I grew up in Dayton, Ohio and attended Catholic elementary school, high school, and college. I have always liked mathematics and was completely hooked when I was shown a one-sided Mobius strip in the second grade. After graduating from the University of Dayton, I went to Ann Arbor, Michigan to earn a Ph.D. in mathematics from the University of Michigan (although I remained a Buckeye fan). After a postdoctoral appointment at the University of Oklahoma, I moved to Erie to join the Mathematics Department at Gannon in 2006. While my graduate training was in algebra, I have now taken an additional interest in financial mathematics which led me to create our concentration in actuarial science and in statistical modeling related to qPCR analysis in biology.
I am married and have seven children. My wife also graduated from the University of Dayton and earned a Ph.D. in organic chemistry from the University of Michigan. She has now chosen to devote her life to a full-time career raising and home-schooling our children.
My research interests lie in the field of commutative algebra, specifically tight closure theory, characteristic p methods, and big Cohen-Macaulay algebras and modules.
I study generalized number systems (called “rings”) that behave like the integers or real numbers in many ways but can also behave quite differently. Such systems arise when one studies solutions to systems of equations. I am particularly interested in rings where a fixed number (usually prime) is set equal to 0. (Imagine how 24 = 0 in a 24-hour clock.) Rings also possess geometric information, just as the solutions to y=x^2 can be thought of as a parabola in the plane. Moving back and forth between the algebra and geometry involved can often help one understand both areas better.
I have also written on the history of how algebra (specifically, the negative exponent) has been taught in high school in the United States and worked with some colleagues in Biology on issues related to statistical analysis of qPCR data.