activity
20122025
most citedElliptic curves, modular forms, and sums of Hurwitz class numbers

18 citations · 38 across the 7 of their papers we have counts for

collaborators

7 papers

math.HO2025

Taffy, Trees, and Tangles

Neil J. Calkin, Eliza Gallagher, Ben Gobler

We study the relationship between three combinatorial objects -- a taffy pulling machine, the Calkin-Wilf tree of all fractions, and Conway's rational tangles. After introducing th…

math.SP2025

On the maximal spread of symmetric Bohemian matrices

Neil J. Calkin, Robert M. Corless, Laureano Gonzalez-Vega +2

Let A be a square matrix with real entries. The spread of A is defined as the maximum of the distances among the eigenvalues of A. Let denote the set of all …

math.HO2021★ 3 cited

Computational Discovery with Newton Fractals, Bohemian Matrices, & Mandelbrot Polynomials

Neil J. Calkin, Eunice Y. S. Chan, Robert M. Corless

The authors have been using a largely algebraic form of ``computational discovery'' in various undergraduate classes at their respective institutions for some decades now to teach…

math.DS2021★ 3 cited

A Fractal Eigenvector

Neil J. Calkin, Eunice Y. S. Chan, Robert M. Corless +2

The recursively-constructed family of Mandelbrot matrices for , , have nonnegative entries (indeed just and , so each can be called a binary mat…

math.CO2015

What Moser Could Have Asked: Counting Hamilton Cycles in Tournaments

Neil J. Calkin, Beth Novick, Hayato Ushijima-Mwesigwa

Moser asked for a construction of explicit tournaments on vertices having at least Hamilton cycles. We show that he could have asked for rather more.

math.NT2012★ 14 cited

Finite field elements of high order arising from modular curves

Jessica F. Burkhart, Neil J. Calkin, Shuhong Gao +6

In this paper, we recursively construct explicit elements of provably high order in finite fields. We do this using the recursive formulas developed by Elkies to describe explicit…