Key Highlights
- Deep Jariwala will assume the UT‑ORNL Governor’s Chair for Quantum Devices beginning January 2027.
- The role uniquely bridges the University of Tennessee and Oak Ridge National Laboratory, enabling simultaneous teaching and frontier research.
- Jariwala’s expertise spans quantum materials, microelectronics, and emerging computing architectures, with over 180 publications and multiple patents.
- He plans to establish a dedicated research hub for material and device innovation, accelerating the transition from laboratory concepts to commercial technologies.
- The appointment aligns with the United States’ strategic push to dominate quantum science and technology.
Detailed Insights
The Governor’s Chair program is a collaborative venture between a major university and a national laboratory, designed to attract world‑renowned scholars and embed them in both academic and large‑scale research environments. Jariwala’s selection underscores his international reputation in quantum science, particularly his contributions to quantum‑material synthesis, high‑performance microelectronic platforms, and next‑generation computing paradigms.
In his current position at the University of Pennsylvania, Jariwala has authored more than 180 peer‑reviewed articles, garnered extensive citations, and secured several patents that underpin technologies such as quantum processors, ultra‑sensitive sensors, and optoelectronic components. The new chair will see him split his responsibilities: delivering graduate‑level instruction and mentorship at the University of Tennessee, Knoxville, while directing exploratory projects at Oak Ridge National Laboratory.
One of his inaugural initiatives will be the creation of a state‑of‑the‑art facility focused on the rapid prototyping of quantum‑grade materials and devices. This infrastructure is intended to shrink the development cycle, fostering a pipeline that moves discoveries from the bench to market‑ready solutions.
Key Concepts
- Governor’s Chair Program: A joint academic‑lab appointment that couples university teaching duties with access to national‑lab research capabilities.
- Quantum Materials: Substances whose electronic, magnetic, or optical properties are governed by quantum mechanical effects, essential for quantum computing and sensing.
- Microelectronics: The design and fabrication of miniature electronic components, a foundation for modern computing hardware.
- Optoelectronic Devices: Systems that convert light into electrical signals or vice‑versa, used in communication, imaging, and energy applications.
- Translational Research: The process of turning fundamental scientific insights into practical technologies and products.