BLUE ORIGIN

Engineer

• Develop and qualify avionic hardware products, specifically related to Li-Ion batteries in support of the TeraWave mission.
• Own the battery electrical integration for TeraWave, including battery-to-Power Management and Distribution (PMAD) interfaces, charging/discharging architecture, protection features, telemetry, fault management inputs, test support, and coordination with Blue Batteries.
• Support battery requirements, ICDs, verification planning, and vehicle-level integration across production, lab, EGSE, and mission operations use cases.
• Manage and maintain a full system design and its associated documentation (CAD, drawings, ICDs, BOMs, etc.)
• Provide technical support during flight build, test, and delivery to other areas of the technical execution team
• Work closely with the program and manufacturing team through build, test, and delivery of flight hardware.
• Support the development of the Automated Test Equipment and transition of the product from development to production release.
• Support the development of the hardware requirements, test plans and procedures in compliance with company and industry standards.
• Support the successful qualification of the hardware.
• Serve as the subject matter expert for integration into the vehicle and assist in troubleshooting and vehicle integration.

Battery Systems Responsible Engineer

Full-stack Engineer

• Contribute to the development and deployment of digital employee experiences across HR technology platforms including Cornerstone, LMS tools, and Workday
• Assist in building integrations between HR enterprise systems (Workday, Cornerstone, LMS) and internal/external applications using RESTful APIs, SOAP, GraphQL, and message queues
• Support the implementation of AI technologies and tools (e.g., LLMs, recommendation engines, intelligent automation) to enhance HR software capabilities and improve employee self-service
• Collaborate with cross-functional teams including HR business partners, data analysts, and ET stakeholders to translate people-operations requirements into actionable software solutions
• Help identify feature gaps between enterprise HR systems and contribute to remediation plans and custom solutions that meet end users where they are
• Write efficient and maintainable code in support of enterprise-scale HR systems and services
• Produce and maintain technical documentation for integrations between enterprise-level HR applications
• Utilize software DevOps technologies and CI/CD best practices to support software automation and deployment
• Contribute to automations that reduce manual HR operational toil and streamline workflows across the HR technology stack
• Work alongside SRE teams and apply SRE principles to help ensure HR systems meet reliability and availability standards
• Participate in code reviews and technical discussions, learning from and contributing to the team's engineering practices
• Stay current with emerging HR technology trends, AI/ML advancements, and digital experience methodologies

Software Development Engineer III

Designer

• Define end-to-end verification strategy for large Satellite communication ASIC or SoC programs
• Establish verification methodologies, infrastructure, and signoff criteria across block, subsystem, and SoC levels
• Lead verification planning for complex communication functions such as modem pipelines, FEC engines, digital beamforming, packet processing, and control fabrics
• Drive alignment among design, architecture, systems, firmware, and validation teams
• Evaluate verification completeness through coverage, assertions, formal analysis, emulation, and silicon correlation
• Resolve critical technical issues and direct root-cause analysis for the most complex functional failures
• Guide development of reusable VIP, reference models, and regression automation frameworks
• Mentor technical leaders and raise the overall verification maturity of the organization
• Influence future verification roadmap, tool strategy, and reuse models

Principal ASIC Design Verification Engineer

Security Operations

• Define top-level or cross-subsystem digital architecture for Satellite communication ASICs and SoCs.
• Lead hardware realization of key communication functions such as modem pipelines, coding engines, digital beamforming, switching fabrics, and packet/data processing.
• Drive end-to-end technical planning from concept through silicon validation.
• Establish system-level tradeoffs among throughput, latency, power, die area, reliability, and manufacturability.
• Provide technical leadership across design, verification, physical design, firmware, packaging, and system teams.
• Review and influence architectural partitioning between ASIC, FPGA, software, and RF/analog domains.
• Develop methodologies and reusable IP strategies that improve schedule, quality, and scalability.
• Mentor technical leaders and act as a go-to expert for critical design reviews and issue resolution.
• Support roadmap planning and future product definition.

Principal Modem SoC Engineer

Mechanical Engineer

• Design, analyze, fabricate, and verify the full suite of mechanical ground support equipment for large-format solar array wings—from prototype assembly through engineering build and into qualification test
• Own the complete GSE lifecycle for each item: concept trade, detailed design, procurement or in-house fabrication, assembly, acceptance test, and handoff to production with supporting documentation in Windchill
• Design and develop breakover and repositioning fixtures that allow solar wings to be rotated and handled during ground integration, ensuring load paths do not damage fragile photovoltaic assemblies or their substrates
• Translate mechanical ICD constraints from array and spacecraft bus interfaces into tooling geometry that can be operated safely in cleanroom and high-bay environments
• Design and release a broad family of wing assembly fixtures: integration stands for frame build-up during panel installation, alignment fixtures enforcing critical hole-to-hole pitch across structural members, harness routing guides, connector support brackets, and panel-level handling aids that allow technicians to maneuver individual solar panels without point-loading delicate optical surfaces or flexing laminated structures beyond tolerance
• Apply strong DFM intuition; write clear manufacturing specifications and work with in-house machinists and outside vendors to close on fabrication
• Lead design and analysis of gravity off-load systems, including dynamic load analysis, cable or counterbalance system design, and deployment simulation to accurately compensate for the distributed weight of solar array assemblies throughout the full kinematic range of motion
• Validate offload accuracy through a combination of rigid-body kinematic analysis and instrumented checkout, selecting from constant-force springs, air bearings, overhead cable systems, or hybrid approaches as the design requires
• Support miscellaneous MGSE needs as programs mature: TVAC test fixture design, transportation and shipping containers for fragile panel assemblies, vibration test interface plates, and deployment restraint fixtures for pre-launch handling
• Generate component drawings, assembly drawings, and interface control documents with application of GD&T per ASME Y14.5; perform tolerance stackup analysis to verify interface compatibility with flight hardware
• Perform structural analysis sufficient to size load-bearing members, select appropriate fastener schemes, and verify interface compatibility with flight hardware
• Collaborate in a scrappy cross-disciplinary R&D environment with manufacturing engineers, mechanisms designers, test engineers, and technicians to ensure GSE is integrated, safe, and ready when the program needs it
• Coach, mentor, and technically assist junior engineers on the GSE team

