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New biomedical, mechanical engineering programs to launch this fall

Nicholas Munson | Special to the Catholic Herald

Eric Bubar, associate professor of engineering at Marymount University in Arlington, tries on an Oculus virtual reality headset in his engineering lab. Marymount University | COURTESY

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In the Fall 2022 academic semester,  Marymount University in Arlington will offer its students innovative, in-person bachelor’s degree programs in engineering. This comes as the institution expands its offerings of cutting-edge STEM (Science, Technology, Engineer and Math) programs while also gaining recognition as a hub in the national capital region for creating next-generation talent in highly skilled career fields.

The university will provide students  separate degree paths in biomedical engineering and mechanical engineering. In both programs, students will create technological solutions to medical problems that face aging populations and individuals with disabilities or impairments.

“It’s one thing to build a foundational knowledge within a field of study and learn the skills needed to turn that knowledge into a successful career,” said Hesham El-Rewini, provost and senior vice president of academic affairs. “But at Marymount, we take the extra step and guide our students to apply that knowledge toward the service of others and the promotion of a greater good.”

The  World Health Organization (WHO) estimates that  by 2030, more than 2 billion people worldwide will need at least one assistive technology product — such as wheelchairs or prosthetics — to live independent and healthy lives. However, more than 90 percent of those who need assistive technologies don’t have access to them, as current models for medical care and treatment are insufficient to meet this growing need.

In response, engineering students at Marymount will complete foundational projects involving traditional and additive manufacturing technologies and basic electronics to provide innovative solutions. Examples include building upper and lower limb exoskeletons and body-powered prosthetics to be donated internationally, exploring virtual and augmented reality technologies, and designing custom electronic solutions.

“What sets Marymount apart is our commitment to a high-quality undergraduate education that emphasizes small class sizes, personal attention and opportunities for all students to conduct research,” said Marnel Niles Goins, dean of  the college of sciences and humanities. “With our inaugural engineering programs, participants can take advantage of this student-centered environment not only to join a rewarding career field but also make a difference in people’s everyday lives.”

Marymount’s engineering programs will be led by Eric Bubar, associate professor of engineering, who came to Marymount in 2011 with advanced expertise in physics and astronomy. Since then,  he has utilized those skills to develop open-source solutions for individuals in need through the use of technologies like 3D printers, virtual reality, bioprinting and more. He also  helped lead a volunteer effort to mass produce 3D-printed face shields for distribution to hospitals across the country in the early days of the COVID-19 pandemic.

Two new faculty members will be assistant professors of engineering . With research specializing in solid and fluid mechanics and heat and mass transfer, Farzad Ahmadi has served as an instructor for several undergraduate and graduate-level engineering courses over the past decade while also conducting a variety of engineering outreach programs for youths. He uses a rich blend of experimental, analytical and computational methods to gain a comprehensive understanding of challenging problems such as anti-freezing materials and solar desalination, and his research has been featured in  The New York TimesThe GuardianScience and other domestic and international media.

The experience of Shama Iyer, meanwhile, spans biomechanics, tissue engineering, muscle physiology, biomaterials and STEM education and outreach. Examples of her past research include developing surface coatings and mesh materials to improve skeletal muscle regeneration and reduce scar tissue after muscle loss. Her current, multidisciplinary research on skeletal muscle physiology is funded by the  National Institutes of Health (NIH)

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