Department Chair:

Thomas F. Kent, Ph.D.
Center for Natural and Health (CNHS) building, Room 318
(570) 348-6211 ext. 2278

Administrative Assistant:

Marcia Gaughan
Center for Natural and Health Science (CNHS) building, Room 320 A

(570) 348-6265

Kenny Rushinski

Class of 2011

I am currently spending a majority of my week as a data analyst just outside of Chicago, building data bases for a major food and beverage company. What was great about Marywood was that I never felt like just another number in any of my classes. I never felt out of place asking questions and that allowed me to get a better understanding of any and all concepts that I can now use to further my career.

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About Fractals | Gallery

Department Name Change

The Board of Trustees officially approved the change of our department name to "the Department of Mathematics and Computer Science" at the April 2014 board meeting.

Invited Speaker

Dr. Jiahong Wu, Oklahoma State University USA and Chung-Ang University, South Korea

Time: Monday, Mar. 17, 2014 1:00PM - 2:00PM

Location: CNHS Room 201

Title: Partial Differential Equations of Fluids with Partial or Fractional Dissipation


This talk presents recent results on the global regularity problem concerning several PDEs modeling fluids when only partial dissipation or fractional dissipation is involved. Attention is focused on the 2D Boussinesq equations and the 2D magneto-hydrodynamic (MHD) equations. The Boussinesq equations concerned here model geophysical flows such as atmospheric fronts and ocean circulations. Mathematically the 2D Boussinesq equations serve as a lower dimensional model of the 3D hydrodynamics equations. We review recent results on various cases of partial dissipation and presents most recent developments on the 2D Boussinesq equations with fractional dissipation. The MHD equations model electrically conducting fluids such as plasmas. The MHD equations can be difficult to analyze due to the nonlinear coupling between the induction equation and the Naver-Stokes equations with the Lorentz force. Global regularity results for several partial and fractional cases will be summarized. Especially small global solutions with velocity dissipation or damping will be described.