This thesis focuses on the design, structural analysis and topology optimization of advanced components for superconducting tapes and superconducting magnets. The activity will explore how additive manufacturing can be used to create lightweight, mechanically efficient and highly customized support structures able to operate under the demanding conditions of high-field superconducting systems.
The student will investigate the mechanical behaviour of 3D-printed components, superconducting tapes, supports and magnet assemblies subjected to electromagnetic loads, thermal contraction and cryogenic operating conditions. Particular attention will be devoted to stress redistribution, material selection, anisotropic properties of printed parts, manufacturability constraints and the integration of optimized geometries into realistic magnet designs. The thesis will be carried out in collaboration with INFN.
