Using Computational Time-Dependent Ginzburg-Landau Theory to calculate & visualise the current density of high-field superconductors in fusion tokamak

超导是科学界最有趣、最具活力的领域之一。达勒姆大学的研究涉及超导和聚变能量的基础和应用两个方面。我们研究的中心主题是研究高场超导体，以及应用超导电性如何影响聚变托卡马克的设计和运行。博士学位的目标是。研究人员正在了解超导材料的超导电性和临界载流能力，这对所有高场应用都很重要，包括加速器磁铁、核磁共振身体扫描仪和核聚变应用。所使用的设施是达勒姆的强磁场系统和制造设施。

Superconductivity is one of the most interesting and dynamic areas in science. Research at Durham involves both basic and applied aspects of superconductivity and fusion energy. The central themes of our research are to investigate high field superconductors and how applied superconductivity can impact on the design and operation of fusion tokamaks. The aim of the PhD. research is understanding superconductivity and the critical current carrying capacity of superconducting materials which is important for all high field applications including accelerator magnets, MRI body scanners and fusion applications. The facilities used are the high magnetic field systems in Durham and the fabrications facilities.