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Peter J. Lee

Researcher at Florida State University

Publications -  171
Citations -  3578

Peter J. Lee is an academic researcher from Florida State University. The author has contributed to research in topics: Grain boundary & Flux pinning. The author has an hindex of 27, co-authored 166 publications receiving 3254 citations. Previous affiliations of Peter J. Lee include University of Wisconsin-Madison.

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Isotropic round-wire multifilament cuprate superconductor for generation of magnetic fields above 30 T

TL;DR: It is demonstrated that grain boundary limits to high Jc can be practically overcome and underlines the value of a renewed focus on grain boundary properties in non-ideal geometries.
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Evidence for two distinct scales of current flow in polycrystalline Sm and Nd iron oxypnictides

TL;DR: In the case of rare earth oxypnictides, the superconducting-normal-superconducting proximity effect has been investigated in this article, where it was shown that the global and intragrain current densities have distinct temperature dependences and differ in magnitude by about 1000.
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The upper critical field of filamentary Nb3Sn conductors

TL;DR: In this article, the authors examined the upper critical field of a large and representative set of present multifilamentary Nb3Sn wires and one bulk sample over a temperature range from 1.4 K up to the zero-field critical temperature.
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Evidence for two distinct scales of current flow in polycrystalline Sm and Nd iron oxypnictides

TL;DR: In the case of rare-earth oxypnictides, the authors of as discussed by the authors showed that the hysteretic magnetization is significantly enhanced in polycrystalline samarium and neodymium rare- earth oxypnosictide samples made by high pressure synthesis.
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The influence of Nb3Sn strand geometry on filament breakage under bend strain as revealed by metallography

TL;DR: In this article, the susceptibility to A15 filament breakage (under 0.5% bend strain) of the new high-Jc internal Sn conductor geometries with both high Jc powder-in-tube (PIT) and low hysteresis loss distributed filament ITER designs was compared.