Mechanical Engineer III – Solar GSE

• Develop, analyze, and mature control algorithms and control laws for complex dynamic systems
• Build and validate dynamic models and simulations of system behavior, including fluid dynamics, valves, and actuators (MATLAB/Simulink, state-space modeling)
• Perform control systems analysis (CSA): stability, robustness, sensitivity, and performance trades
• Apply model prediction techniques to anticipate system response and inform control design
• Correlate models against development and integrated test data; refine algorithms based on results
• Define control and instrumentation requirements and interface with the Design Office, avionics, software, and test teams
• Support hardware-in-the-loop (HIL) and integrated test activities to verify control performance
• Lead control architecture decisions, mentor junior engineers, and drive cross-program lessons learned

Controls Engineer III

Solutions Engineer

• Deploy, configure, and integrate River (Electron/TypeScript/Node.js) onto test stands and control hardware
• Bring up and validate driver-level PLC and packaged control surface communications (Modbus and other industrial protocols)
• Verify data storage, manipulation, and real-time send/receive workflows in the integrated environment
• Build, package, and manage software releases and deployments to operational systems
• Troubleshoot issues across the software/hardware boundary during integration and testing
• Partner with software, controls, avionics, and test engineers to resolve anomalies and improve integration workflows
• Develop and execute integration test procedures; capture results and lessons learned

Software Integration Engineer II

• Architect, develop, and maintain River, an Electron-based command and control application (TypeScript/JavaScript, Node.js)
• Design and own data pipelines for storage, manipulation, and real-time send/receive of high-rate data
• Lead driver-level integration with PLC and packaged control surfaces (Modbus and other industrial protocols)
• Establish software architecture, design patterns, and engineering best practices across the codebase
• Drive code quality through reviews, automated testing, and CI/CD
• Partner with controls, avionics, and test engineers to define interfaces and translate requirements into robust software
• Troubleshoot complex issues across the software/hardware boundary in development and test environments
• Mentor junior engineers and contribute to technical roadmap and cross-program lessons learned

Software Engineer

Systems Engineer

• Work directly with Blue engineering teams on projects in support of our business units.
• Gain hands on, real-world experience.
• Receive mentorship and feedback from mentors and managers.
• Participate in events to learn about other parts of our organization.

Electrical Systems Engineering Internship – Graduate

• Integrate, deploy, and tune control algorithms and control laws onto controller electronics and avionics hardware
• Design, build, and operate Integrated Hardware-in-the-Loop (IHIL) test environments
• Bring up and troubleshoot real-time control surfaces, valves, actuators, and instrumentation
• Integrate driver-level PLC and packaged control interfaces (Modbus, etc.) with system hardware
• Lead test stations: gather requirements, design test cards, coordinate stakeholders, and generate test logs
• Resolve anomalies across the controls/avionics/software boundary during development and integrated testing
• Correlate observed hardware behavior against model predictions and feed results back to the controls team
• Capture and share cross-program lessons learned to improve control system integration (Level III)
• Lead major aspects of IHIL design and integration efforts and mentor junior engineers

Controls Integration Engineer

• Gain hands on, real-world experience.
• Receive mentorship and feedback from mentors and managers.
• Participate in events to learn about other parts of our organization.

Fluid Systems Engineering Internship – Graduate

• Gain hands on, real-world experience.
• Receive mentorship and feedback from mentors and managers.
• Participate in events to learn about other parts of our organization.
• Work directly with Blue engineering teams on projects in support of business units.
• Involved in different aspects of applied manufacturing engineering in the development and fabrication of mechanical, propulsion, structural, fluid and avionics systems.
• Integrate design for manufacturing, test, operations, and materials & processes.

Manufacturing Engineering Internship – Graduate

• Interns work directly with Blue engineering teams on projects in support of business units.
• Gain hands on, real-world experience.
• Receive mentorship and feedback from mentors and managers.
• Participate in events to learn about other parts of the organization.

Structural & Mechanical Systems Engineering Internship

SDET

• Work directly with Blue engineering teams on projects in support of business units
• Involve applied test engineering including design, analysis, test planning and operation of test systems
• Testing fluid, propulsion, mechanical, avionics software, structures, GNC, and electronic systems
• Some projects may require comfort with heights

Test Engineering Internship – Graduate

• Support the formulation of new products, mission areas, and programs, helping translate emerging customer needs and market opportunities into compelling technical concepts.
• Contribute to capture and proposal activities for new business opportunities, including developing technical approaches, authoring proposal content, and supporting color team reviews.
• Contribute to the development of mission architectures, concepts of operations (CONOPS), and end-to-end system designs for novel space applications.
• Own the decomposition of mission objectives into verifiable system and subsystem requirements, ensuring traceability and clarity.
• Drive and execute complex trade studies to optimize system performance, cost, and schedule, and present findings to leadership to inform critical decisions.
• Define, manage, and control system interfaces, leading interface control working groups to ensure seamless integration across all vehicle and ground segments.
• Provide systems engineering support to a multidisciplinary team to ensure a cohesive and robust system design.
• Develop and oversee the execution of comprehensive verification, validation, and test campaigns.
• Contribute to major technical design reviews and serve as a key technical authority for the mission system.