11/15
Quantum Computing
Acoustic signals for better wireless technologies
Acoustic signals for better wireless technologies
Researchers push the limits of sound wave control, unlocking the potential for faster, clearer wireless communication and quantum information processing technologies.
Twisted sheets yield electrifying outcomes
Twisted sheets yield electrifying outcomes
Researchers uncovered how twisting layers of a material can generate a mysterious electron-path-deflecting effect, unlocking new possibilities for controlling light and electrons in quantum materials.
Wormhole-like dynamics
Wormhole-like dynamics
Theoretical physicists Vijay Balasubramanian and Jonathan Heckman of the School of Arts & Sciences speak with Penn Today to explain the implications of new research claiming to have observed wormhole-like teleportation on a quantum computer.
Uncovering unexpected properties in a complex quantum material
Uncovering unexpected properties in a complex quantum material
Using a novel technique developed at Penn, researchers gained new insights into the properties of a proposed excitonic insulator known as Ta2NiSe5, with implications for future quantum devices.
One step closer to new devices for quantum computing
One step closer to new devices for quantum computing
New research from Penn Engineering describes a new type of ‘quasiparticle’ and topological insulator, opening up new opportunities and future applications into new photonic devices.
Engineers ensure quantum experiments get off to the right start
Engineers ensure quantum experiments get off to the right start
Research from the group of Lee Bassett in the School of Engineering and Applied Science describes a new approach for resetting and validating quantum states to reduce uncertainty in quantum computing experiments.
Bringing ideas to life through experimental physics
Bringing ideas to life through experimental physics
Researchers in the lab of Liang Wu are generating data to gain a better understanding of the properties of quantum materials. Their fundamental research can lead to applications ranging from better optoelectronic devices to quantum computers.
A ‘quantum leap’ for quantum information science
A ‘quantum leap’ for quantum information science
By bringing together experts across campus and across disciplines, Penn is poised to lead ongoing efforts towards developing quantum applications using atomically-thin materials.
Unique electrical properties in quantum materials can be controlled using light
Unique electrical properties in quantum materials can be controlled using light
New research on Weyl semimetals, a class of quantum materials, unlocks unique quantum properties that can be used to create light-controlled electronic devices in the future.
Penn Engineering groups awarded NSF grants to work toward ‘quantum leap’
Penn Engineering groups awarded NSF grants to work toward ‘quantum leap’
One group will design robust, integrated quantum memory devices based on defects in diamond, and the other group will develop materials to encode and decode quantum information in single photons. These technologies will be part of the safest and most secure information network ever seen.
In the News
Technical.ly Philly
The new Penn QUIEST center aims to centralize quantum tech research
Lee Bassett of the School of Engineering and Applied Science hopes that Penn QUIEST, a joint initiative between Penn Engineering and the School of Arts & Sciences, will be a hub for quantum-related educational opportunities across STEM degree programs.
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