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Penn is establishing a $100M center to focus on the intersection of engineering and biomedicine

Penn is establishing a $100M center to focus on the intersection of engineering and biomedicine

A planned Center for Precision Engineering for Health, housed in the School of Engineering and Applied Science, will focus on developing biomaterials for personalized medical treatments. “Engineering solutions to problems within human health is one of the grand challenges of the discipline,” Dean Vijay Kumar said. “Our faculty are already leading the charge against these challenges, and the Center will take them to new heights.”

Penn establishes the Center for Precision Engineering for Health with $100 million commitment
Microscopic biomaterials.

The Center for Precision Engineering for Health will bring together researchers spanning multiple scientific fields to develop novel therapeutic biomaterials, such as a drug-delivering nanoparticles that can be designed to adhere to only to the tissues they target. (Image: Courtesy of the Mitchell Lab)

Penn establishes the Center for Precision Engineering for Health with $100 million commitment

The Center will conduct interdisciplinary, fundamental, and translational research in biomaterials that can create breakthroughs in improving health care and saving lives, including nanoparticle technologies to improve storage and distribution of COVID-19 mRNA vaccines.

Evan Lerner

Penn engineers will develop on-demand, on-site mRNA manufacturing
emulsions of oil and water separated by a layer of nanoparticles.

Bijels, or bicontinuous interfacially jammed emulsion gels, are structured emulsions of oil and water that are kept separated by a layer of nanoparticles. Penn Engineering researchers will develop a way of using them to manufacture mRNA-based therapeutics. (Image: Penn Engineering Today)

Penn engineers will develop on-demand, on-site mRNA manufacturing

With an NSF grant, Penn Engineering researchers are developing a new manufacturing technique that would be able to produce mRNA sequences in a way that removes the need for cryogenic temperatures.

From Penn Engineering Today

Smart dental implants
diagram of tooth with metal screw attaching it to gum with words smart dental implant

A “smart” dental implant could improve upon current devices by employing biofilm-resisting nanoparticles and a light powered by biomechanical forces to promote health of the surrounding gum tissue. (Image: Courtesy of Albert Kim)

Smart dental implants

Geelsu Hwang of the School of Dental Medicine and colleagues are developing a smart dental implant that resists bacterial growth and generates its own electricity through chewing and brushing to power a tissue-rejuvenating light.

Katherine Unger Baillie

New engineering approaches to address unmet oral health needs
Three images of circles and squiggles representing microbes and fungi

Time-lapsed fluorescence imaging captures how fungi can be killed precisely. Such approaches can improve how tooth decay-causing biofilms might be targeted. (Image: CiPD)

New engineering approaches to address unmet oral health needs

With a new NIH training grant, awards, and new faculty and publications, the recently launched Center for Innovation & Precision Dentistry is leveraging technological advancements to improve oral health.

Katherine Unger Baillie

New microfluidic device delivers mRNA nanoparticles a hundred times faster
An etched silicon and glass wafer on a surface with a quarter beside it for scale.

The researchers’ new platform technology, called Very Large Scale Microfluidic Integration, allows tens of thousands of microfluidic units to be incorporated into a single three-dimensionally etched silicon-and-glass wafer. (Image: Penn Engineering Today)

New microfluidic device delivers mRNA nanoparticles a hundred times faster

With a “liquid assembly line,” Penn researchers have produced mRNA-delivering-nanoparticles significantly faster than standard microfluidic technologies.

Evan Lerner

‘I Look Like an Engineer’
clockwise) Nyasha Zimunhu, Fahmida Lubna, Celestina Saven, Sanjana Hemdev, Sabrina Green and Sydney Kariuki

Penn Engineering students (clockwise) Nyasha Zimunhu, Fahmida Lubna, Celestina Saven, Sanjana Hemdev, Sabrina Green and Sydney Kariuki all participated in the “I Look Like an Engineer” campaign, locally organized by AWE. (Image: Penn Engineering Today)

‘I Look Like an Engineer’

For the third year in a row, Penn Engineering’s Advancing Women in Engineering program, dedicated to recruiting, retaining and promoting all female-identified students in the School, participated in the “I Look Like an Engineer” social media movement.

From Penn Engineering Today

Becoming a bioengineer, both at home and on campus
electrocardiogram modules This year, the electrocardiogram (ECG) module was redesigned in a way that allowed both in-person and at-home students to create a device to measure their heart rate. These types of innovations also provide new ways to think about STEM education and distance learning more broadly. (Image: Bioengineering Educational Lab)

Becoming a bioengineer, both at home and on campus

This spring, the Bioengineering Modeling, Analysis, and Design lab was able to safely resume in-person instruction while adapting its curriculum to keep remote learners engaged.

Erica K. Brockmeier