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Blue Origin

Builds rockets, engines and lunar spacecraft

Radiation Engineer - Spacecraft & Payloads

Hardware Validation & TestingConfirmed live in the last 24 hours
Full-time

About the Job

Requirements

  • A Bachelor of Science degree in electrical engineering, nuclear engineering, physics, aerospace engineering, materials science, or a related technical discipline is required.
  • At least five years of experience in spacecraft radiation effects, radiation hardness assurance, radiation testing, electronic-device physics, or a closely related field is required.
  • Demonstrated knowledge of total ionizing dose and single-event effects mechanisms, radiation environment modeling, shielding, and electronic design mitigation is required.
  • Experience interpreting radiation test data and determining its applicability to a specific part, lot, operating condition, circuit, and mission is required.
  • Ability to derive and communicate radiation requirements, margins, assumptions, uncertainty, and residual risk across multiple engineering disciplines is required.
  • Ability to plan and execute technical work with external radiation test facilities and part suppliers is required.
  • Applicants must be a U.S. citizen or national, U.S. permanent resident, or lawfully admitted to the U.S. as a refugee or granted asylum.

Responsibilities

  • Develop, maintain, and execute the TeraWave Radiation Hardness Assurance Plan for LEO and MEO spacecraft, payloads, avionics, electrical power systems, propulsion electronics, sensors, optical devices, and solar-array technologies.
  • Define and control external and internal radiation environments over the applicable mission lifetime, including trapped particles, solar particle events, galactic cosmic rays, total ionizing dose, displacement damage dose or total non-ionizing dose, and single-event effects.
  • Translate mission orbit, duration, confidence level, shielding, duty cycle, and availability needs into system, subsystem, unit, circuit, and electrical, electronic, and electromechanical part radiation requirements.
  • Establish and maintain radiation design margin policy, including risk- and criticality-based margin tiers and documented rationale for confidence, uncertainty, and lot-to-lot variability.
  • Perform or direct shielding, dose-depth, sectoring/ray-trace, and part-location analyses; work with configuration and mechanical teams to maintain an analyzable spacecraft geometry.
  • Evaluate electrical, electronic, and electromechanical parts and optoelectronics for destructive and non-destructive single-event effects, total ionizing dose, enhanced low-dose-rate sensitivity, displacement damage dose, and application-specific failure thresholds.
  • Calculate mission single-event effect rates and translate device events into circuit, box, subsystem, and system effects such as reset rate, data loss, outage, degraded throughput, latent damage, or destructive failure.
  • Partner with Electrical, Electronic, and Electromechanical Parts Engineering to screen bills of materials, assess applicability of heritage and vendor data, disposition radiation risk, and define lot-specific testing or procurement controls.
  • Partner with electrical, radio-frequency, optical, and avionics hardware designers on radiation mitigation, including part substitution, shielding, current limiting, latch-up protection, filtering, redundancy, circuit-level protection, and operating constraints.
  • Support solar-array degradation predictions and end-of-life power assurance with the Solar and Electrical Power Systems teams, maintaining traceability among radiation confidence level, degradation factors, and the authoritative power budget.
  • Maintain the radiation risk register, part-by-part evidence status, waivers and deviations, open tests, and residual risk; support design reviews and flight-readiness decisions.
  • Monitor emerging radiation-effects data and provide rapid application-specific guidance for new technologies, commercial parts, field-programmable gate arrays, processors, memories, power semiconductors, radio-frequency integrated circuits, and photonics.

Desired Qualifications

  • A Master of Science or Ph.D. in radiation effects, electrical engineering, nuclear engineering, physics, or a related field.
  • Experience with both LEO and MEO missions and trapped-electron/proton environments.
  • Experience testing or analyzing modern commercial and automotive-grade electronics, field-programmable gate arrays, memories, power devices, radio-frequency electronics, and optoelectronics.
  • Familiarity with JEDEC, ASTM, ESCC, MIL-STD-883, NASA EEE-INST-002, and radiation test standards and guidance.
  • Experience connecting device-level radiation response to hardware reliability, availability, system performance, and fleet operations.
  • Experience with radiation effects on photovoltaic cells, coverglass selection, optical materials, polymers, adhesives, or coatings.

About the Company

Blue Origin

Builds rockets, engines and lunar spacecraft

Blue Origin builds rockets, engines and spacecraft for commercial satellite operators and government space programs. Its New Glenn orbital rocket uses a reusable first stage, while Blue Moon landers are designed to transport cargo and astronauts to the lunar surface. The company designs and manufactures liquid-fueled propulsion systems, and its New Shepard vehicle is built for short suborbital trips carrying people and research payloads. Customers pay for launch services and engines, and government development contracts fund work on systems for exploration beyond Earth orbit. Founded by Jeff Bezos in 2000, Blue Origin is headquartered in Kent, Washington.

Company size
10,001+
Company stage
Late Stage VC
Total funding
$10.1B
Headquarters
Kent, WA
Founded
2000

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