Software Engineer, Mission Autonomy
Mach Industries
- Location
- Huntington Beach, CA
- Employment
- Full Time
- Work model
- On-Site
- Level
- Mid
- Posted
- 1h ago
Skills
About this role
About Mach Industries Founded in 2022, Mach Industries is a rapidly growing defense technology company focused on developing next-generation autonomous defense platforms . At the core of our mission is the commitment to delivering scalable, decentralized defense systems that enhance the strategic capabilities of the United States and its allies. With a workforce of approximately 350 employees , we operate with startup agility and ambition. Our vision is to redefine the future of warfare through cutting-edge manufacturing, innovation at speed, and unwavering focus on national security. We are dedicated to solving the next generation of warfare with lethal systems that deter kinetic conflict and protect global security.
The Role
Mach Industries is seeking a Software Engineer, Mission Autonomy to develop the software that translates mission objectives and operator goals into reliable autonomous behavior. You will design and implement mission-planning, decision-making, task-execution, and contingency-management capabilities for Mach’s autonomous aerial platforms. Your work will connect high-level mission intent with vehicle autonomy, flight software, perception, communications, payloads, and ground-control systems. This is a broad software-engineering role for someone comfortable working across system boundaries. You should be able to write production-quality C++ and Python, reason about complex autonomous behavior, debug integrated software and vehicle systems, and take capabilities from initial concept through simulation, flight test, and operational deployment.
Key Responsibilities
Design, implement, test, and deploy mission-autonomy software using modern C++ Use Python to develop tooling for analysis, simulation, test automation, and mission evaluation. Develop software for mission planning, task sequencing, behavior orchestration, state management, and autonomous mission execution. Build decision-making and contingency-management systems that respond appropriately to vehicle health, sensor availability, communications loss, environmental changes, and mission updates. Translate concepts of operation, mission objectives, system requirements, and test objectives into well-defined autonomous behaviors and software interfaces. Integrate mission software with flight controls, navigation, perception, payloads, communications, ground-control systems, and operator interfaces. Design clear and reliable interfaces between high-level mission logic and lower-level vehicle capabilities. Develop systems that continue operating effectively when communications, GNSS, sensing, or other resources are degraded or unavailable. Support multi-vehicle mission execution, distributed coordination, and collaborative behaviors where applicable. Build simulation scenarios, software-in-the-loop tests, hardware-in-the-loop tests, mission replays, and automated regression tests. Define mission-level measures of performance and develop evaluation tooling for mission completion, timing, robustness, fault recovery, resource utilization, and operator workload. Analyze telemetry, logs, test results, and flight data to identify failures, improve behavior, and drive rapid iteration. Work closely with flight software, GNC, perception, systems engineering, ground-control, flight-test, and hardware teams to deliver complete vehicle capabilities. Participate in ground and flight testing, including debugging integrated systems in field environments. Contribute to software architecture, code reviews, development practices, technical documentation, and continuous integration.
Required Qualifications
Strong software-engineering skills in modern C++ and Python. Experience developing production software on Linux. Experience developing software for autonomous systems, robotics, or aerospace platforms. Hands-on experience implementing one or more mission-autonomy capabilities, such as task planning, behavior trees, state machines, hierarchical planning, decision-making,