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Marvel Fusion

Pursues laser-driven inertial confinement fusion

Mechanical Engineer

Design EngineeringConfirmed live in the last 24 hours
Full-timeFort Collins, CO, USAIn-person

About the Job

Requirements

  • Proven experience designing large, stable optical mounts or optomechanical assemblies for high-energy laser systems.
  • Strong understanding of precision mechanical design and kinematics, including spatial and angular degrees of freedom, stiffness, backlash, repeatability, and alignment.
  • Experience with thermal and thermo-mechanical simulation, including temperature gradients, thermal expansion, heat transfer, cooling concepts, and resulting structural deformation.
  • Good understanding of engineering materials and their relevant properties, including coefficient of thermal expansion, stiffness, thermal conductivity, dimensional stability, and vacuum compatibility.
  • Proficiency in computer-aided design and mechanical modeling, such as SolidWorks, Inventor, or similar, including thermal and vibrational analysis techniques.
  • Ability to translate optical requirements into mechanical, thermal, positioning, and stability requirements and work effectively with optical engineers, physicists, controls engineers, and manufacturing teams.

Responsibilities

  • Design and optimize large optical mounts capable of maintaining micron/sub-micron positioning and high angular stability under thermal loads, mechanical vibrations, and environmental changes.
  • Perform and interpret modal, harmonic, and random-vibration/power spectral density analyses to identify structural resonances and predict optical displacement and angular stability under realistic environmental excitation.
  • Translate thermal results into optomechanical performance by evaluating how temperature changes and gradients influence mirror displacement, tip/tilt, surface deformation, optical alignment, and wavefront quality.
  • Optimize structures for high eigenfrequencies and low vibration sensitivity while maintaining appropriate mass, manufacturability, accessibility, and adjustment capability.
  • Select appropriate materials based on mechanical strength, coefficient of thermal expansion, thermal conductivity, stiffness-to-mass ratio, dimensional stability, vacuum compatibility, and optical-system requirements.
  • Select and integrate precision adjustment components, including threads, springs, flexures, bearings, actuators, motors, and precision stages, considering load capacity, stiffness, resolution, backlash, repeatability, and stability.
  • Use computer-aided design tools and mechanical modeling software to develop and iterate on designs in collaboration with physicists and systems engineers.
  • Support prototype testing and correlate finite element analysis predictions with displacement, vibration, thermal, and alignment measurements.

Desired Qualifications

  • Direct experience with high-energy, high-power, or ultra-short-pulse laser systems, particularly compressors, stretchers, large mirrors, gratings, or beam-transport systems.
  • Experience designing optomechanical systems requiring micron/sub-micron positional precision and microradian or sub-microradian angular stability.
  • Understanding of how mechanical and thermal effects translate into optical performance, including wavefront distortion, mirror deformation, pointing stability, and alignment drift.
  • Experience with advanced simulation methods such as coupled thermal-structural analysis, harmonic response, and power spectral density/random-vibration analysis, including correlation with experimental measurements.
  • Hands-on experience with the manufacturing, assembly, alignment, testing, and validation of large precision optical systems.

About the Company

Marvel Fusion

Pursues laser-driven inertial confinement fusion

Marvel Fusion develops laser-driven fusion energy using non-thermal direct-drive inertial confinement with nanostructured fuel targets. It aims to trigger fusion reactions with low-neutronic fuels like hydrogen-boron, reducing long-lived radioactive waste. The company builds a new high-powered laser facility in collaboration with Colorado State University, housing multiple multi-petawatt lasers to conduct experiments and advance fusion research. Its approach differs from many competitors by applying direct-drive laser for fusion with nanostructured fuels and a focus on hydrogen-boron to minimize waste, supported by a strong academic and private funding network. The goal is to enable a safe, clean, and reliable fusion power plant that helps the world move toward sustainable energy.

Company size
51-200
Company stage
Grant
Total funding
$166.9M
Headquarters
Munich, Germany
Founded
2019

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