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Nanotechnology

The Singh Center for Nanotechnology turns 10
Exterior of Singh Center for Nanotechnology lit up at nighS

The Singh Center with its marigold glass facade and distinctive cantilevered structure exemplifies cutting-edge scientific research by virtue of its sleek geometry and meticulous attention to detail by all those involved in its development. (Image: Weiss/Manfredi)

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The Singh Center for Nanotechnology turns 10

Since its founding, the Center’s multidisciplinary approach has been a strength, where researchers from Penn Engineering, Arts & Sciences, and more come together in one space.
‘In vivo’ RNA-based gene editing model for blood disorders developed
Microscopic rendering of mRNA gene editing.

Image: iStock/Ozgu Arslan

‘In vivo’ RNA-based gene editing model for blood disorders developed

Researchers from Penn Medicine and The Children’s Hospital of Philadelphia show that gene editing tools can be delivered via lipid nanoparticles, which would reduce cost and increase access to cutting-edge gene therapies.

Alex Gardner

Tiny swimming robots can restructure materials on a microscopic level
10 stages of a microrobot’s movements.

Tiny swimming robots can restructure materials on a microscopic level

Penn Engineers are working to make controlling microscopic processes, such as transporting drugs to tumors for precise therapies, faster, safer, and more reliable through the use of microrobots.

From Penn Engineering Today

Rethinking the computer chip in the age of AI
A computer chip illuminated and elevated with the letters AI printed on it.

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Rethinking the computer chip in the age of AI

A team of researchers from the School of Engineering and Applied Science has introduced a computing architecture ideal for AI using an approach known as compute-in-memory.

From Penn Engineering Today

Inspired by nature, artificial microtubules can work against a current to transport tiny cargoes
graphic of microvascular networks showing how free-swimming microrobots disperse but a microcatheter propels robots against a flow to a target

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hile free-swimming microrobots have been explored as a way to precisely deliver therapeutics within a blood vessel, they can disperse in the strong flows, failing to reach their target at high enough concentrations. In contrast, microrobots propelled along an artificial microtubule, developed by physicist Arnold Mathijssen and colleagues, can be transported precisely, even working against the current. (Image: Courtesy of Arnold Mathijssen/Nature Machine Intelligence)

Inspired by nature, artificial microtubules can work against a current to transport tiny cargoes

Technology developed by Arnold Mathijssen of the School of Arts & Sciences and colleagues could one day clear blockages in blood vessels or precisely target chemotherapy drugs to a tumor.

Katherine Unger Baillie