Full-Time

Lead GNC Engineer

Pillar Space

Pillar Space

On-orbit satellite infrastructure as a service

Compensation Overview

$185k - $275k/yr

+ Equity 0.3%-1% + 401(k) 4% company match

No H1B Sponsorship

Los Angeles, CA, USA

Hybrid

Hybrid work in Los Angeles is required.

Bachelor's

Category
Aerospace Engineering (1)
Required Skills
Rust
Python
Propulsion
Machine Learning
MATLAB
Quality Assurance (QA)
Simulink
C/C++
Reinforcement Learning

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Requirements
  • A bachelor's degree in Aerospace Engineering, Mechanical Engineering, Electrical Engineering, Robotics, Computer Science, or a related technical discipline is required.
  • At least 8 years of experience designing, simulating, implementing, testing, or flight-qualifying guidance, navigation, and control algorithms for spacecraft, launch vehicles, hypersonic or reentry systems, autonomous aircraft, robotics, or other high-reliability autonomous systems is required.
  • Prior experience leading technical workstreams, managing engineers, mentoring junior and mid-level engineers, or building high-performing engineering teams is required.
  • Demonstrated ability to own complex technical systems from early architecture through implementation, test, validation, and operational readiness is required.
  • Strong fundamentals in orbital mechanics, control theory, estimation, dynamics, linear algebra, numerical methods, and sensor fusion are required.
  • Experience with guidance, navigation, and control simulation, including 6-DOF dynamics, closed-loop simulation, Monte Carlo analysis, dispersions, and off-nominal testing, is required.
  • Proficiency in MATLAB/Simulink and at least one production language such as C, C++, Python, or Rust is required.
  • Experience taking algorithms beyond analysis into real implementation, hardware testing, flight software, embedded systems, hardware-in-the-loop, processor-in-the-loop, or representative testbeds is required.
  • Ability to work independently with limited direction, identify the right next problem to solve, and drive technical work from ambiguity to tested hardware or software is required.
  • Ability to make practical system-level tradeoffs across performance, schedule, cost, reliability, testability, and mission risk is required.
  • Ability to lead through influence in a cross-functional environment spanning flight software, avionics, autonomy, propulsion, mechanical, systems, and mission operations is required.
Responsibilities
  • Own the guidance, navigation, and control architecture for autonomous rendezvous, proximity operations, and related mission phases from early design through simulation, testing, integration, and flight.
  • Lead the development of guidance, navigation, and control algorithms for approach, stationkeeping, proximity maneuvers, aborts, collision avoidance, and other safety-critical maneuvers.
  • Design and analyze trajectories for orbital operations and other relevant flight regimes, including mission trades, dispersions, constraints, and operational margins.
  • Provide technical leadership across guidance, navigation, and control, autonomy, simulation, test, and flight software efforts.
  • Help hire, manage, mentor, and develop guidance, navigation, and control, controls, autonomy, simulation, and related engineers as the team grows.
  • Establish engineering processes, review standards, technical decision-making norms, and verification discipline appropriate for flight-grade systems.
  • Build relative navigation and state-estimation systems using sensors such as vision, LiDAR, radar, IMUs, GNSS, star trackers, and other flight-relevant hardware.
  • Develop high-fidelity simulation, Monte Carlo, hardware-in-the-loop, and processor-in-the-loop test environments to validate guidance, navigation, and control performance and robustness.
  • Help define requirements, interfaces, error budgets, verification plans, and fault-handling approaches for the guidance, navigation, and control subsystem and broader vehicle.
  • Select, integrate, and test guidance, navigation, and control-relevant hardware, including sensors, actuators, processors, and representative test equipment, working with vendors and internal teams as needed.
  • Develop and test flight guidance, navigation, and control software in close collaboration with flight software, avionics, autonomy, propulsion, mechanical, and mission operations teams.
  • Contribute to system-level trades across algorithms, sensors, hardware, software, schedule, cost, reliability, and mission risk.
  • Work closely with the founders and early engineering team to shape the technical roadmap, engineering culture, hiring plan, and long-term guidance, navigation, and control strategy.
  • Represent the guidance, navigation, and control function in cross-disciplinary design reviews, customer conversations, investor diligence, vendor discussions, and mission planning as needed.
Desired Qualifications
  • Direct experience with spacecraft rendezvous, proximity operations, or autonomous capture.
  • Experience leading guidance, navigation, and control, autonomy, controls, simulation, flight software, or mission design teams.
  • Experience managing engineers in a startup, aerospace company, defense contractor, launch company, robotics company, or other high-reliability technical environment.
  • Experience setting technical direction, conducting design reviews, making architecture decisions, and holding teams accountable to execution milestones.
  • Experience with advanced flight regimes such as atmospheric reentry, entry/descent guidance, hypersonic flight, aerodynamics, or aerothermal constraints.
  • Experience defining trajectories for proximity operations, inspection, servicing, stationkeeping, or other constrained autonomous spaceflight operations.
  • Experience with optical navigation, LiDAR navigation, radar navigation, or multi-sensor relative navigation against cooperative or non-cooperative targets.
  • Experience integrating radar into an autonomy or guidance, navigation, and control sensing chain, including measurement modeling, tracking, calibration, filtering, and failure modes.
  • Experience with artificial intelligence for guidance, navigation, and control, artificial-intelligence-assisted autonomy, learned perception, learned dynamics models, reinforcement learning for control, artificial-intelligence-based sensor processing, onboard autonomy, or artificial-intelligence-enabled fault detection.
  • Experience selecting, purchasing, integrating, and testing guidance, navigation, and control hardware, including sensors, actuators, processors, cameras, LiDAR, radar, IMUs, GNSS, star trackers, reaction wheels, or propulsion components.
  • Experience working with vendors, evaluating datasheets, performing make-buy decisions, navigating supply chain issues, and qualifying hardware for flight or other high-reliability environments.
  • Experience designing test infrastructure for internally developed hardware, including calibration rigs, dynamics testbeds, flat-sats, air-bearing tables, sensor test setups, hardware-in-the-loop and processor-in-the-loop rigs, and integrated avionics test campaigns.
  • Experience with formal requirements, verification and validation, flight qualification, mission assurance, fault trees, hazard analysis, or safety-critical software.
  • Experience with STK, GMAT, Basilisk, Trick, Monte, FreeFlyer, custom mission analysis tools, or comparable simulation and trajectory design environments.
  • Experience transitioning guidance, navigation, and control from prototype through flight operations, anomaly response, post-flight reconstruction, and design iteration.
  • Experience in early-stage startups, small high-performing teams, or environments where engineers must own broad technical scope.
  • Experience recruiting, interviewing, closing, and onboarding exceptional technical talent.

