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Arts and Sciences

Research overview

Focus


Our research is centered on realizing novel phases of matter through atomic layer engineering. We achieve this precision by utilizing pulsed laser deposition to deposit single layers of materials on single crystal substrates. This allows unique stacking patterns to be obtained leading to emergent phases unavailable in bulk materials. Understanding the interplay of the strong interactions within these interfacial materials and how this leads to the observed phase behavior is the core of our work.

Materials


We specialize in thin-film synthesis of complex oxides. These materials exhibit numerous exciting behaviors even in bulk form such as superconductivity, charge and spin density waves, and colossal magnetoresistance. Beyond these scientifically and technologically important phases, these materials are exciting candidates for emergent topological behaviors which are highly relevant to current efforts to realize practical topological quantum computers.

Techniques


In order to explore the properties and understand the behaviors of these artificial materials, we utilize numerous characterization techniques. At OSU we perform atomic force microscopy, x-ray diffraction, electronic and magentic transport, and reflection high energy electron diffraction measurements. For more advanced measurements we travel to national synchrotron laboratories and perform highly specialized measurements such as resonant elastic and inelastic x-ray scattering, angle-resolved photoemission spectroscopy, and x-ray absoprtion spectroscopy.

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News

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Pulsed laser deposition chamber

07 Apr 2020

New Neocera Pioneer 180 pulsed laser deposition tool has arrived!


Eric Werline joins the group

25 November 2019

Eric Werline has joined the group as an undergraduate researcher!


Beamtime at 33BM of Argonne National Laboratory Dec. 14-17

24 October 2019

4 days of experiments at 33BM beamline scheduled. We will be investigating the structure of heterostructures of iridates and titanates to determine structural order and search for possible topological polar structures. This will be done with synchrotron x-ray diffraction using 2D and 3D mapping of reciprocal space to find superstructure features corresponding to these emergent orders. See recent work by our collaborators at UC Berkeley for more details.