Researchers from Drexel University have found a way to destroy stubbornly resilient toxic compounds, ominously dubbed “forever chemicals,” that have contaminated the drinking water of millions across the United States.
Researchers from Drexel University have found a way to destroy stubbornly resilient toxic compounds, ominously dubbed “forever chemicals,” that have contaminated the drinking water of millions across the United States.
The Philadelphia Museum of Art’s “Designs for Different Futures” exhibition includes contributions and installations from several Penn faculty and alumni who seek to answer questions about what the not-so-distant future may look like.
A clinical trial in dogs with cancer, co-led by the Perelman School of Medicine and the School of Veterinary Medicine, is testing the feasibility, safety, and effectiveness of delivering a full dose of radiation therapy in a split second.
Collaborations between physicists and mathematicians at Penn showcase the importance of research that crosses the traditional boundaries that separate fields of science.
Catherine Nabukalu, an alumna of the Master in Environmental Studies program, worked with School of Arts and Sciences Professor Reto Gieré to track the charcoal supply chain through research in Nabukalu’s native Uganda.
A new study shows how microscopic robots, remotely driven by magnetic fields, can use capillary forces to manipulate objects floating at the interface between two liquids.
A collaboration of geophysicists and fluid mechanics experts led to a fundamental new insight into how tiny ‘bridges’ help particles of all kinds form aggregates.
The parasite Toxoplasma gondii need not infect a host immune cell to alter its behavior, according to a new study from the School of Veterinary Medicine.
Bob Quaglia (BS electrical and computer engineering ‘86) is a big believer in fate, and he’s been helping to shape the fate of Drexel co-op students, like he once was, as a manager at Woodward McCoach Inc. since 1994.
A collaborative team has developed a method for electroadhesion—which exploits the same phenomenon as static cling—to manipulate microscale objects.