Through
2/14
MatSci Makerspace is a space for students to work with the synthesis, processing, structure, properties and application of materials, with open hours for materials-centric passion projects.
A new photodetector design from Penn Engineering is not only extremely thin, making it lightweight and cost effective, it can also emit light, not just detect it.
Artificial chromatophores, which consist of membranes stretched over circular cavities attached to pneumatic pumps, allow surfaces squid-like active camouflage capabilities.
As one of eight teams to be awarded National Science Foundation funding, a partnership between Penn and the University of Puerto Rico will continue its long-running collaboration focused on innovative research and STEM career pathway support.
A new study from Penn Engineering details the complex electrochemical process that causes certain types of batteries to degrade, insights that could aid in the design of longer lasting, more efficient batteries in the future.
By combining theory, computational simulations, chemical synthesis, and assembly, researchers demonstrate how an “inverse design” strategy can create unique materials using difficult-to-mix nanocrystals.
By combining cutting-edge concepts from theoretical physics, researchers from Penn Engineering developed “sypersymmetric microlaser arrays” that are both stable and have high power density.
A novel way to rapidly create and characterize blends of polymers, nanoparticles, and other materials could significantly accelerate material development.
The Singh Center’s Krios G3i, an electron microscope for studying samples at extremely low temperatures, allows researchers to look at cells, proteins, and nanoparticles like never before.
The School of Dental Medicine is enhancing and integrating its digital capabilities, opening up new possibilities for training students, conducting research, and delivering seamless and cutting-edge patient care.
A collaborative study by researchers from the School of Engineering and Applied Science has shed new light on amorphization, the transition from a crystalline to a glassy state at the nanoscale.
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A collaborative effort by Ritesh Agarwal of the School of Engineering and Applied Science and colleagues has made phase-change memory more energy efficient and could unlock a future revolution in data storage.
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Christopher Murray’s lab at the School of Arts & Sciences is delving into the next phase of quantum-dot research to make components for quantum computing, sensing, and communication.
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Andrew Rappe of the School of Arts & Sciences and colleagues have developed high-quality, single-crystal oxide thin films, aligned in such a way that the lithium ions can move even faster along vertical ionic transport channels.
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Eleni Katifori of the School of Arts & Sciences is credited for her work simulating wrinkle patterns, which were crucial to an overall theory of geometric wrinkle prediction.
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In the lab of Douglas Jerolmack, researchers led by doctoral candidate Nakul Deshpande of the School of Arts & Sciences explored how landscapes gradually move over time.
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