Top Robotics Engineer Jobs

Design, implement, and verify robotic control algorithms for a catheter-based surgical platform. Develop kinematic/dynamic models, motion planning, state estimation, and safety-aware control. Characterize hardware, run verification and validation, support regulatory submissions, mentor engineers, and drive architecture across hardware programs from prototype to product.

Design, implement, and deploy autonomous navigation, planning, and decision-making systems for eVTOL aerial platforms. Build real-time autonomy software for constrained embedded/Linux environments, integrate with flight controllers and sensors, run simulation (SITL/HITL) and flight tests, and collaborate across perception, GNC, flight software, and hardware teams.

The Robotics Control Engineer will develop robotic control systems, engage in software development, and coordinate automation projects, working with various communication protocols and hardware.

Operate, maintain, and validate advanced robotics platforms (humanoid, wheeled manipulators, quadrupeds). Execute manual and automated tests, perform hardware/software integration, run end-to-end functional and regression tests, analyze telemetry and diagnostics, validate perception systems, track testing metrics, and collaborate with developers to identify and resolve system anomalies.

Seeking a Perception ML Engineer to develop and deploy advanced perception models for robotics, focusing on manipulation and navigation in dynamic environments.

The Planning & Controls Engineer will develop and deploy planning and control systems for robotics in outdoor environments, working on trajectory generation and real-time control techniques.

Lead the design, development, and testing of advanced robotic systems, focusing on control algorithms, electronic circuits, and integration for defense applications.

Develop software for motion control and safety management of robotic systems. Collaborate with teams, contribute to the software lifecycle, and lead prototype integration.

The Robotics Controls Engineer will develop advanced motion control systems for robotics, integrating software and hardware across multiple disciplines while implementing effective control algorithms and ensuring safety and efficiency.

Design, build, integrate, and test software and hardware for unmanned maritime robots. Develop autonomy, guidance, navigation, SLAM, and tracking algorithms; integrate sensors, controllers, and communications; build diagnostics, logging, and analysis tools; support lab and field testing and collaborate on system architecture.

Lead end-to-end robot hardware development: design, prototype, manufacture, deploy, and support robots. Mentor engineers, collaborate cross-functionally, iterate rapidly, and own system-level tradeoffs.

The Lead Software Engineer will architect the test infrastructure for robotics, integrating various teams, and ensuring continuous testing through automated frameworks and CI/CD pipelines.

Lead the architecture and development of core robotics platform software, ensuring reliability and performance in Linux-based systems while mentoring other engineers.

Lead regional automation efforts for 24/7 lab operations: maintain, troubleshoot, and optimize automated equipment; program industrial robots; manage PLC/HMI/SCADA integrations and vision systems; drive continuous improvement, document system revisions, and train regional teams while collaborating with the Enterprise Automation team on design, installation, and commissioning.

As a Site Reliability Engineer, you'll ensure robotics system reliability, build telemetry integration, and develop tools for diagnostics and automation, collaborating with engineering teams for enhanced production reliability.

Develop, plan, and execute test campaigns for motion-control hardware across the product lifecycle. Design and build test fixtures and EGSE, configure DAQ and instrumentation, implement test automation (Python/LabVIEW), run environmental and performance tests (vibration, shock, thermal, TVAC), analyze data, document results, and coordinate with cross-functional teams to ensure hardware meets requirements for lunar and spaceflight programs.

Lead Wilder's robotics software technical strategy and architecture, make long-horizon architecture decisions, mentor senior engineers, remain hands-on for hard prototypes and fielded problems, and align engineering direction with company goals.

Build production-quality motion-planning and manipulation systems converting CAD/process paths into collision-free, constrained Cartesian robot trajectories. Account for kinematics, inverse kinematics continuity, collision avoidance, external axes, calibration, sensor feedback, trajectory generation, and industrial robot integration. Debug on physical robots, create simulation/verification and logging infrastructure, and work with cross-functional teams to deploy and maintain reliable manufacturing automation.

Own and evolve the robotics platform layer across drone and MHE products: ROS2/Zenoh communications, Docker-based deployments, diagnostics and observability tooling, deployment processes, and a roadmap to converge platforms while supporting multiple autonomy pods.

Lead verification & validation and software quality for autonomous lab robotics. Build Python test automation (unit, API, UI), hardware-in-the-loop and simulation-based tests, integrate suites into CI/CD, define V&V/test plans mapping requirements to coverage, diagnose nondeterminism/flakiness, and manage reproducible test data and fixtures across software-hardware boundaries.

Lead and execute perception R&D and engineering for factory robots: define multi-year roadmap, architect perception pipelines (detection, segmentation, 6-DoF pose, scene understanding), drive sensor fusion and calibration, establish data/model workflows and deployment practices, integrate with planning/control, hire and mentor engineers, and evaluate research for production adoption.

Design and build backend and data systems for autonomous labs: scheduling (Temporal workflows), digital-twin modeling, data pipelines (Flyte), S3 lakehouse and PostgreSQL modeling, capacity planning services, and operate services on AWS EKS with Docker, Terraform, and CI/CD for scale and reliability.

Lead UX research and human-factors design for autonomous lab and robotics software. Conduct contextual inquiry, task analysis, and usability testing; design high-density operational and SCADA-style displays; prototype in Figma; define human-in-the-loop workflows; translate research into engineering-ready specs and design-system contributions; champion accessibility and operator trust in AI-driven automation.

Lead developer and partner adoption of NVIDIA Cosmos 3 and related world foundation models across robotics. Advise engineering teams, drive ecosystem engagement, support product launches, accelerate partner workloads, and provide product feedback to inform roadmap and research priorities.

Design, build, and productionize motion planning software for mobile manipulators and AMRs; deploy, benchmark, and validate planners across fleet compute platforms; create simulation CI to catch regressions; debug and tune on real hardware at customer sites; collaborate with perception, hardware, firmware, and deployment teams; write production-grade Python and C++ software meeting strict reliability, latency, and safety requirements.