Applied Superconductivity Center

Our Staff

The ASC staff includes scientists, engineers and technicians at the top of their fields.

ASC scientist Dmytro Abraimov.

The Platypus Project

A high-field and high-homogeneity demonstration magnet using Bi-2212 round wire

The Platypus Project design

Plots

Comparisons of critical and engineering current densities for superconductors available at long lengths.

Plot

Low-temperature Superconductivty

Learn more about our research in this exciting area.

CERN Nb-Ti Reference Strand for the LHC Project

Our Grad Students & Postdocs

ASC is a great place for young scientists to launch their careers.

Maxime Matras, Chris Segal, Charlie Sanabria

The ASC advances the science and technology of superconductivity and particularly superconductivity applications. We do this by investigating low temperature and high temperature materials through our research grants and through our collaborations with other universities, national laboratories and industry. We continually educate post-graduate, graduate and undergraduate students by our research and public service.

Plots


Engineering Critical Current Density vs. Applied Field
Engineering Critical Current Density vs. Applied Field

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Latest Science Highlight


  • Evidence for extrinsic, impurity segregation at grain boundaries in high current-density K- and Co-doped BaFe2As2
    15 December 2014
    Evidence for extrinsic, impurity segregation at grain boundaries in high current-density K- and Co-doped BaFe2As2

    Grain boundaries in BaFe2As2 (122), which is an iron-based superconductor, block current flow. This study, which was a collaboration with a group at Northwestern University, used a Local Electrode Atom Probe (LEAP), which is a relatively new experimental tool, to make a 3-D atom-by-atom reconstruction of a region of a 122 sample that included a grain boundary. The data showed that the chemical composition varied across the grain boundary and in that oxygen was present at the grain boundaries. These variations in composition may contribute to grain boundary's reduced current carrying capacity.

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Featured Publications



Isotropic Round-Wire Multifilament Cuprate Superconductor for Generation of Magnetic Fields above 30 T

D.C. Larbalestier, et al., Nature Materials, 13 (4), 375-381 (2014) Read online …


Influence of the Heat-Treatment Conditions, Microchemistry, and Microstructure on the Irreversible Strain Limit of a Selection of Ti-Doped Internal-Tin Nb3Sn ITER Wires

N. Cheggour, et al., Superconductor Science and Technology, 27 (10), 105004 (2014) Read online …


A trapped field of 17.6 T in melt-processed, bulk Gd-Ba-Cu-O reinforced with shrink-fit steel

J.H. Durrell, et al., Superconductor Science and Technology, 27, 082001(2014) Read online …


Observation of the Microstructure of Grain Boundary Oxides in Superconducting RF-Quality Niobium With High-Resolution TEM (Transmission Electron Microscope)

Z.-H. Sung, et al., IEEE Trans. Appl. Supercond., 24, 68-73 (2014) Read online …

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For more information contact Center Director David Larbalestier or Associate Director Peter Lee.

Last modified on 15 January 2015