Senior Materials Scientist

About this role

Who we are Founded in 2019, Marvel Fusion is Europe’s leading fusion energy company, uniting 120 scientists, engineers, and entrepreneurs across our locations in Munich and Colorado . Backed by over €385 million in public and private funding, we’re driven by a shared mission: to deliver clean, abundant energy to the world. Why Marvel Fusion By joining us, you will be: Solving one of the most complex technological challenges known to humanity, harnessing Fusion on Earth Part of a highly purpose-driven team working on providing the world with clean, safe and abundant energy Working alongside world-leading scientists and entrepreneurs in the field of Fusion Part of a start-up where growth on a company and individual level is the default Your responsibilities Initiate and develop an R&D stream focused on fuel and fusible materials integration into experimental targets for in-house use.

Translate experimental requirements into reproducible fabrication processes, including scale-up of deposition and micro-fabrication techniques for target component integration. Characterization and metrology of fabricated components, to verify specifications are met. Coordinating multi-partner consortia and associated reporting: build and maintain collaborations with academic and industrial partners. Drafting of public funding applications.

Mentor junior scientists and coordinate cross-functional teams. Documentation and reporting: write and oversee technical and safety documentation, protocols development, and contribute to internal, external, and funding-body reports. What you bring 8+ years of experience in Chemistry, Materials Science, Chemical Engineering or a related field, with demonstrated seniority in an R&D environment. Hands-on experience with several of the following fabrication techniques, and working knowledge of the rest: Deposition techniques and material synthesis (e.g.

CVD, MLD, ALD, PLD, sputter-coating, e-beam and thermal evaporation, spray-coating, spin-coating, electrodeposition). Laser cutting or machining using picosecond and/or femtosecond laser systems. Additive manufacturing techniques. Molding, hot pressing. Hands-on experience with several of the following characterization and metrology techniques, and working knowledge of the rest, applied to fabricated components to verify specifications are met: atomic force microscopy (AFM), profilometry, ellipsometry, scanning electron microscopy (SEM), Raman spectroscopy, and Fourier-transform infrared spectroscopy (FTIR).