Perception Engineer III
At Zone 5 Technologies, we're redefining what's possible in precision weapons and unmanned aircraft systems (UAS). Our team of engineers and innovators are developing cutting-edge autonomous solutions to deliver affordable and scalable precision weapons, interceptors, and UAS.
We're building the next generation of munitions and unmanned systems for the United States and its allies. If you're driven by hard problems, energized by rapid innovation, and ready to make an impact on defense technology, you belong here.
We are seeking a Senior Robotics Perception Engineer to serve as the perception technical lead embedded within a program team, developing seeker, target state estimation, and world modeling capabilities on top of our common AI/ML platform. You will own perception architecture and delivery for the program while contributing reusable capabilities back to the platform, working across the full pipeline from sensor data to actionable world state consumed by autonomy and mission software.
Responsibilities:
Target State Estimation & Seeker Systems
- Design and develop target detection, tracking, and state estimation pipelines that produce robust track kinematics under challenging observation conditions
- Implement track initiation, maintenance, association, and termination logic with well-characterized uncertainty
- Develop and tune nonlinear state estimators (EKF, UKF, particle filters) for target motion modeling
- Characterize seeker performance across engagement geometries, environmental conditions, and target signatures
- Define confidence and covariance outputs that downstream autonomy can reason about
World State Modeling & Multi-Source Fusion
- Architect the world state representation that fuses self-state, target tracks, terrain, threats, and mission context into a coherent model
- Integrate outputs from VIO/SLAM, sensor fusion, and target tracking into a unified perception picture
- Manage temporal alignment, coordinate frames, and data association across heterogeneous sensor streams
- Define perception-to-autonomy interfaces with clear semantics for state, uncertainty, and freshness
Autonomy Integration & System Architecture
- Own the perception architecture for the program and drive alignment with autonomy, guidance, and mission software teams
- Design DDS topic structures and message contracts for perception outputs within a WOSA-aligned architecture
- Build ROS2 nodes and libraries that expose perception capabilities through clean, versioned interfaces
- Contribute reusable perception components back to the common AI/ML platform for use across programs
- Balance program-specific customization against platform-level standardization
Embedded Performance & Deployment
- Develop and optimize perception code in C++ for deterministic performance on embedded compute
- Profile compute, memory, and I/O to meet real-time constraints on resource-limited platforms
- Make architectural decisions about what runs on GPU, CPU, or dedicated accelerators
- Support integration, hardware-in-the-loop testing, and field validation of perception subsystems
Technical Leadership
- Write technical design documents, RFCs, and trade studies that drive perception architecture decisions
- Mentor junior perception engineers through code review, pairing, and technical direction
- Represent perception in program-level technical reviews and cross-team planning
- Translate program requirements into perception subsystem requirements with measurable acceptance criteria
Qualifications:
- Bachelor's in Robotics, Aerospace Engineering, Computer Science, Electrical Engineering, Applied Mathematics, or related field (Master's preferred) – equivalent industry experience also welcome
- 6-9+ years of experience in robotics perception, state estimation, or sensor fusion
- Strong proficiency in modern C++ for real-time embedded systems, with an emphasis on determinism, memory discipline, and performance
- Hands-on experience with ROS2 and DDS-based middleware in production or program-delivered systems
- Demonstrable experience developing and tuning nonlinear state estimators (EKF, UKF, or particle filters) for real applications