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Apptronik — Austin, Texas
Apptronik is a human-centered robotics company developing AI-powered robots to support humanity in every facet of life. Our flagship humanoid robot, Apollo, is built to collaborate thoughtfully with people, starting with critical industries such as manufacturing and logistics, with future applications in healthcare, the home, and beyond. We operate at the cutting edge of embodied AI, applying our expertise across the full robotics stack to solve some of society's most important problems.
You will join a team dedicated to bringing Apollo to market at scale, tackling the complex challenges like safety, commercialization, and mass production to change the world for the better.
Requirements
, and performance of Apollo’s perception suite. In this role, you are the technical connective tissue between the Autonomy software team and the Hardware engineering teams.
(latency budgets, field-of-view mapping, resolution, and compute allocation). As a Staff-level leader, you will drive complex trade studies, define Interface Control Documents (ICDs), establish the Verification and Validation (V&V) strategy, and ensure the perception system meets the stringent functional safety standards required for a humanoid robot operating alongside humans.
& Interfaces
Flow-Down: Elicit, define, and manage perception system
, Jama, Polarion, or DOORS). Decompose product-level goals into strict hardware and software specifications. Interface Management: Author and maintain Interface Control Documents (ICDs) that define the boundaries between perception sensors, the compute cluster, and the autonomy software stack.
Ensure complete alignment across multi-disciplinary teams. Verification, Validation & Safety V&V Strategy: Architect the master Verification and Validation plan for the perception stack.
in real-world, dynamic environments. Functional Safety (ISO 13849 / IEC 61508): Partner with the Safety team to perform Hazard Analysis and Risk Assessments (HARA) related to perception.
, thermal limits, mechanical packaging, payload capacity). Mentorship: Elevate the systems engineering rigor across the company, mentoring engineers in Model-Based Systems Engineering (MBSE) methodologies and rigorous requirement writing.
Key Responsibilities
Architecture & Trade Studies System Architecture: Define the top-level architecture for the robot's perception system, balancing the needs of Visual-Inertial Odometry (VIO), manipulation, obstacle avoidance, and remote teleoperation. , Stereo Vision vs. LiDAR for close-range manipulation, edge-compute vs.
centralized processing, global vs. rolling shutter). Budget Ownership: Own and manage critical system budgets, including photon-to-action latency, compute utilization (TOPS), memory bandwidth, and spatial Field of View (FOV) coverage.
Qualifications
Perception Domain Expertise: Deep understanding of modern perception modalities (Cameras, LiDAR, Radar, ToF, IMU) and the fundamental physics, error models, and integration challenges of each.