Role Overview Drive embedded Linux and networking architecture for satellite flight systems and secondary RTOS platforms. Lead technical projects end-to-end, mentor engineers, and own CI/CD infrastructure for a growing space technology team.
Key Responsibilities
Flight Systems Architecture: Lead BSP bring-up, device drivers, custom protocol stacks, and link-layer integrations with satellite/RF hardware.
Technical Leadership: Set coding standards, perform code reviews, lead cross-functional technical discussions, and drive engineering best practices.
Systems & Infrastructure: Support SiL simulation environments, resolve complex hardware/software integration issues, and manage release pipelines.
Core Qualifications
8+ years in software engineering with a primary focus on embedded Linux.
???????Deep expertise in Linux kernel internals (drivers, device trees, kernel builds)
Strong background in TCP/IP, UDP, routing, and custom communication protocols.
Proficient in C, C++ (C++17), and Python (automation/tooling).
Hands-on with Yocto, Buildroot, real-time Linux (PREEMPT_RT), and RTOS.
Experienced with JTAG, SWD, GDB, oscilloscopes, and logic/network analyzers.
Skilled in modern practices: Git, CI/CD, unit testing, Jira.
Launch your career in Space. We are seeking a highly motivated and detail-oriented Associate Mechanisms Engineer to support the assembly, integration, and testing (AIT) of spacecraft mechanisms. This is a hands-on role working closely with design, test, and production teams to ensure the successful build, qualification, and delivery of space mechanisms and subsystems.
Key Responsibilities
Support Production during spacecraft mechanism build, integration, and verification.
Perform and support mechanism and subsystem-level testing.
Develop test requirements, processes, materials, and tooling for vibration, shock, TVAC, and assembly activities.
Participate in design, analysis, and trade studies to determine appropriate AIT strategies.
Work with Design Engineering to improve manufacturing flow, cost, and hardware layout.
Collect and analyze test data and prepare detailed engineering reports.
Troubleshoot hardware anomalies and failures, perform root-cause analysis, and support corrective actions.
Contribute to mechanism design improvements based on findings during testing and production.
Qualifications
Education
Bachelor’s degree in Mechanical Engineering, Aerospace Engineering, or a related discipline.
Experience
0–2 years of relevant experience in aerospace, precision hardware assembly, integration, or testing.
Preferred Experience
Space-qualified mechanisms such as actuators, release devices, hinges, latches, or deployment systems.
Root Cause and Corrective Action (RCCA) and nonconformance resolution.
Spacecraft or aerospace Assembly, Integration & Test (AIT).
Environmental testing including vibration, shock, and thermal vacuum (TVAC).
Cleanroom practices and contamination control.
ECAD/MCAD integration, configuration control, and product data management.
Relevant standards or certifications including IPC-A-610/J-STD-001, NASA-STD-8739, ECSS-Q-ST-70, AS9100, or Six Sigma.
Technical Skills
CAD: Autodesk Inventor, SolidWorks, NX, Creo, or similar.
Analysis: FEA experience is beneficial.
PDM/PLM: Fusion or equivalent systems.
Testing: LabVIEW or similar data acquisition/test systems is preferred.
General: Microsoft Word, Excel, PowerPoint, and Project.
Compensation: Competitive base salary + package + stock options
Imagine joining a launch company at the point where the drawings are about to become concrete, steel, pipework and ultimately a place where rocket engines will fire.
This is not an established aerospace business maintaining infrastructure that already exists. The company is building Canada’s first medium-lift launch vehicle and much of the infrastructure needed to test, develop and launch it still needs to be created.
The team behind it includes veterans of some of the world’s most successful launch, aerospace and engineering organisations, bringing more than a century of combined launch and space systems experience to the programme.
The engineering philosophy is deliberately pragmatic.
A single 725 kN engine will scale from light- to medium-lift through engine clustering. Proven technologies are favoured over unnecessary complexity. Hardware will be tested early and often, finding problems on the test stand rather than discovering them at the launch pad.
And this isn’t a company waiting for funding before it can move.
More than $20M was secured within its first four months, including the largest all-Canadian seed round in the sector and an $8.3M Department of National Defence grant.
Now the infrastructure has to catch up with the ambition.
The Opportunity
We’re looking for an Infrastructure Engineering Program Manager who can help turn that ambition into something physical.
Test facilities. Launch infrastructure. Utilities. Equipment. Control systems. Concrete. Conduit.
