Pictured is the early concept for the Astraeus satellite, meant to provide power to maneuver decisively in Low Earth Orbit to cis-lunar orbit at much higher speeds, using tested and proven cooling and storage to push the boundaries of our ever growing orbital presence. The goal is to meet the extensive positioning, servicing and de-orbiting needs of the ever expanding space population, allowing for on-demand mobility for repositioning, life extension and end-of-life disposal, within one launch window. This start up is still in its early stages, utilizing efficient test stands and operations from experienced team members from all over the Space and Aerospace sectors. 

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With my time working with Orbital Operations, I have the pleasure of working closely with the test team in establishing the foundations and procedures for the propulsion and cryogenic systems. Pictured is the test stand for the chamber hot-fire, kicking off the propulsion qualification campaign, validating the injector designs, combustion stability, and overall performance at full scale. While still early in the testing stages, the goal is to validate the first Cryogenic Propellant Management Systems (CPMS) for both 20 K and 90 K in 2026, forming the backbone of the engine development. The targeted milestones will be to have Astraseus qualified by 2028 and in orbit for our Demo mission in 2029. 

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In addition to working with the test team, I have also supported several aspects of design alongside several incredible engineers, assisting in establishing a stable throughput of drafts and assemblies to prepare for scaled production. I have also had the opportunity to work with the executive team on establishing client and governmental stakeholder discussions and negotiations, ensuring all compliance and concerns are met as we integrate our system and mission to those of our client's and their capabilities.