Provide innovative solutions to complex RF engineering challenges by collaborating closely with physicists to ensure component designs meet the Alpha plasma physics and thermal-mechanical constraints.
Develop designs and evaluate vendor designs to determine an optimal path to efficiently deliver our power to the stellarator - driving down the denominator of input power that will limit fusion power plant gain Q=Pout/Pin - and drive down costs.
Draw from and contribute to our stellarator development process, interfacing your RF components with other stellarator systems.
Contribute to mechanical and thermal analysis and sensitivity studies for component viability under the loads and stresses imposed by the combination of vacuum, magnetic fields, temperatures, and MW-scale RF loads.
Interface with the Alpha project management teams to realize the delivery of RF components and meet the tight Proxima timelines.
A highly capable RF engineer with experience in millimeter waves and knowledge of the tools and best practices for design of these systems.
Demonstrated familiarly with RF modeling codes - SURF3D, CST, COMSOL, GdfidL, openEMS, even self-developed python codes or ones plasma physics community hasn’t heard of - capable of performing modeling at 200 GHz frequencies.
Experience validating first-of-a-kind designs with uncertain performance, working as part of a team on multi-scale and multi-physics simulations, testing, and prototyping.
Exceptional communication and interpersonal skills, with the ability to articulate complex technical concepts clearly and persuasively.
Experience with gyrotrons and associated components - transmission systems, launcher antennas, rf loads; experience with plasma physics is a plus.
Understanding of quasi optical propagation of millimeter waves; ray tracing and where it breaks down.
Recruiter Interview (30-60 min)
Technical Screening (30 min)
Technical Panel (3x60 min)
This role sits at L2-L3 of our framework, please inquire during the recruitment process for further information.