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Ключевые слова: crack formation

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Zhao Y., Chen W., Yang X.S., Pan X.F., Zhu Y.P., Liu L.Y., Zhang H.Y.

Study of the inhomogeneity of critical current under in-situ tensile stress for YBCO tape

Ключевые слова: HTS, YBCO, coated conductors, mechanical properties, critical characteristics, tensile tests, stress effects, critical current, homogeneity, measurement technique, Hall sensor, local distribution, numerical analysis, modeling, hot spots, minimum quench energy, thermal stability, crack formation, degradation studies, distribution, resistivity

Superconductor Science Technology, 2018, v.31, N 3, p.35007

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Xu C., Zhao Y., Shi L.

Crack problem in superconducting cylinder with exponential distribution of critical-current density

Ключевые слова: bulk, cylinders, crack formation, critical current density, distribution, magnetization, modeling, numerical analysis, magnetic field distribution

Physica C, 2018, v.547, N , p.30-35

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Liu Y., Gou X., Xue F.

The Influence of Dispersedly Distributed Cracks on Critical Current of the Nb3Sn Strand

Ключевые слова: LTS, Nb3Sn, strands, crack formation, critical characteristics, degradation studies, numerical analysis, modeling, current-voltage characteristics

J Superconductivity Novel Magnetism, 2018, v.31, N 5, p.1323-1328

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Zhou Y., Huang C.

Mechanical improvement of metal reinforcement rings for a finite ring-shaped superconducting bulk

Ключевые слова: bulk, rings, reinforcement, mechanical properties, numerical analysis, magnetostriction, fracture behavior, crack formation, modeling, stress effects, stress distribution, tensile tests, geometry effects

AIP Advances, 2018, v.8, N 3, p.35025

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Kamitani A., Saitoh a., Ikuno S., Takayama T.

Convergence-property improvement of GMRES in shielding current analysis of cracked high-temperature superconducting film

Ключевые слова: modeling, numerical analysis, shielding current density, films, HTS, crack formation

J Advanced Simulation Science Engineering, 2018, v.4, N 1, p.117-131

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Zhou Y., Peng X., Yong H.

Damage Analysis of Superconducting Composite Wire with Bridging Model

Ключевые слова: Bi2212, composites, wires multifilamentary, wires round, filament arrangements, mechanical properties, modeling, stress effects, tensile tests, crack formation, elastic behavior, fracture behavior

Acta Mechanica Solida Sinica, 2018, v.31, N 1, p.19-31

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Rudnev I.A., Kashurnikov V.A., Maksimova A.N., Moroz A.N.

Influence of strain on transport characteristics of HTSC

Ключевые слова: critical characteristics, mechanical properties, bending strain, current-voltage characteristics, crack formation, defects, degradation studies, modeling, numerical analysis, vortex structures

J Physics: Conference Series, 2018, v.941, N 1, p.12074

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Xu C., Zhao Y.F.

Fracture analysis of a central crack in a long cylindrical superconductor with exponential model

Ключевые слова: cylinders, long conductors, mechanical properties, fracture behavior, crack formation, modeling, pinning, magnetization, electromagnetic force

Modern Physics Letters B, 2018, v.32, N 14, p.1850145

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Schwartz J., Wang X., Gao P., Chan W.

Mixed-dimensional modeling of delamination in rare earth-barium-copper-oxide coated conductors composed of laminated high-aspect-ratio thin films

Ключевые слова: stress distribution, crack formation, numerical analysis, HTS, Rare Earth-BCO, coated conductors, mechanical properties, laminations, modeling, aspect ratios, transverse stress, loads, displacements, deformation, stress effects

Superconductor Science Technology, 2018, v.31, N 7, p.75004

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Ozturk O., Safran S., Bulut F., Ozturka H.

Experimental and theoretical approaches for electrical, magnetic, micromechanical, and structural characterization of BSCCO ceramic superconductors

Ключевые слова: HTS, Bi2223, bulk, fabrication, X-ray diffraction, lattice parameter, microstructure, density, resistivity, resistive transition, critical temperature, susceptibility, critical characteristics, Jc/B curves, mechanical properties, hardness, elastic behavior, crack formation

Ceramics International, 2018, v.44, N 10, p.11674-11681

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Takahata K., Kizu K., Murakami H., Obana T., Tokitani M.

Microstructure observations on butt joint composed of Nb3Sn CIC conductors

Ключевые слова: LTS, Nb3Sn, cable-in-conduit conductor, microstructure, central coils, coils solenoidal, joints, joint resistances, crack formation, fabrication

Cryogenics, 2017, v.81, N 1, p.54-59

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Liu J., Huang C.