Pillar Space Systems provides autonomous reusable satellites that stay in orbit to serve as rentable orbital infrastructure for customer experiments and manufacturing. A Pillar satellite offers power, data, thermal management, mobility, and mission operations for hosted payloads. Customers attach their payload with a standard adapter, launch it, and Pillar’s satellite autonomously rendezvous and dock to supply the needed spacecraft services, enabling microgravity work without a dedicated spacecraft. The goal is to make microgravity access scalable by offering a shared robotic orbital platform for multiple customers, targeting pharma, biotech, semiconductors, advanced materials, and on-orbit compute.

Company Size

N/A

Company Stage

N/A

Total Funding

N/A

Headquarters

Los Angeles, California

Founded

2026

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Simplify Jobs

Simplify's Take

What believers are saying

  • Careers page and booking flow signal active recruiting and early customer pipeline building.
  • Website now offers early adopter payload accommodation reviews, reducing integration friction for prospects.
  • Pillar is targeting microgravity manufacturing demand from biotech, semiconductors, and on-orbit compute.

What critics are saying

  • No customer payloads or in-orbit revenue are public, so commercialization remains unproven.
  • Five open technical roles in Los Angeles show heavy execution risk before 2028 launch.
  • Autonomous docking failures would wreck satellites, delay missions, and kill the reusable infrastructure thesis.

What makes Pillar Space unique

  • Only commercial team to dock and undock spacecraft in orbit, per company claims.
  • Reusable satellites bundle power, data, thermal, mobility, and mission operations in one platform.
  • First mission window targets 2028, signaling a complex but focused orbital infrastructure build.

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Benefits

Health Insurance

Dental Insurance

Vision Insurance

401(k) Company Match

Company Equity

Unlimited Paid Time Off

Paid Sick Leave