Spintronic materials and devices for computing and machine intelligence:

We work on innovative materials and nanoscale devices which go far beyond existing ones in energy efficiency, speed, and integration density. In particular, here we use materials and devices that couple electrons' spin and charge properties, also called spintronic devices. Our goal is to beat today's performance, energy, and scaling limits of data storage, memory, and computing devices, each by 100x. For example, can we build memories that simultaneously operate at pico-Second read/write, atto-Joule per bit operation, and at few-nanometer scales? This work involves new materials development, understanding of physics of thin films and interfaces, and their consequent electrical and magnetic behavior. 

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Unconventional computing architectures:

Here we focus on using the new devices which we develop, in novel architectures for computing systems, and to realize circuits/architectures where new intelligent functionalities emerge from the physics. We work closely with industry and interact across disciplines, to develop the hardware, tools and ecosystems to translate device/circuit advances into applications.

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Microwave, magnonic, and quantum devices: 

We are also interested in using spintronic effects to build microwave, radio-frequency, and sensing devices. Examples are record-small electronic oscillators using spin-torque, record-sensitive detectors of microwave radiation, and magnonic devices based on spin waves, which are the collective excitations of spins in a magnetically ordered material.

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