Magnetic and mechanical properties of a finite-thickness superconducting strip with a cavity in oblique magnetic fields

Ключевые слова: strips, mechanical properties, crack formation, defects, magnetic field dependence, modeling, numerical analysis, magnetization, torque, stress effects, stress distribution

J Applied Physics, 2017, v.121, N 2, p.23905

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Rudnev I., Podlivaev A.

A new method of reconstructing current paths in HTS tapes with defects

Ключевые слова: HTS, tapes, defects, crack formation, critical state model, modeling, critical characteristics, Jc/B curves, numerical analysis, magnetic properties, magnetization, transport currents, current density, distribution

Superconductor Science Technology, 2017, v.30, N 3, p.35021

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Devred A., Nijhuis A., Jin H., Wu Y., Liu F., Qin J., Zhou C., Wei Z., Xue T., Liao G., Xiang B., Mao Z., Dai C*1.

Manufacturing of Nb3Sn Sample Conductor for CFETR Central Solenoid Model Coil

Ключевые слова: LTS, Nb3Sn, fabrication, Tokamak, central coils, coils solenoidal, coils model, strands, design parameters, jacketing, mechanical properties, crack formation, fatigue behavior, experimental results

IEEE Transactions Applied Superconductivity, 2017, v.27, N 4-2, p.4200805

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Schwartz J., Rogers S.

Tensile fatigue behavior and crack growth in GdBa2Cu3O7-x /stainless-steel coated conductor grown via reactive co-evaporation

Ключевые слова: HTS, GdBCO, coated conductors, fabrication, co-evaporation process, substrate stainfieless steel, crack formation, tensile tests, fatigue behavior, critical characteristics, n-value, microstructure, fabrication, experimental results

Superconductor Science Technology, 2017, v.30, N 4, p.45013

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Ochiai S., Okuda H., Fujii N.

Critical Current and n-Value of Heterogeneously Cracked Superconducting Tapes, Studied by a Monte Carlo Simulation Method Combined with a Model of Current Shunting at Cracks

Ключевые слова: HTS, tapes, mechanical properties, crack formation, modeling, numerical analysis, critical characteristics, critical current, n-value, current-voltage characteristics, critical current distribution

Materials Transactions, 2017, v.58, N 4, p.679-687

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Takao T., Maeda H., Yanagisawa Y., Kajita K.

Degradation of a REBCO conductor due to an axial tensile stress under edgewise bending: a major stress mode of deterioration in a high field REBCO coil's performance

Ключевые слова: HTS, coated conductors, coils, high field tests, degradation studies, mechanical properties, tensile tests, stress effects, bending radius, Rare Earth-BCO, IBAD process, MOCVD process, strain effects, critical characteristics, critical current, current-voltage characteristics, crack formation, microstructure, experimental results

Superconductor Science Technology, 2017, v.30, N 7, p.74002

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Shi Y., Cardwell D.A., Dennis A.R., Zhang Z., Zhai W.

Effect of Pt and CeO2 on Growth of Y-123/nano-Y2O3 Single Grain Superconductors

Ключевые слова: HTS, YBCO, bulk, fabrication, single grain, nanocomposites, doping effect, microstructure, critical characteristics, critical current density, homogeneity, local distribution, heat treatment, crack formation, experimental results, nanoscaled effects

IEEE Transactions Applied Superconductivity, 2017, v.27, N 4-3, p.6800804

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Kamitani A., Saitoh a., Takayama T.

Numerical Simulation of Contactless Method for Measuring jc in Multiple-Layered Superconducting Film With Cracks

Ключевые слова: HTS, films, multilayered structures, crack formation, measurement technique, contactless, critical characteristics, critical current density, electromagnetic force, numerical analysis

IEEE Transactions Applied Superconductivity, 2017, v.27, N 4-3, p.9000805

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Yildirim G., Zalaoglu Y., Oz M., Akkurt B.

Transgranular region preference of crack propagation along Bi-2212 crystal structure due to Au nanoparticle diffusion and modeling of new systems

Ключевые слова: HTS, Bi2212, nanoscaled effects, doping effect, nanoparticles, diffusion process, grain alignment, crack formation, mechanical properties, hardness, elastic behavior, fracture behavior, numerical analysis, modeling

J Materials Science - Materials Electronics, 2017, v.28, N 17, p.12839-12850

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