OU Engineering

Cytovance Biologics, Wheeler Bio and the Gallogly College of Engineering at the University of Oklahoma recently joined forces in a collaborative panel discussion focused on the field of bioprocessing. Experts in the bioprocessing industry highlighted the array of employment prospects within the sector. They also underscored the critical role played by OU Engineering in preparing students for success in bioprocessing, largely attributed to the Economic Development Administration’s Build Back Better Regions Challenge Grant.  The discussion exemplifies the collaborative bridge between academia and industry, encouraging knowledge exchange and preparing students for promising careers in bioprocessing, says Daniel Baker, project manager for the OU Bioprocessing Core Facility which is expected to open in 2024.  OU Engineering Dean John Klier, Ph.D., agrees adding that OU Engineering is thrilled to offer this type of opportunity to OU students. “Biologics, medications derived from biological s

Marmar Moussa, Ph.D., an assistant computer science professor at the University of Oklahoma, has secured an award of nearly $1 million from the National Institutes of Health to advance her work in computational genomics.  The study, titled “Computational approaches to the mechanistic elucidation of the serrated pathway of human colon carcinogenesis,” aims to unravel the mechanisms driving the serrated pathway of human colon carcinogenesis using computational methods that help explain how colon cancer develops. “This research is essential due to the intricacies of colon cancer initiation. Colon cancer often originates through various mechanisms, including mutations and genetic changes that lead to abnormal lesions known as precursor lesions,” Moussa said. “Some of these lesions, such as hyperplastic polyps, are well understood and pose minimal risk. However, others, like serrated lesions, remain less understood and require in-depth investigation.” Serrated lesions are characterized by t

In collaboration, the University of Oklahoma has taken the lead in a Department of Energy project, with support from Kansas State University, to pioneer a new generation of reversible electrochemical cells. The cells have the potential to revolutionize energy storage by integrating seamlessly with fossil fuel assets. The project’s objective was to conduct an extensive study aimed at developing an energy storage technology capable of efficiently converting carbon dioxide emissions captured from fossil fuel assets into valuable fuels, such as methane, says Pejman Kazempoor, Ph.D., a professor in the OU School of Aerospace and Mechanical Engineering, Gallogly College of Engineering, who leads OU’s contribution to the project.  “One of the standout features of this reversible electrochemical technology is its ability to solve existing problems in the energy storage landscape, particularly its exceptionally high round-trip efficiency and durability. Unlike conventional energy storage techno