Flores Galiote

Welcome to my academic webpage, I am a postdoctoral instructor in the Department of Mathematics at Rice University under the mentorship of Anthony Várilly-Alvarado. I recently finished my PhD at Purdue University under the supervision of Trevor Wooley. I study problems concerning Diophantine equations via the Hardy–Littlewood circle method. In particular, I am interested in the statistical properties of rational and integer solutions to polynomial equations.

G. C. Evans Instructor · Department of Mathematics · Rice University

View publications Curriculum vitae Contact

Daniel Flores Galiote in academic regalia

Research

My research concerns the existence and distribution of integral solutions to systems of polynomial equations. My main tool of choice is the Hardy-Littlewood circle method, which is a powerful tool in analytic number theory which exploits the identity

\[\int_0^1 e^{2 \pi i \alpha n} d\alpha = \begin{cases} 1 & \text{if } n=0, \\ 0 & \text{if } n \in \mathbb{Z} \backslash \{0\}, \end{cases},\]

and allows one to employ the techniques of Fourier analysis to tackle problems in analytic number theory.

Read more about my research · View all publications

Selected publications

Accepted

The Hasse principle for random homogeneous polynomials in thin sets

Joint work with Kiseok Yeon. To appear in Mathematika. We make progress towards a conjecture of Coliot-Thélène, which predicts that the Hasse principle holds for all homogeneous polynomials of degree \(d>3\) in at least \(d+1\) variables. Specifically, we show that if we average over a thin set of polynomials of degree \(d \ge 17\) and at least \(24d +1\) variables, then the Hasse principle holds with probability tending to \(1\) as the size of the thin set tends to infinity.

arXiv PDF

Published

A circle method approach to \(K\)-multimagic squares

We study the existence of \(K\)-multimagic squares, which are square matrices whose entries are integers and satisfy the condition that if we raise each entry to the \(k\)-th power then the resulting matrix is a magic square for all \(1\le k\le K\). We show that for any \(K\ge 2\), there exist infinitely many \(K\)-multimagic squares of size \(N > 2K(K+1)\).

Journal of the London Mathematical Society 112 (2025), e70290.

DOI arXiv PDF

Contact

Institution

Department of Mathematics
Rice University
Herman Brown Hall 450

Email

df66@rice.edu

Profiles

GitHub · ORCID

Copyright 2026, Daniel Flores Galiote

 

Built with Quarto