The Impact of Superconducting Properties of Micron-Scale Masked Proton Irradiation on BaTiO3-Doped YBCO Film

This study investigates the effects of 60 keV proton irradiation on BaTiO3-doped YBa2Cu3O7−δ (YBCO) films using masks with micron-scale holes to create controlled defect patterns aimed at enhancing superconducting properties. Contrary to expectations, masked irradiation resulted in a reduction in the critical current density (Jc), while unmasked irradiation demonstrated improvement, consistent with previous studies. Notably, no improvement was observed at 2 T around liquid nitrogen temperature. These observations highlight the challenges of employing micron-scale masks in defect engineering and underscore the need for further refinement to achieve the desired performance enhancement. Insights from this study contribute to advancing defect engineering techniques for improving YBCO’s performance in high-field applications, including fusion energy systems.

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Publication Details

Journal
Quantum Beam Science
Published
2025-04-18
DOI
https://doi.org/10.3390/qubs9020013
Citations
1
Primary Topic
Physics of Superconductivity and Magnetism
Type
article
Field-Weighted Citation Impact
1.26

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article

The Impact of Superconducting Properties of Micron-Scale Masked Proton Irradiation on BaTiO3-Doped YBCO Film

Liangzi Deng, C. W. Chu, Di Chen, Paththini Kuttige S. Nonis et al.
1 citations
Quantum Beam Science
Physics of Superconductivity and Magnetism
1.26
article

The Impact of Superconducting Properties of Micron-Scale Masked Proton Irradiation on BaTiO3-Doped YBCO Film

Liangzi Deng, C. W. Chu, Di Chen, Paththini Kuttige S. Nonis, Sudaice Kazibwe
article en
1 citations

Abstract

This study investigates the effects of 60 keV proton irradiation on BaTiO3-doped YBa2Cu3O7−δ (YBCO) films using masks with micron-scale holes to create controlled defect patterns aimed at enhancing superconducting properties. Contrary to expectations, masked irradiation resulted in a reduction in the critical current density (Jc), while unmasked irradiation demonstrated improvement, consistent with previous studies. Notably, no improvement was observed at 2 T around liquid nitrogen temperature. These observations highlight the challenges of employing micron-scale masks in defect engineering and underscore the need for further refinement to achieve the desired performance enhancement. Insights from this study contribute to advancing defect engineering techniques for improving YBCO’s performance in high-field applications, including fusion energy systems.

Quantum Beam ScienceVol. 9(2)
Idaho National Laboratory (US), University of Houston (US)
University of Houston, T.L.L Temple Foundation, John J. and Rebecca Moores Endowment, U.S. Air Force, Texas Center for Superconductivity, University of Houston
Openalex Percentile: Top 22%
Physics of Superconductivity and Magnetism
1.26
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