Propulsion Integration & Test Engineer II

As a Propulsion Integration & Test Engineer II at Relativity Space, your main responsibilities will include developing processes for the assembly of major Aeon-R subassemblies and managing engine integration. You'll serve as the vital connection between design and manufacturing teams, ensuring optimized hardware meets design specifications while addressing challenges unique to 3D printed components.

To qualify for the Propulsion Integration & Test Engineer II role at Relativity Space, you need a degree in engineering or a related technical field, along with at least 3 years of relevant experience. Familiarity with GD&T, CAD tools, and experience in a propulsion development program will be advantageous, although not strictly required.

Relativity Space values the growth of its employees and offers an annual learning and development stipend, alongside competitive salary packages. As a Propulsion Integration & Test Engineer II, you'll have opportunities to work closely with cutting-edge technology, enhancing your skills while contributing to exciting future missions.

The work environment at Relativity Space is characterized by a collaborative spirit and a commitment to innovation. As a Propulsion Integration & Test Engineer II, you'll work alongside passionate individuals who share a common goal of transforming the aerospace industry, all while enjoying a culture that values diversity and inclusion.

As a Propulsion Integration & Test Engineer II, you will be involved in pivotal projects such as the integration of the Aeon-R engine and the optimization of manufacturing processes. Your contributions will directly impact the success of Terran R's maiden launch and the future of launches into orbit.

When approaching a failure investigation in propulsion systems, I typically follow a structured method, beginning with collecting data on the failure, analyzing system parameters, and then conducting root cause analysis to identify the underlying issue. Effective communication with the team ensures that corrective actions are implemented promptly.

Prioritizing tasks involves assessing deadlines, project impacts, and resource availability. I use project management tools and regular team meetings to keep priorities clear and to adjust as needed, ensuring timely delivery of projects without compromising quality.

In my previous roles, I have worked closely with additive manufacturing techniques to develop engine components. I focused on optimizing designs for 3D printing, addressing challenges such as material properties and post-processing requirements to enhance performance and reliability.

To ensure compliance with assembly and test procedures, I follow established protocols meticulously and participate in regular training sessions. Additionally, I maintain detailed records of processes and outcomes, which help in identifying areas for continuous improvement.

Certainly! In a past project, I recommended design modifications to a fuel injector based on feedback about its manufacturability. This included adjusting the geometry for better fluid dynamics, resulting in improved efficiency during testing and production.

When I encounter hardware non-conformances, I conduct a thorough analysis to understand the issue. I collaborate with suppliers and engineering teams to determine the cause and implement corrective actions, ensuring minimal disruption to the production schedule.

For tolerance stack-up analysis, I primarily use CAD software like SolidWorks and specific analysis tools that allow for simulation of tolerances and their effects on assembly fit, which helps in validating designs before production.

I manage relationships with external suppliers through clear communication and establishing well-defined expectations regarding timelines and quality. Regular check-ins and feedback loops ensure that we're aligned on project goals and that any challenges are addressed promptly.

My motivation stems from a profound interest in advancing aerospace technology and contributing to humanity's exploration of space. The challenges and innovations involved in propulsion systems excite me, particularly the opportunity to work on projects that have a tangible impact on the future of interplanetary travel.

I stay updated on advancements in propulsion technologies by attending industry conferences, participating in webinars, and engaging with professional networks. Additionally, I regularly read relevant journals and articles to keep abreast of innovative methods and emerging trends.