Transverse load optimization in Nb3Sn CICC design; influence of cabling, void fraction and
strand stiffness - IOPscience This site uses cookies. By continuing to use this site you agree to …

The differences in thermal contraction of the composite materials in a cable in conduit
conductor (CICC) for the International Thermonuclear Experimental Reactor (ITER), in …

The unexpected degradations of current carrying capacity of Cable-In-Conduit Conductors
are attributed to be mechanical in origin Nb 3 Sn. As a result, the prediction of conductor's …

In this paper, the nonlinear mechanical behaviors of Nb3Sn superconducting composite
wires have been investigated by the quasi-static loading-unloading tensile and fatigue tests …

The ability to compute accurately the strain field in Nb 3 Sn filaments is a crucial point in
cable design, due to the significant strain sensitivity of niobium–tin wires. Due to its …

We present the latest results of the novel model for transverse electromagnetic load
optimization (TEMLOP) especially developed for the ITER type of cable-in-conduit …

Nb 3 Sn superconductors show a dependence of the critical current and temperature on the
strain state of the superconducting material. The basic causes of Nb 3 Sn strain effects …

Based on molecular dynamics (MD) simulations of Nb 3 Sn crystals under high pressure, a
physics-based trans-scale model of the superconducting transition of high-pressure Nb 3 Sn …

The ITER magnet system uses cable-in-conduit conductor (CICC) technology with individual
strands twisted in several stages resulting in a rope-type cable, which is inserted into a …

We have measured the critical current (I c) of a high current density Nb 3 Sn strand
subjected to spatial periodic bending, periodic contact stress and uniaxial strain. The strand …