Commonwealth Fusion Systems (CFS) has the fastest, lowest cost path to commercial fusion energy.
CFS is collaborating with MIT to leverage decades of research combined with new groundbreaking high-temperature superconducting (HTS) magnet technology. HTS magnets will enable compact fusion power plants that can be constructed faster and at lower cost.
The mission is to deploy fusion power plants to meet global decarbonization goals as fast as possible. CFS has assembled a team of leaders in tough tech, fusion science, and manufacturing with a track record of rapid execution. Supported by the world’s leading investors, CFS is uniquely positioned to deliver limitless, clean, fusion power to combat climate change.
If you are interested in joining our team, check out cfs.energy/careers for more information.
Commonwealth Fusion Systems (CFS) has the fastest, lowest cost path to commercial fusion energy.
CFS is collaborating with MIT to leverage decades of research combined with new groundbreaking high-temperature superconducting (HTS) magnet technology. HTS magnets will enable compact fusion power plants that can be constructed faster and at lower cost. The mission is to deploy fusion power plants to meet global decarbonization goals as fast as possible. CFS has assembled a team of leaders in tough tech, fusion science, and manufacturing with a track record of rapid execution. Supported by the world’s leading investors, CFS is uniquely positioned to deliver limitless, clean, fusion power to combat climate change. To execute this plan, we are looking to add talented people to the team who are mission-driven and treat people well, improve our team by adding diverse perspectives and new ways of solving problems, have demonstrated exceptional results through a range of different pursuits, and have skill sets and experience that relate to this role.
The R&D team’s mission at CFS is to vet potential technical solutions in order to guide the overall SPARC subsystem design, and plan for the technology needs of future fusion power plants and spin-off projects. This individual within the R&D team will perform electromagnetic (EM) analysis of superconducting magnets using finite elements and other methods. This analysis includes the non-linear, anisotropic behavior of high-temperature superconductors (HTS) in both insulated and non-insulated magnet systems. Incorporating multi-physics (heat transfer, fluids, mechanics, etc) into 3D FEA models is also crucial to modeling the multi-physics behavior of superconducting magnets. This individual will also work with a team of experimentalists and engineers to validate simulations against experimental data. Familiarity with both commercial finite element analysis software packages and developing custom in-house code and extensions of commercial packages is necessary.
This work is conducted within a multi-disciplinary team of physicists and engineers as part of collaborative sponsored research projects at the MIT Plasma Science and Fusion Center and within CFS. To be successful in this role, participation and clear, concise communication in design and test activities is necessary to both inform design decisions and correlate models to experiment.
CFS team members thrive in a fast-paced, dynamic environment and have demonstrated exceptional results through a range of different pursuits. We all tightly align with our company values of integrity, execution, impact and self-critique. As we grow, we are looking to add talented people who are mission driven and bring diverse perspectives and new ways of solving problems.
At CFS, we deeply value diversity and are an equal opportunity employer by choice. We consider all qualified applicants equally for employment. We do not discriminate on the basis of race, color, national origin, ancestry, citizenship status, protected veteran status, religion, physical or mental disability, marital status, sex, sexual orientation, gender identity or expression, age, or any other basis protected by law, ordinance, or regulation.
This team member will:
Perform electromagnetic analysis of superconducting magnets and inform design decisionsWork with experimental teams on instrumentation, measurement, and correlation of experiment to analysisDevelop new numerical tools, as needed, to facilitate multi-objective design optimization of high-temperature superconducting magnetsAbility to adapt and quickly learn new FEA tools and softwarePerform non-linear, highly-anisotropic E&M simulations in complicated geometriesIdentify enabling technologies in the modeling and construction of high-temperature superconducting magnetsPrepare reports and presentations as necessaryMentor and guide new members of the team in magnet design and analysis as necessaryThe ideal candidate will have most, if not all, of these requirements:
At least a Master’s Degree in electrical engineering or another relevant field with an EM background (physics, mechanical engineering, etc.)Experience modeling electromagnetics using finite element methodA strong background and theoretical understanding of computational electromagnetic analysis and physics (i.e., Maxwell’s equations)The ability to customize commercial finite element tools or develop new in-house codes in modern programming languages such Python/MATLAB/C/C++An ability to clearly express and critique ideasAbility to innovate towards solutions to complex problemsAn emphasis on elegance and simplicity over complexityA drive towards commercially viable solutionsA history of thriving in fast-paced, dynamic environmentsValues that align with our company’s values of integrity, execution, impact, and self-critiqueAdditional experience and/or qualifications:
Experience with commercial finite element tools. COMSOL/Ansys preferredExperience with modeling high-temperature superconductors preferredMulti-physics FEM modeling with heat transfer, mechanics, fluids, structures, etc.Ability to occasionally lift 50 lbsPerform activities such as sitting for extended periods of time