PIPages
Labs

Eric Fullerton

University of California-San Diego, CA·Materials Science

Modern data centers and computers use enormous amounts of energy, and today's memory and processor designs are reaching their limits. Quantum materials have unusual electronic and magnetic properties that could help build new memories that keep data without power.

Fields

Materials Science

Engineering

Physics

Topics

quantum materials

nanoelectronics

non-volatile memory

Grants
1 known grant, last ended Oct 2026

What they work on

  1. Fabricate new quantum materials and characterize their properties with advanced techniques to understand and control their behavior for non-volatile memory.
  2. Integrate quantum materials into prototype memory devices and test their performance as candidates for energy-efficient, ultrafast and ultra-small memory.
  3. Use device results as input to theory and modeling of memory-based, brain-inspired mem-computing networks and architectures.
  4. Train nine UCSD and NYU undergraduate and graduate students per year through eight-week research internships at French partner laboratories.

More about the research

They could also enable 'brain-inspired' computers that are faster, smaller and far more energy-efficient. This project trains U.S. students in that research through international internships.

Why it matters

New quantum-material memories could lower the energy cost of computing and data storage for a data-driven society. They could also help create faster, smaller brain-inspired computers. The project also helps build a skilled, internationally experienced workforce in nanotechnology, including women and minority students.

Known grants

From NIH and NSF research grants. Labs often have other funding we can't see.

Collaborative Research: IRES Track I: US/France Multidisciplinary Collaboration in Nanoelectronics, Quantum Materials and Next-Generation Computing

NSF · Apr 2023 – Oct 2026

Closest labs

Raisul Islam

Purdue University, IN·Engineering

Fabricate and characterize the Diffusive Ferroelectric Field-Effect Transistor (DFeFET), combining engineered drain contact metals with amorphous oxide semiconductor channels in a ferroelectric-gated transistor to obtain controllable volatile hysteresis in drain current-voltage curves.

Jonathan Bird

University at Buffalo, NY·Engineering

Build non-volatile transistors that combine a voltage-switched magneto-electric gate with a channel made of transition-metal dichalcogenides, two-dimensional semiconductors only atoms thick, and show they retain their programmed state without power.

Shaahin Angizi

New Jersey Institute of Technology, NJ·Engineering·Early-career

Design reconfigurable circuits and architectures for a multi-modal in-sensor accelerator that moves AI computation onto sensor nodes as efficiently as possible.

The school

University of California-San Diego: 84 labs on PI Pages, $1.9B a year on research, 637 research doctorates a year.

More about University of California-San Diego

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