Abstract

This Independent Study examines aperiodic tilings of the Euclidean plane, with particular attention to the recent discovery of an aperiodic monotile, or “einstein” tile. The project explores the mathematical foundations and historical development of tiling theory, establishing a framework for understanding how shapes can cover the plane without gaps or overlaps. Beginning with classical tiling theory and symmetry constraints on periodic patterns, the study develops the necessary background to distinguish periodic from aperiodic structures.

Building on this foundation, the paper analyzes major milestones in the study of aperiodicity, including Wang tiles, Penrose tiles, and Taylor–Socolar tiles, situating them within the broader search for a single shape capable of enforcing nonperiodicity without complex matching rules. By tracing the evolution of this problem and examining the mathematical ideas that led to the discovery of the einstein tile, this study highlights how questions of symmetry, infinity, and structure intersect in modern tiling theory.

Advisor

Pierce, Pamela

Department

Mathematics

Disciplines

Geometry and Topology | Other Mathematics

Keywords

Aperiodicity, Tiling Theory, Infinity, Aperiodic Monotile

Publication Date

2026

Degree Granted

Bachelor of Arts

Document Type

Senior Independent Study Thesis

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