You’ll take ownership of the technical baseline and integrated execution of the company’s test and launch infrastructure, from detailed design through construction and commissioning.
At many organisations, infrastructure sits quietly in the background.
Here, it is on the critical path.
The engineering decisions you make today will determine what gets built tomorrow and ultimately whether engines can be tested and vehicles can be launched.
You’ll act as the engineering authority for the programme, sitting at the intersection of engineering, procurement, construction and facilities.
You won’t necessarily design every system yourself. Instead, you’ll make sure the entire programme works as one integrated system.
You’ll manage third-party engineering firms across multiple disciplines, own requirements and the integrated schedule, establish the technical baseline and make the engineering decisions that construction and procurement execute against.
The environment is fast-paced, highly autonomous and deliberately lean.
What You’ll Own
You’ll translate programme requirements into engineering scopes, specifications and acceptance criteria, while establishing the change-control processes that keep engineering, procurement and construction working from the same technical baseline.
Third-party engineering firms will look to you as their primary technical interface. You’ll manage their scopes and deliverables, integrate work across disciplines and hold partners accountable for schedule, quality and technical performance.
You’ll own the integrated programme schedule and budget baseline across design, procurement and construction identifying the critical path and making sure long-lead decisions happen before they become programme delays.
When major equipment and systems need to be purchased, you’ll develop the technical specifications and work alongside Supply Chain to evaluate potential vendors.
As designs move towards reality, you’ll run design and constructability reviews alongside Construction and Facilities, resolving RFIs and engineering changes as issues emerge in the field.
And when the infrastructure is finally built, your responsibility doesn’t stop.
You’ll own the technical side of commissioning, defining commissioning plans, acceptance criteria and functional testing before signing off the systems for handover into operational use.
Ultimately, you’ll be the person keeping engineering, procurement, construction and facilities aligned around one technical plan.
The Team Around You
You won’t be doing this alone.
The infrastructure group is intentionally small, with clear ownership across four areas.
Engineering owns the technical baseline.
Supply Chain sources the equipment and manages commercial commitments.
Construction turns the designs into physical infrastructure.
Facilities takes ownership once those systems become operational.
The boundaries are clear, but in a company moving this quickly, collaboration matters more than job titles.
What We’re Looking For
You’ll likely have at least five years’ experience delivering infrastructure, facilities or complex industrial projects within environments such as aerospace, energy, advanced manufacturing or heavy industry.
You’ll have a strong engineering foundation and be comfortable reviewing drawings, specifications and multidisciplinary design packages rather than simply managing a programme from a spreadsheet.
Experience managing external engineering firms is important, as is the ability to hold suppliers and partners accountable for scope, schedule and quality.
You’ll understand integrated schedules and budgets, procurement workflows and equipment commissioning.
Most importantly, you’ll be comfortable operating somewhere where not every process already exists.
In some cases, you’ll be expected to build the process yourself.
Experience with test stands, propulsion infrastructure or hazardous fluid systems would be particularly valuable, as would exposure to instrumentation, DAQ or control architecture.
P.Eng status or eligibility in Ontario would also be advantageous, alongside knowledge of relevant Ontario building and fire codes and Canadian standards.
Why Join?
There aren’t many opportunities where an infrastructure engineer can point to a facility several years from now and say:
“I helped build that from the ground up.”
There are even fewer where the facility you’ve helped create exists to test rocket engines and support a national orbital launch capability.
The company already has the funding, engineering pedigree and launch ambition.
Site Reliability Engineer Location: Irvine, CA Salary: $90,000 – $105,000 About the Company We design, build, and operate the largest fleet of Synthetic Aperture Radar (SAR) satellites in the world. Using advanced technology, our constellation collects topographical data about any location on Earth, day or night, through any weather conditions. Headquartered in Southern California, our customers are society’s heroes – intelligence professionals, warfighters, first responders, and scientific researchers. As a trusted mission partner, the United States and its allies depend on us for critical information when it matters most. Position Summary Join our team as a Site Reliability Engineer (SRE). The ideal candidate will have 2+ years of experience and play a pivotal role in optimizing our systems for peak reliability. Working alongside a team of skilled DevOps engineers, you'll find yourself in a collaborative and supportive environment where your ideas are valued, and your contributions make a tangible impact. Primary Duties & Responsibilities
Assist in the design and implementation of strategies to improve the reliability of our systems
Work with Datadog, LGTM stack, AWS, and Kubernetes to monitor, analyze, and optimize system reliability
Support the development of custom monitoring and alerting solutions to identify and address issues proactively
Follow and contribute to SRE best practices to maintain the stability and resilience of our infrastructure
Participate in on-call rotations and provide timely responses to incidents
Minimum Qualifications
Bachelor’s degree in Computer Science, Engineering, or related field, or equivalent practical experience
2+ years of experience working with cloud platforms, particularly AWS, and container orchestration tools such as Kubernetes
Familiarity with monitoring and observability tools like Datadog, Prometheus, Grafana, Loki, Tempo, Mimir, etc.
