Principal State Estimation Engineer

Echodyne offers the world’s first compact solid-state true beam-steering radar for a wide range of industries and applications. Our high-performance radars work in all weather and are designed for autonomous vehicles, uncrewed aircraft & drones, and security of borders, critical infrastructure, and smart cities. The company combines the patented technology of metamaterials with powerful software to create a radar sensor with unprecedented performance at commercial price points. Echodyne offers its radars to companies working in Automotive, Transportation, Critical Infrastructure Protection, Border Security, Smart Cities, Uncrewed Aircraft Systems (UAS), and Airspace Management including Urban Air Mobility (UTM).

In this role, you’ll lead development of pose-estimation capabilities for Echodyne radars operating in GPS-denied environments. You’ll architect and develop new on-radar systems that use radar and inertial sensor data to estimate the global position and motion of radars without reliance on external navigation systems. 

You’ll make key algorithm and system-level tradeoffs and own efforts from early prototyping through production deployment. You’ll also provide technical leadership on related state-estimation and sensor-fusion problems, such as target tracking. 

Your work will have an immediate real-world impact on our established and rapidly growing fleet of fielded radars, helping make them more robust and effective at protecting the infrastructure and people that rely on them in an evolving world. 

• →Lead development of methods for estimating radar position, velocity, orientation, angular rate, and height above ground in GPS-denied environments using radar and IMU data, terrain maps, and other on-radar sensors and data. 
• →Apply techniques from robotics and autonomy, including SLAM, odometry, inertial navigation, localization, factor graphs, probabilistic state estimation, and machine learning – within the constraints of an embedded real-time system. 
• →Take these algorithms from research and prototyping through production implementation. 
• →Drive system-level impacts and coordinate with other teams on deployment. 
• →Work with radar, signal processing, embedded software, systems, and test teams to integrate capabilities into products. 
• →Analyze field data to characterize performance and identify failure modes to produce robust, production-grade solutions. 

• Demonstrated ability to independently lead an open-ended technical problem. 
• Experience developing state-estimation, localization, navigation, perception, or machine learning solutions for robotics, VR/AR headsets, autonomous vehicles, drones, aerospace, or similar platforms from prototype through production deployment. 
• Experience working with real-world spatial sensor data (e.g. camera, lidar, radar, ultrasound, sonar). 
• Experience with SLAM, Kalman filtering, Bayesian estimation, and factor graphs. 
• Deep understanding of state-estimation theory, 3D geometry, coordinate transformations, rotations, and kinematics. 
• Strong foundations in linear algebra, probability, statistics, and optimization. 
• Strong software development skills in C++ and either Python or MATLAB. 
• Strong verbal and written communication skills. 

• Experience with visual, lidar, or radar odometry; map- or terrain-relative localization, Maximum Likelihood Estimation. 
• Experience with open-source C++ optimization libraries (GTSAM, Ceres). 
• Software development processes and best practices. 
• Real-time or embedded algorithm development. 
• Understanding of traditional navigation sensors (IMUs, accelerometers, gyroscopes, magnetometers, GPS, etc.). 
• Familiarity with alternative navigation sensors (camera, RF ranging, celestial, etc.). 

• MS with 7+ years or PhD with 5+ years of relevant experience in robotics, VR/AR headsets, aerospace, electrical engineering, computer science, applied mathematics, or a related field. 
• Demonstrated technical leadership on complex, production-grade algorithm development efforts. 
• Ability to handle export-controlled (ITAR, EAR) data.