Rocket Propulsion Engineer
Overview
We are seeking a Rocket Propulsion Engineer to design, analyze, and develop propulsion systems for high-performance aerospace applications. This role is defined by demonstrated technical capability, ownership, and learning ability—not years of experience. The ideal candidate can quickly understand complex propulsion systems, make sound engineering decisions, and deliver reliable, test-ready hardware in demanding environments.
Responsibilities
Design, analyze, and develop rocket propulsion systems and components, including engines, feed systems, and thrust structures.
Perform propulsion performance analysis, including thrust, efficiency, thermal behavior, and system-level trade studies.
Support the design and development of components such as injectors, combustion chambers, valves, tanks, and feed lines.
Plan, support, and execute component- and system-level testing, including test setup, instrumentation, and data analysis.
Investigate test anomalies and failures and drive corrective actions.
Collaborate closely with structures, avionics, manufacturing, and systems engineering teams.
Support propulsion system integration, ground operations, and flight readiness activities.
Create and maintain technical documentation, analyses, and test reports.
Preferred Qualifications
Strong foundation in rocket propulsion fundamentals, including thermodynamics, fluid dynamics, and combustion.
Hands-on experience with propulsion hardware design, testing, or analysis.
Experience with propulsion modeling, simulation, or data analysis tools (e.g., MATLAB, Python, CFD tools).
Familiarity with manufacturing methods, materials selection, and test instrumentation.
Ability to perform trade studies and make sound technical decisions under constraints.
Strong problem-solving skills and attention to detail.
Ability to learn new propulsion concepts, tools, or technologies quickly.
Clear technical communication and cross-functional collaboration skills.
What Success Looks Like
Propulsion designs meet performance, safety, and reliability requirements.
Tests are executed efficiently, with clear data-driven outcomes.
Issues are identified early and resolved systematically.
The propulsion system progresses smoothly from concept to test or flight readiness.