Superconductivity is the technology that enabled the construction of the most recent
generation of high-energy particle accelerators, the largest scientific instruments ever built …

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

Future particle colliders in search for new physics at the energy frontier require the
development of accelerator magnets capable of producing fields well beyond those …

Abstract High-performance Nb 3 Sn superconducting wires have become one of the key
technologies for the development of next generation accelerator magnets. While their large …

The strain irreversibility cliff (SIC), marking the abrupt change of the intrinsic irreversible
strain limit ε irr, 0 as a function of heat-treatment (HT) temperature θ in Nb 3 Sn …

Future high-field magnets for particle accelerators hinge on the crucial development of
advanced Nb 3 Sn wires engineered to withstand the large stresses generated during …

For the LHC upgrade, CERN has launched a large program to develop next generation
accelerator magnets based on high-Jc Nb3 Sn Rutherford cables. These magnets are …

Nowadays there is a great deal of interest in the scientific community in developing next-
generation accelerator magnets based on high-J c Nb 3 Sn Rutherford cables. Inside a …

Using calculations from first principles based on density-functional theory we have studied
the strain sensitivity of the A15 superconductor Nb 3 Sn. The Nb 3 Sn lattice cell was …

The development of high-field accelerator magnets capable of providing 16-T dipolar fields
is an indispensable technological breakthrough needed for the 100-TeV energy frontier …