**Research Overview**

My research currently resides in areas of arrangement theory, geometric number theory, and sports analytics.

**Scholarly Works**

- Almost Gap Balancing Numbers (with B. Dearden and J. Iiams),
*Integers*, 18(A79), 2018. - Induced and Complete Multinets,
*Configuration Spaces: Geometry, Topology, and Representation Theory*, Springer INdAM series, vol. 14, pp. 213-231, 2016. - A Mixed-Methods Study on Pre-licensure Nursing Students Changing Answers on Multiple Choice Examinations (with T. George and M. Muller),
*Journal of Nursing Education,*2016 Apr 1; 55(4):220-3. doi: 10.3928/01484834-20160316-07. - Multinets in P^2 (with S. Yuzvinsky),
*Bridging Algebra, Geometry, and Topology*, Springer Proceedings in Mathematics and Statistics, vol. 96, 2014. - Multinets in P^2 and P^3, Ph.D. Dissertation
*,*University of Oregon, 2013.

**Research Awards**

- Summer Research Award, Francis Marion University, 2015.
- Summer Research Award, Francis Marion University, 2014.

**Descriptions of Research Interests**

**Arrangement Theory**

Arrangement theory is a branch of discrete geometry which studies collections of geometric objects and their properties. My research lies in the area of complex hyperplane arrangements, finite collections of hyperplanes in the complex projective plane. More specifically, I study configurations of points and lines which satisfy certain intersection properties called

*nets*and

*multinets*. These configurations play an important role in the study of resonance varieties of complex hyperplane arrangement complements.

**Geometric Number Theory**

Geometric constructions give rise to many interesting sequences. More specifically, two colleagues and I have been studying sequences related to when the sum of triangular numbers is again a triangular number.

**Sports Analytics**

Sports analytics has been also an area of interest for me. Some colleagues at the University of North Dakota and I are investigating race data to better understand running events.