Through
4/26
Microfluidic devices lined with human cells are headed to the International Space Station in early May, part of an effort to understand why astronauts get sick more easily in orbit.
Myriad industrial processes rely on enzymes, from making orange juice to manufacturing denim jeans. Research emerging from the School of Dental Medicine is transforming how these enzymes get made.
Muscle, blood, brain, and skin cells are different from one another, but they all share the same DNA. Stem cells’ transformation into specialized cells is controlled through various signals from their surroundings. A study suggests that cells may have more control over their fate than previously thought.
An innovative strobing system allows individual markers to be differentiated from their neighbors, allowing an accurate count, even in the ultra-low concentrations associated with hard-to-diagnose conditions.
In its second year, Pennovation Works, a strategic blend of offices, labs, and production space that pushes for the advancement of knowledge and economic development, continued to move the needle on activating its space as an innovation destination.
A multidisciplinary team at Penn successfully demonstrated the feasibility of an innovative new disc replacement made of living material.
Seven researchers from the Perelman School of Medicine, School of Veterinary Medicine, and School of Engineering and Applied Science are to receive National Institutes of Health Director Awards, highly competitive grants to support innovative biomedical research.
The hardware that hold orthopaedic implants together must have some give in order to accommodate physiology. At the Biedermann Lab for Orthopaedic Research, specialists are studying and designing the hardwares’ minutiae to improve upon the intricacies of setting a broken bone in place.
Researchers have found a way to increase the sensitivity of graphene sensors using a trick of DNA engineering. The sensors might one day be used to monitor and treat HIV.
The Penn Center for Health, Devices and Technology weds health care professionals with visionary ideas and the technological know-how to build innovative medical devices.
A lab at the School of Engineering and Applied Science led the development of a COVID test made from bacterial cellulose, an organic compound.
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Michael Mitchell of the School of Engineering and Applied Science and colleagues have constructed a model that could potentially allow drug transporters to bypass the blood-brain barrier.
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David Meaney of the School of Engineering and Applied Science oversees an undergraduate bioengineering lab that uses cockroach legs to teach students to work with human prostheses.
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Preclinical research by Robert Mauck of the Perelman School of Medicine, Thomas Schaer of the School of Veterinary Medicine, and Ana Peredo, a Ph.D. graduate of the School of Engineering and Applied Science, reveals how a biologic patch activated by natural motion could become a key tool for repairing herniated discs in the back and relieving pain.
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A study by César de la Fuente of the Perelman School of Medicine and colleagues used AI to recreate molecules from ancient humans that could be potential candidates for antimicrobial treatments.
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Research from Michael Mitchell of the School of Engineering and Applied Science has developed a new method to stop cytokine release during CAR T cell therapy, preventing some of its more dangerous side effects.
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