Lillian Pierce - Princeton - Research

Lillian Pierce

School of Mathematics
Institute for Advanced Study
Einstein Drive
Princeton, NJ 08540
lbpierce at math dot ias dot edu


Publications

The 3-Part of Class Numbers of Quadratic Fields
J. London Math. Soc. (2) 71 (2005) 579-598 (pdf)

A Bound for the 3-Part of Class Numbers of Quadratic Fields by Means of the Square Sieve
Forum Math. 18 (2006) no. 4, 677-698 (pdf)

Companion paper by N. M. Katz
On a Question of Lillian Pierce
Nicholas M. Katz
Forum Math. 18 (2006) no. 4, 699-710 (pdf)


In preparation

A Note on Discrete Fractional Integral Operators and Waring's Problem
Discrete Twisted Singular Radon Transforms
Discrete Fractional Integral Operators on Quadratic Surfaces
A Discrete Analogue of Fractional Integration on the Heisenberg Group


Theses

Discrete Analogues in Harmonic Analysis
PhD Thesis, Princeton University (pdf)
Advisor: E. M. Stein
This thesis presents a number of results on discrete operators in harmonic analysis, ranging from discrete fractional integral operators along quadratic surfaces to a discrete analogue of fractional integration on the Heisenberg group. The techniques developed are motivated by the circle method and involve substantial analytic machinery.

The 3-Part of Class Numbers of Quadratic Fields
MSc Thesis, Oxford University, 2004 (pdf)
Advisor: D. R. Heath-Brown
This original thesis gives the first nontrivial bounds for the 3-part of class numbers of quadratic fields, using techniques of analytic number theory such as mean values of exponential sums, the square sieve, and the q-analogue of van der Corput's method.

The Pair Correlation of the Zeroes of the Riemann Zeta Function
Undergraduate Senior Thesis, Princeton University, 2002 (pdf)
Advisor: E. M. Stein
An expository thesis giving a proof of Montgomery's original theorem, the derivation of the GUE pair correlation function, and an examination of the computational results of Odlyzko.

Hardy Functions
Undergraduate Junior Paper, Princeton University, 2001 (pdf)
Advisor: E. M. Stein
An expository paper giving a proof of the Paley-Wiener theorem and applications of Hardy functions as signal filters.