Basic understanding of networking, distributed systems, and microservices architecture
Experience with configuring and maintaining databases and other critical services
Basic scripting and automation skills using Python or similar programming languages
Preferred Qualifications
Exposure to DevOps methodologies
Familiarity with infrastructure as code tools such as Terraform
Knowledge of CI/CD pipelines and related tools (e.g., GitHub Actions, Jenkins, GitLab CI)
Basic understanding of containerization technologies such as Docker
Basic understanding of Data Platform Tools such as Fivetran, Databricks, and Holistics
Certifications in AWS, Kubernetes, or related technologies are a plus
Pay Range and Compensation Package The estimated base salary range for this role is $90k – $105k depending on experience. Other benefits include health coverage, flexible PTO, a friendly work environment, plus extra fun perks!
Senior GNC Engineer LITTLETON, CO Salary: $150,000 – $190,000 About the Opportunity Join an innovative space technology that designs, builds, and operates a diverse range of small satellite systems supporting space-based turnkey missions for several business applications, including earth observation, communications, in-orbit demonstrations, risk reduction, science, and exploration. Astro Digital is headquartered in Littleton, Colorado with 100+ employees and infrastructure around the globe.
Position Summary We're looking for an experienced Senior Guidance, Navigation & Control (GNC) Engineer to take ownership of the analysis that makes our spacecraft fly. You'll drive high-fidelity simulation, performance evaluation, and system-level analysis of GNC systems and roll up your sleeves to shape flight software in C++. From large deployable structures and laser communications to high-precision astrophysics observations, in-space robotics, constellations, and rendezvous & proximity operations, you'll get your hands on the full spectrum of cutting-edge spacecraft missions. Your analysis will directly steer Systems Engineering on mission design and CONOPS, along with the actuator and sensor performance requirements that define what's possible. Proficiency in C++ and Python is essential—you'll help build and maintain the modeling, simulation, and analysis tool stack that we use to design these missions. This is a remote-friendly role, open to US-based candidates.
Primary Duties & Responsibilities
Build high-fidelity models and simulations of spacecraft GNC systems and prove them out across every mission phase
Conduct Monte Carlo analyses, covariance studies, and performance assessments to validate GNC algorithms before they fly
Create and evolve the simulation and analysis tools we use to design missions and flight software components that implement them
Analyze sensor and actuator performance, including propulsion subsystems, star trackers, IMUs, reaction wheels, and GNSS
Write and refine C++ flight software GNC components and flight software configuration
Support verification and validation of flight software through unit testing and hardware-in-the-loop (HIL) simulations
Collaborate with systems engineering, mission design, and flight software teams to ensure GNC performance meets mission requirements
Document analysis results, software interfaces, and validation procedures
Minimum Qualifications
U.S. person status required (U.S. citizen or lawful permanent resident) to comply with ITAR/EAR export-control regulations
Bachelor's degree in Aerospace Engineering, Electrical Engineering, or related field
5+ years of hands-on experience in spacecraft GNC analysis and simulation
Strong understanding of spacecraft dynamics, control systems, and estimation techniques (e.g., Kalman filtering)
Proficiency in C++ and Python
Experience developing Monte Carlo simulations and numerical analysis tools
Excellent analytical, communication, and technical documentation skills
Strong attention to detail and accuracy
Ability to work independently and as part of a team
Preferred Qualifications
Master's degree in Aerospace Engineering, Electrical Engineering, or related field
Strong controls foundation through advanced coursework, research, or control law design
Hands-on work with commercial flight software frameworks (e.g., GNC-capable satellite flight software stacks)
On-orbit operations experience, including early-orbit commissioning and anomaly response
Track record of developing flight software for space missions
Familiarity with spacecraft polarity/phasing and other GNC-related testing
Direct exposure with rendezvous & proximity operations (RPO)
Experience creating analysis frameworks and models from scratch, not just operating existing tools
Proven ability to communicate and coordinate independently across systems engineering, flight software, and mission design teams
Familiarity with Linux development environments and version control systems (e.g., Git)
Pay Transparency Astro Digital employees are provided with a comprehensive benefits package that includes company stock options, healthcare, 401k retirement plan, and PTO. The range of possible compensation for this role is $150k–$190k annually, depending on candidate experience, alignment, and location
Principal RF/Microwave Engineer — Spaceborne Radar Payloads
About the opportunity
An early-stage space company is building advanced electronically-steerable radar payloads for Low Earth Orbit, and needs a principal-level RF/microwave engineer to own one of the highest-leverage parts of the architecture: the flight-ready, phase-coherent RF hardware that determines the payload's sensitivity, power, waveform fidelity, and overall mission performance.
