Degree Name

MS (Master of Science)

Program

Mathematical Sciences

Date of Award

12-2025

Committee Chair or Co-Chairs

Jeff Knisley

Committee Members

Robert M. Price, Rodney Keaton

Abstract

This thesis develops a discrete stochastic linear systems interpretation of age–stage demographic evolution grounded in Leslie operators and realized in a discrete-event simulation implemented with salabim. The central claim is that one annual cycle of the simulation constitutes a cone-preserving, stochastic affine transformation on a high- dimensional population state vector indexed by age, sex, marital status, household type, employment, and education, and that the composition of yearly operators yields a random matrix product whose top Lyapunov exponent is the stochastic counterpart of the Perron–Frobenius growth rate (Caswell, 2001; Tuljapurkar, 1997)[1, 2]. The actuarial bridge is constructed by mapping simulated survival and fertility transitions to classical life contingencies, thereby recovering survival functions, annual death probabilities, expected lifetime, and present values of life-contingent cash flows (Dickson, Hardy, & Waters, 2013)[ 3]. The result is a mathematically principled, empirically calibrated framework in which agent-level events aggregate to operator- level dynamics, so that actuarial analysis and simulation-based demography become formally consistent.

Document Type

Thesis - unrestricted

Copyright

Copyright by David Kings

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