Philip Feng Research Group

Congratulations to Dr. Wen Sui and Prof. Philip Feng on their recent Applied Physics Letters publication!

Congratulations to recent IMG graduate, Dr. Wen Sui, and his advisor Prof. Philip Feng, on the publication of their research article, “AlScN-on-SiC microelectromechanical Lamb wave resonators operating at high temperature up to 800°C”, in Applied Physics Letters.

Paper link: https://doi.org/10.1063/5.0185606

Congratulations to Tahmid Kaisar and Dr. Feng on Physical Review Letters Publication!

Congratulations to IMG Ph.D. student, Tahmid Kaisar, and IMG Professor, Dr. Philip Feng, for their research article, “Parametric Frequency Divider Based Ising Machines”, recently published in Physical Review Letters. In this work, they report on a new class of Ising machines (IMs) that rely on coupled parametric frequency dividers (PFDs) as macroscopic artificial spins.

IMG Members Giving 4 Oral and 2 Poster Presentations at IEEE MEMS 2024 Conference!

IMG will have a strong presence at this year's IEEE International Conference on Micro Electro Mechanical Systems (IEEE MEMS 2024) from January 21st to January 25th.

If you find yourself at the conference, please try to stop by their works. A big congratulations to all the authors below!

Oral

Congratulations to Enamul and Dr. Feng on IEEE International Electron Devices Meeting (IEDM) Paper!

At the IEEE International Electron Devices Meeting (IEDM) 2023 taking place in San Francisco, CA this week, ECE Florida Ph.D. student S M Enamul Hoque Yousuf, along with his advisor Prof. Philip Feng, reports on a new advancement in “More-than-Moore” devices using atomically thin semiconductors.

IMG Members' NEMS Research Featured as Cover of Applied Physics Letters 1st Issue in 2022

The cover of Applied Physics Letters' first issue of 2022 features the work of IMG members Dr. Jaesung Lee and Prof. Philip Feng and their collaborator. In the article, “Design of strongly nonlinear graphene nanoelectromechanical systems in quantum regime,” the authors show that atomically thin nonlinear nanoelectromechanical systems (NEMS) can offer sufficient anharmonicity for quantum NEMS to behave like artificial atoms, thus feasible to enable qubit devices with much smaller footprints than today’s qubit hardware.