This is a deeply hands-on principal role, not a systems-only or simulation-only seat. You'll own RF hardware end-to-end, from architecture and budgets through circuit and PCB design, simulation, lab characterisation, integration, qualification, calibration, and production readiness.
The mission context
The company's radar technology is based on mature phased-array heritage already in full-rate production for terrestrial and airborne applications, now being transitioned to flight-ready space hardware. The RF payload is central to that, and this role directly influences system sensitivity, RF power, efficiency, coherence, and mission performance. You'd be shaping next-generation spaceborne ISR, SAR, and MTI capabilities.
The two profiles
The team is growing, and there's appetite for more than one senior RF engineer. The work splits across two chains:
A transmit focus, centred on high-power amplification (GaN SSPA and drain-switching approaches), peak RF power, PAE, AM/PM fidelity, bandwidth, and the thermal and mechanical complexity that comes with high-power transmit. This is the rarer, more senior profile and the current priority.
A receive focus, centred on sensitivity, dynamic range, channel matching, gain and noise budgets, and calibration stability.
Strong candidates often bring depth in one and working knowledge of the other. If your centre of gravity is high-power transmit, we especially want to hear from you.
What you'll own
Own the RF architecture and performance budgets. Design and verify RF transmit and/or receive chains spanning digital interfaces, RF signal conditioning, amplification, filtering, and calibration. Retire RF, thermal, power, EMI/EMC, and integration risks. Collaborate across antenna, digital, power, and spacecraft disciplines. Transition qualified hardware into repeatable production.
A typical week
Roughly 60% design, simulation, and lab work, 20% integration and support, and 20% in meetings. This is a bench-heavy role by design.
What you'll bring
Expert RF/microwave design experience across transmit and/or receive chains: RF budgets, gain and noise analysis, linearity, dynamic range, phase noise, coherence, high-power amplification, filtering, matching networks, microwave PCB design, RF simulation, lab characterisation, and calibration. Experience developing space-qualified hardware, and ideally exposure to phased arrays, radar payloads, or aerospace RF systems.
The thing that matters most: you've personally architected and delivered complex RF/microwave hardware from requirements through bring-up, characterisation, integration, and qualification, and owned it end-to-end. Engineers who've played across disciplines, tried things, hit problems, and iterated their way through are exactly the profile. Deep but narrow experience, owning one fixed slice of a chain for years without that broader ownership, is not what this role needs.
You're hands-on, rigorous, curious, and high-ownership, with strong first-principles judgement, disciplined lab habits, comfort with ambiguity, and the ability to mentor while remaining a strong individual contributor.
Practical requirements
This is an on-site role in the Seattle area. Given the mission set, US citizenship and the ability to meet security clearance requirements are required.
The honest preview
The upside is exceptional ownership of advanced radar hardware, genuinely hard RF problems, rapid design-test cycles, and direct impact on flight hardware and mission performance. The hard parts are aggressive schedules, evolving requirements, tightly coupled multidisciplinary interfaces, space-qualification constraints, and the expectation to solve problems hands-on at the bench. It suits a builder who wants deep ownership, not a specialist looking to run one narrow slice.
An early-stage space company is standing up a brand-new production facility in the Seattle area (Redmond) to manufacture advanced radar payloads at volume for the space and defence industry. Right now the site is close to a blank canvas. Over the coming months it becomes a functioning, high-rate factory, and this role owns that build from the ground up: the processes, the equipment, the quality system, and the team.
