The Department of Mathematics congratulates Professor Barbara Prinari on winning the prestigious 2025 Fulbright Scholar Award. The research award supports Prinari's travel to Greece to study wave phenomena. The main goal of the collaborative research that Prinari will conduct at the University of Ioannina will be to develop a rigorous direct perturbation theory for the study of dark-bright solitons under physically relevant perturbations (e.g., dissipation, linear and nonlinear loss).
Prinari’s research examines how these wave phenomena, by means of mathematical models, often lead to a certain class of nonlinear partial differential equations referred to as integrable systems. Her main area of research deals with nonlinear waves and integrable systems, and has focused on both the study of the integrability of certain nonlinear partial differential equations and their discretizations (differential-difference equations), as well as the properties of these equations and their solutions.
Prinari’s research has also explored how mathematical models can be used for social and behavioral sciences. Her team has applied generalized kinetic methods and artificial neural networks to analyze and control the quality of an existing neuropsychiatric ward. She recently developed a dynamical systems model for triadic reciprocal determinism to study how a person experiences stress or traumatic events, and the interplay among coping self-efficacy, behavior and the perception of external environment.
The Fulbright program, coordinated by the U.S. Department of State, is devoted to improving intercultural relations, diplomacy and competence between the people of the U.S. and other nations through educational exchange. In announcing the 2025 Fulbright Scholar Awards, Robert Granfield, vice provost for faculty affairs, lauded the awardees as exceptional researchers, teachers, and strong international collaborators whose work aims to make a positive global impact. Learn more via UBNow.
Nonlinear waves; integrable systems; solitons; mathematical modeling in social and behavioral science.
PhD in Physics (1999), University of Lecce, Italy
The study of wave phenomena by means of mathematical models often leads to a certain class of nonlinear partial differential equations referred to as integrable systems.
My main area of research deals with nonlinear waves and integrable systems, and has concerned both the study of the integrability of certain nonlinear partial differential equations and their discretizations (differential-difference equations), and of the properties of these equations and their solutions. Specific problems that I have addressed are: the development of the Inverse Scattering Transform (IST) as a tool to solve the initial-value problem for scalar, vector and matrix continuous and discrete nonlinear Schrodinger (NLS) equations with both vanishing and nonvanishing boundary conditions at infinity; solitons and rogue wave solutions; vector soliton interactions, etc. Other integrable systems I have studied over the years include: short-pulse systems, Maxwell-Bloch equations, the Kadomtsev-Petviashvili equations in 2 spatial dimensions, etc.
I have also been interested in mathematical models for social and behavioral sciences. We have applied generalized kinetic methods and artificial neural networks to analyze and control the quality of an existing neuropsychiatric ward. Recently, we also developed a dynamical systems model for triadic reciprocal determinism, to study how a person experiences stress or traumatic events, and the interplay among coping self-efficacy, behavior and the perception of external environment.
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