Add to ORKGThe 45-T Hybrid magnet will employ Cable-In-Conduit Conductor (CICC) technology for the windings of the Nb3Sn and NbTi coils. The conduit steel must retain high strength and fracture toughness at 4 K, following the Nb3Sn reaction heat treatment. The design requirements call for a 4 K yield strength exceeding 1000 MPa and a 4 K fracture toughness (KIc) greater than 110 MPa m-0.5. We report the mechanical properties of a commercial 316L alloy and modified version of 316 LN with extremely low carbon content, before and after a simulated N b3Sn reaction heat treatment. The related effects of prior cold work are also reported
In some demanding magnetic applications such as electric vehicle drive motors in which high rpm and ...
Nb/sub 3/Sn is a strain-sensitive superconductor which exhibits large changes in properties for stra...
Type 316L(N) stainless steel (SS) containing 0.02–0.03 wt% carbon and 0.06–0.08 wt% nitrogen is used...
cable-in-conduit superconducting (CICC) magnets. Based on the demanding requirements of the conduit ...
ITER cable-in-conduit conductor (CICC) used in the superconducting magnet system consists of a cable...
In recent years SS316LN stainless steel is preferred for use as a jacket material for Nb3Sn strands/...
To excite stronger magnetic fields, high temperature superconducting (HTS) insert coils are planned ...
The ITER magnet system is based on the “cable-in-conduit” conductor concept, which consists of vario...
Modified stainless steel 316LN (SS316LN) is designed as ITER TF jacket materials for the application...
The modified 316LN austenitic stainless steel was selected as ITER correction coils case material to...
The tokamak fusion reactor ITER, involving the largest and most integrated superconducting magnet sy...
The development of large-bore, high-field magnets for fusion energy applications requires a system a...
Due to the constant increase of claims for all materials used in superconducting magnets in "magneti...
A Cable-in-conduit (CIC) conductor, in which superconducting wires are multi-stage twisted and inser...
We describe the design, manufacturing, and testing results of a Nb3Sn superconducting coil in which ...
In some demanding magnetic applications such as electric vehicle drive motors in which high rpm and ...
Nb/sub 3/Sn is a strain-sensitive superconductor which exhibits large changes in properties for stra...
Type 316L(N) stainless steel (SS) containing 0.02–0.03 wt% carbon and 0.06–0.08 wt% nitrogen is used...
cable-in-conduit superconducting (CICC) magnets. Based on the demanding requirements of the conduit ...
ITER cable-in-conduit conductor (CICC) used in the superconducting magnet system consists of a cable...
In recent years SS316LN stainless steel is preferred for use as a jacket material for Nb3Sn strands/...
To excite stronger magnetic fields, high temperature superconducting (HTS) insert coils are planned ...
The ITER magnet system is based on the “cable-in-conduit” conductor concept, which consists of vario...
Modified stainless steel 316LN (SS316LN) is designed as ITER TF jacket materials for the application...
The modified 316LN austenitic stainless steel was selected as ITER correction coils case material to...
The tokamak fusion reactor ITER, involving the largest and most integrated superconducting magnet sy...
The development of large-bore, high-field magnets for fusion energy applications requires a system a...
Due to the constant increase of claims for all materials used in superconducting magnets in "magneti...
A Cable-in-conduit (CIC) conductor, in which superconducting wires are multi-stage twisted and inser...
We describe the design, manufacturing, and testing results of a Nb3Sn superconducting coil in which ...
In some demanding magnetic applications such as electric vehicle drive motors in which high rpm and ...
Nb/sub 3/Sn is a strain-sensitive superconductor which exhibits large changes in properties for stra...
Type 316L(N) stainless steel (SS) containing 0.02–0.03 wt% carbon and 0.06–0.08 wt% nitrogen is used...