This is a genuinely rare brief. Not maintaining an established line, but designing and building one, in a low-mix / high-volume model aimed at producing hundreds of deliverable units per month. If you've stood up or scaled complex electronics production before and want to do it again with real ownership, this is that role.
The mission context
The company builds advanced electronically-steerable radar payloads for Low Earth Orbit, delivering high-end radar performance at a fraction of the traditional cost, which is what makes proliferated constellations viable. The technology is based on mature phased-array heritage already in full-rate production for terrestrial and airborne applications, now being transitioned to flight-ready, high-rate space manufacturing. This role is central to that transition.
What you'll own
Manufacturing leadership; high-rate space hardware production; process and operational excellence; quality and mission assurance (standing up the QMS, with a dedicated Quality function to follow); capital equipment deployment; and supply chain and supplier management. Specifically, you will:
Design the factory layout, production flow, and test and manufacturing assets for the new facility, including clean room standup. Build a culture of quality, accountability, urgency, and continuous improvement. Develop manufacturing talent and clear career paths for technicians, engineers, supervisors, and managers. Establish a data-driven operating cadence for production performance. Proactively identify manufacturing risks before they hit programme schedules. Balance quality, schedule, cost, and technical risk. Deliver reliable hardware on schedule in an environment where products and processes are still evolving.
A typical week
Roughly 30% in meetings and organisational development across departments, 20% on research, process development, and asset acquisition and deployment, and 50% on process implementation, staffing, mentoring, and reporting.
What you'll bring
The must-have is proven experience leading high-rate, high-volume manufacturing of complex electronics, ideally microwave/RF hardware or antennas. You've run a real production operation at scale, in a low-mix / high-volume model, and you know what it takes to build one product consistently and reliably rather than a high-mix prototype shop.
You're familiar with government workmanship standards and quality flow-downs. Exposure to test automation, robotics, or ML on the production line is valued. Space-qualified hardware experience is a strong plus, but volume electronics credentials come first: a space background without high-rate manufacturing depth isn't the profile here.
Above all, you bring urgency, ownership, and a genuine appetite for building a world-class production operation from scratch.
Practical requirements
This is an on-site role in the Seattle area (Redmond). Given the mission set, US citizenship and the ability to meet security clearance requirements are required.
The honest preview
This is a build-it-from-the-ground-up role with real ownership and real impact on national security capabilities. It will also mean hard work, sometimes long hours, and a deep commitment to process and timelines. It suits a builder who's scaled production before, not a sustainer.
Ready to help build electronics tough enough for space?
A VC-backed space technology startup in Seattle is seeking a Lead Radiation Effects Engineer to own radiation assurance for advanced spaceborne radar systems. You’ll shape the strategy, lead test campaigns, and influence the design decisions that keep mission-critical hardware reliable in orbit.
What you’ll do:
• Own the radiation assurance strategy • Model mission radiation environments and calculate margins • Plan and execute SEE, TID, and displacement-damage testing • Analyze results and recommend radiation mitigations • Guide component selection, derating, and system architecture • Build analysis and test-automation tools • Support reliability reviews and on-orbit investigations
What we’re looking for:
• 5+ years in radiation effects or high-reliability electronics • Hands-on radiation test and qualification experience • Knowledge of tools such as OMERE, SPENVIS, or CREME96 • Understanding of spacecraft electronics and schematics • Bachelor’s degree in engineering, physics, or a related field • Python or MATLAB experience is a plus • FPGA, ASIC, PCB, or system-reliability experience is highly valued
Seattle, WA — on-site $185,000–$215,000 base salary + equity Some travel required
Our client is an innovative aerospace company developing a new orbital launch vehicle and associated propulsion systems.
The organisation brings together experienced engineers from leading aerospace, space, propulsion and advanced manufacturing companies.
Its mission is to develop a reliable and scalable launch capability, with an engineering philosophy focused on practical design, proven technologies, rapid development and extensive hardware testing.
The company is well funded and is expanding its engineering team as it progresses through engine and vehicle development.
About the Role
We are looking for a Manufacturing & Materials Engineer / Specialist to support the development and production of advanced propulsion hardware.
The position will be responsible for the selection, qualification and control of metallic materials and manufacturing processes, helping turn engineering designs into reliable, production-ready hardware.
Sitting at the intersection of materials science, design engineering, manufacturing, quality, production and supply chain, this individual will support material selection, process development, fabrication planning, producibility, inspection and failure investigation.
