Assembling tiny chips into unique programmable surfaces, Princeton researchers have created a key component toward unlocking a communications band that promises to dramatically increase the amount of data wireless systems can transmit.
The David and Lucile Packard Foundation announced today that quantum chemist Leslie Schoop is one of 20 researchers to receive a Packard Fellowship for Science and Engineering, targeted to innovative, early-career scientists and engineers.
"Princeton is thrilled that the Foundation has honored Dr. Schoop with this extraordinary fellowship," said University President Christopher L. Eisgruber.
The Princeton Center for Complex Materials, a research center at Princeton University dedicated to discovering the materials of the future and training a globally competitive and diverse workforce, has been selected by the National Science Foundation (NSF) to expand its groundbreaking interdisciplinary mission into two new areas: quantum technologies and biology-inspired materials.
In her latest book, “Race After Technology: Abolitionist Tools for the New Jim Code,” Ruha Benjamin offers a detailed, critical and sobering view of the ways in which bias is infused into technology.
Three research endeavors aimed at fundamental challenges in health, information technology and water conservation have been selected for funding through the Eric and Wendy Schmidt Transformative Technology Fund.
Electrons race along the surface of certain unusual crystalline materials, except that sometimes they don't. Two new studies from Princeton researchers and their collaborators explain the source of the surprising behavior and chart a course for restoring the speedy flow of electrons through these remarkable crystals, prized for their potential use in future technologies including quantum computers.
Imagine a world where people could only talk to their next-door neighbor, and messages must be passed house to house to reach far destinations.
Until now, this has been the situation for the bits of hardware that make up a silicon quantum computer, a type of quantum computer with the potential to be cheaper and more versatile than today's versions.
Princeton researchers have uncovered new rules governing how objects absorb and emit light, fine-tuning scientists' control over light and boosting research into next-generation solar and optical devices.
The discovery solves a longstanding problem of scale, where light's behavior when interacting with tiny objects violates well-established physical constraints observed at larger scales.
