Senior Forward Deployed Software Engineer

Saronic · Defense · Austin, TX · Software

This role focuses on integrating, deploying, and improving autonomous systems for maritime operations. The Senior Forward Deployed Software Engineer will work hands-on with software, networking, and autonomy, debugging and optimizing algorithms, refining system performance, and adapting technology to mission needs. The role involves field testing, analyzing performance data, architecting new autonomy capabilities, and partnering with operators. It requires expertise in robotics, autonomy, software engineering, networking, and sensor integration, with a focus on real-world deployment and resilience.

What you'd actually do

  1. Lead the design, development, and optimization of advanced software systems for autonomy, networking, and mission execution, with a focus on robust performance in dynamic maritime environments
  2. Drive field testing and deployment strategies, overseeing validation of autonomy, perception, and control systems under operational conditions, and proactively identifying systemic issues
  3. Own the analysis of mission-critical performance data, translating operational insights into high-impact software improvements that enhance system behavior, reliability, and responsiveness
  4. Architect and integrate new autonomy capabilities, ensuring compatibility across software, sensors, and vessel hardware, while maintaining a modular and scalable system design
  5. Partner directly with operators, mission planners, and end-users, translating feedback into actionable requirements and guiding the evolution of the autonomy stack to meet mission needs

Skills

Required

  • 5+ years of experience developing autonomy or robotics systems
  • Strong foundation in software engineering
  • Proficient programming skills in C++, Rust, Python, or similar languages
  • Experience building and maintaining performance-critical systems
  • Deep technical background in robotics, autonomy, or embedded systems
  • Strong understanding of networking protocols and distributed systems
  • Extensive hands-on experience with perception sensors such as cameras, radar, GPS, and IMUs
  • Proven ability to debug and resolve complex, cross-disciplinary issues
  • Experience adapting autonomy systems to real-world constraints
  • Willingness and capability to lead field deployments (up to 50%)
  • Expertise in motion planning, control systems, and behavior architectures
  • Familiarity with distributed autonomy and multi-agent coordination

Nice to have

  • Experience within maritime, aerospace, or defense sectors
  • TCP/IP, UDP, DDS, and message-passing frameworks (e.g., ROS, ZeroMQ)
  • Emphasis on integration and real-time sensor fusion
  • Behavior trees and adaptive navigation algorithms
  • Domain knowledge in maritime systems, naval operations, or defense technology
  • Understanding of mission-critical operational needs
  • Decentralized planning and task-sharing in communication-limited settings
  • Leadership in system integration, testing, and operationalization
  • Collaborating across engineering, product, and field teams

What the JD emphasized

  • autonomy
  • autonomous systems
  • real-world environments
  • operational settings
  • mission impact
  • debugging and optimizing autonomy algorithms
  • refining system performance
  • adapting our technology to mission needs
  • troubleshooting networking issues
  • improving sensor integration
  • refining control logic
  • groundbreaking autonomy technology
  • real-world success
  • maritime autonomy
  • systems operate effectively
  • mission success
  • future of autonomous maritime operations
  • robust performance in dynamic maritime environments
  • validation of autonomy, perception, and control systems under operational conditions
  • systemic issues
  • mission-critical performance data
  • operational insights
  • system behavior, reliability, and responsiveness
  • new autonomy capabilities
  • autonomy stack
  • operators, mission planners, and end-users
  • mission needs
  • complex issues spanning software, hardware, and networking layers
  • system resilience
  • autonomy development
  • product and mission goals
  • scaling of autonomy systems in operational fleets
  • autonomy or robotics systems
  • performance-critical systems
  • robotics, autonomy, or embedded systems
  • maritime, aerospace, or defense sectors
  • networking protocols and distributed systems
  • perception sensors
  • integration and real-time sensor fusion
  • cross-disciplinary issues
  • autonomy systems to real-world constraints
  • variable environments
  • limited communications
  • platform-specific limitations
  • lead field deployments
  • testing and refining autonomous systems in operational maritime or expeditionary contexts
  • motion planning, control systems, and behavior architectures
  • adaptive navigation algorithms
  • maritime systems, naval operations, or defense technology
  • mission-critical operational needs
  • distributed autonomy and multi-agent coordination
  • decentralized planning and task-sharing in communication-limited settings
  • system integration, testing, and operationalization
  • robust, deployable systems

Other signals

  • autonomous systems
  • autonomy algorithms
  • control logic
  • autonomy stack
  • autonomy capabilities
  • autonomy systems
  • distributed autonomy
  • multi-agent coordination