You will work closely with propulsion, turbomachinery, mechanical and fluids engineers to select and qualify metallic materials, develop fabrication methods, establish process controls and resolve manufacturing challenges as hardware progresses from development into production.
Key Responsibilities
Define and execute materials and manufacturing strategies for complex propulsion hardware.
Support material selection, process development, fabrication planning, producibility and industrialisation.
Develop and maintain material specifications, process specifications, qualification plans and associated workflows.
Characterise and evaluate metallic material behaviour relevant to design and manufacturing.
Develop, optimise, qualify and control fabrication and manufacturing processes.
Develop manufacturing plans, travellers, work instructions, build sequences and process flows.
Lead or support Design for Manufacture (DFM) and Design for Assembly (DFA) activities.
Work closely with design engineers to ensure hardware concepts align with manufacturing capability, material availability and production constraints.
Support the development and maturation of critical manufacturing methods.
Work with operations and supply-chain teams to identify and qualify suppliers for raw materials, forgings and fabricated components.
Evaluate material pedigree, traceability, source availability, lead times, certifiability and scalability.
Lead or support failure analysis and manufacturing investigations.
Resolve production issues including non-conformances, rework, process escapes, yield issues and fabrication anomalies.
Contribute to technical reviews, trade studies and development planning relating to materials, manufacturing methods, production scaling and hardware risk.
Required Experience
Experience in manufacturing engineering, materials engineering or process engineering involving metallic aerospace hardware or another highly demanding hardware environment.
Strong understanding of metallic material systems and alloys, including how product form, temper, heat treatment and processing history influence performance and manufacturability.
Experience developing, supporting or optimising fabrication processes such as:
machining
welding
forming
joining
heat treatment
assembly
Strong understanding of how manufacturing processes affect strength, fatigue performance, residual stress, distortion, crack initiation, dimensional control and inspectability.
Experience developing manufacturing documentation such as process flows, work instructions, manufacturing plans and fabrication/build sequences.
Strong understanding of manufacturing process capability, material behaviour and producibility.
Ability to work cross-functionally with engineering, production, quality, operations and suppliers.
Strong technical judgement with the ability to balance performance, manufacturability, schedule, scalability and cost.
Preferred Experience
Experience with propulsion systems, launch vehicles, spacecraft, turbomachinery, pressure vessels, tanks, manifolds or other high-performance aerospace hardware.
Experience working with aluminium alloys, nickel alloys, titanium or other aerospace metallic systems.
Experience with welded assemblies, machined components, formed structures, manifolds, pressure-containing hardware or thermally demanding components.
Experience developing or qualifying welding, brazing or other joining processes.
Experience with both metal additive manufacturing and conventional machining/joining processes.
Experience qualifying suppliers for metallic raw materials and specialist fabrication processes.
Familiarity with NDT/NDE methods.
Familiarity with aerospace quality and manufacturing frameworks such as AS9100, NASA, ECSS or equivalent standards.
Bachelor’s or advanced degree in Materials Engineering, Mechanical Engineering, Manufacturing Engineering, Aerospace Engineering or a related discipline.
Professional engineering registration/licensure may be required where the individual assumes responsibility for engineering work affecting public safety.
Location: Southern California – Hybrid / Remote considered Salary: $145,000–$175,000 Industry: Space & Defense
We're working with a fast-growing, well-funded space technology company expanding its US engineering team and developing next-generation radar satellite systems.
They're looking for an experienced Firmware/FPGA Engineer to take significant ownership of the FPGA architecture behind advanced SAR and radar payloads.
The Role
You'll work across FPGA, DSP, RF and embedded systems, helping evolve existing flight-proven firmware into a more modular, reusable architecture for future products.
You'll be responsible for:
FPGA/RTL development using VHDL/Verilog
High-performance signal processing in FPGA fabric
Radar signal generation, beamforming and processing pipelines
Xilinx RFSoC / UltraScale+ / Zynq development
PS–PL integration with ARM-based systems
High-speed interfaces and RF/ADC/DAC integration
Timing closure, verification and hardware bring-up
Helping define FPGA architecture, tooling and processes as the team grows
Strong understanding of high-speed interfaces and electrical schematics
Radar, SAR, EW, SDR or other high-performance signal-processing experience highly desirable
RFSoC experience is a major plus
Space/aerospace/defense experience preferred
This is a high-ownership role where you'll help shape the FPGA architecture for current and future spaceborne radar products, rather than simply maintain an established design.
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