NPI Systems Engineer - Solar Center of Excellence

Application close date:

Applications will be accepted on an ongoing basis until the requisition is closed.

At Blue Origin, we envision millions of people living and working in space for the benefit of Earth. We're working to develop reusable, safe, and low-cost space vehicles and systems within a culture of safety, collaboration, and inclusion. Join our team of problem solvers as we add new chapters to the history of spaceflight! This role is part of Advanced Concepts and Enterprise Engineering (ACE), supporting Blue Origin's mission of millions of people living and working in space for the benefit of Earth.

The team fosters innovation and drives engineering workflows of the future, shared solutions and standards, simplicity and lower costs, and manufacturable design.

As part of a hardworking team of specialists, technicians, and engineers, you will own end-to-end integration verification for the New Product Introduction (NPI) lines that bring next-generation spacecraft solar arrays into production at unprecedented rates and reliability. This is an architecture-level opportunity for green-field design and process integration - the equipment is still being specified, the flow has not been locked, and the architecture is still a set of open decisions.

You will work on a team of manufacturing, process, and ground support equipment engineers owning their individual process areas - cell interconnection, lamination and bonding, mechanism assembly, tooling, fixturing, automation. You own the interfaces between them and the overall performance of the manufacturing system as a whole. Your object is the value stream as a system, raw material intake through wing integration, verified end to end as scalable and stable for high volume production.

You will not only ensure that each process works, but more importantly you will be responsible for making the integrated system scalable. That is a claim about distributions and resource envelopes: process capability, equipment availability, yield, test throughput, and lot-to-lot variation. You will build the models that determine whether it closes, instrument the line to find out what it actually does, and generate the verification evidence the program's scalability claim rests on.

You will partner with Operations to define the architecture the full-rate lines are built to, ensuring the lines inherit proven designs instead of new discovery, enabling a rapid ramp up to rate production.

This is a hands‑on building role. You will write the models yourself and be on the floor with the machines and instrumentation. You'll play a front seat role in architecting high volume production lines powering the next generation of space vehicles.

We are primarily seeking a senior‑level engineer to help establish and scale this capability, but are open to exceptional candidates at adjacent career levels whose manufacturing, industrialization, NPI, and cross-functional execution experience align with the needs of the role.

• Relocation provided
• Travel expected up to 25% of the time
• Interviews will include a technical assessment

• Own end-to-end integration verification of the NPI value stream, and the interfaces between process areas - material handoff, fixture and datum compatibility, data continuity, environmental constraints, storage and transport
• Build and maintain the capacity, availability, and throughput models that determine whether the value stream closes at rate; identify the constraint and the capital decisions rate capability depends on
• Characterize how the integrated system actually behaves, hands‑on with developing and implementing instrumentation, including how variation in one process area propagates to yield and throughput downstream
• Establish the rate conditions design, processes, and equipment must be verified against - takt, capability and availability targets, test throughput, sampling posture, capacity margin - and the verification methods that close them
• Author the production architecture requirements that make those targets achievable: how far each process can be modularized, how much capacity margin is…