· Lead and develop a multidisciplinary systems engineering team responsible for the definition of system architecture, decomposition of system functionality, and development of clear, testable system‑level and subsystem requirements for a complex surgical robotic platform.
· Own the end‑to‑end requirements lifecycle, ensuring seamless flow‑down and traceability from clinical user needs, surgeon workflows, and business objectives through system, subsystem, hardware, and software requirements, and ultimately through verification and validation.
· Drive close collaboration across hardware, software, controls, mechanical, clinical, and V&V teams to ensure system requirements are technically sound, fully testable, and aligned with real‑world clinical use cases and robotic performance needs.
· Lead system architecture development for robotic systems, ensuring tight integration of electromechanical hardware, embedded and application software, control algorithms, sensing, actuation, and user interaction within a safety‑critical medical device environment.
· Lead system‑level risk management activities in accordance with ISO 14971, including hazard analysis, risk control definition, risk verification, and residual risk assessment, with particular focus on robotic behaviors, software contributions to risk, and clinical use scenarios.
· Own and lead software subsystem requirements, including definition of user stories, system behaviors, operational concepts, and detailed clinical and technical use cases that align software functionality with robotic system performance and user workflows.
· Accountable for execution of all design control activities, ensuring compliance with internal procedures and external regulatory requirements throughout the product lifecycle, from concept through commercialization.
· Chair and lead system‑level design reviews, architecture reviews, and risk mitigation reviews, driving cross‑functional alignment, resolving technical trade‑offs, and ensuring readiness for regulatory submission and product release.
· Drive the integration of design‑for‑reliability practices, such as robust design and Design of Experiments (DoE), across system and subsystem development.
· Partner with Human Factors (HF) Engineering and Clinical Engineering to ensure the system meets usability requirements and that all identified use‑related risks are effectively mitigated through appropriate risk control measures.
· Lead standards and regulatory compliance efforts, owning the standards requirements flow‑down and ensuring alignment with FDA 21 CFR Part 820, ISO 13485, IEC 60601, IEC 62304, ISO 14971, and other applicable standards.
· Collaborate with reliability and test engineering teams to ensure the robotic system meets defined reliability, durability, and service life requirements, including support for accelerated life testing and system‑level reliability analysis.
· Support design transfer and product launch activities, including manufacturing readiness, service considerations, and post‑market surveillance activities such as complaints investigation and field issue analysis.
· Utilize Model‑Based Systems Engineering (MBSE) and UML practices to define, analyze, and manage system architecture, requirements, interfaces, and behavior.
· Investigate and document nonconformances, deviations, and test failures, leading root cause analysis, defining corrective and preventive actions, and ensuring proper documentation and closure.
· Interface with regulatory affairs, quality, manufacturing, and clinical teams to support internal and external audits, inspections, and regulatory submissions.
· Communicate system‑level risks, roadblocks, and opportunities to senior management, translating technical and clinical insights into clear business impact and actionable recommendations.
· Identify critical paths during product development, address bottlenecks and risks and facilitate problem solving across R&D teams.
· Support project resource and schedule planning.