Company Description
It started with a simple idea: what if surgery could be less invasive and recovery less painful? Nearly 30 years later, that question still fuels everything we do at **Intuitive**. As a global leader in **robotic-assisted surgery** and **minimally invasive care** , our technologies—like the **da Vinci surgical system** and **Ion** —have transformed how care is delivered for millions of patients worldwide.
We’re a team of engineers, clinicians, and innovators united by one purpose: to make surgery smarter, safer, and more human. Every day, our work helps care teams perform with greater precision and patients recover faster, improving outcomes around the world.
The problems we solve demand creativity, rigor, and collaboration. The work is challenging, but deeply meaningful—because every improvement we make has the potential to change a life.
If you’re ready to contribute to something bigger than yourself and help **transform the future of healthcare** , you’ll find your purpose here.
Job Description
Primary Function of Position
The Endoluminal instrument design group at Intuitive is a dynamic and multidisciplinary team developing tools for the next generation of minimally invasive surgical robotics. We are seeking a Senior Mechanical Engineer with a focus on injection molding technology to conceptualize, develop, and verify new mechanical design concepts for the next generation of minimally invasive robotic flexible instruments. You will leverage your creativity and engineering analysis to the design of kinematics and user interfaces to ensure mechanical robustness from concept through verification and scaled manufacturing. The successful candidate will have both the technical depth to resolve complex mechanical, materials and manufacturing design issues and the ability to work in an interdisciplinary team to troubleshoot to root cause higher level system issues. This requires in-depth collaboration with cross-functional teams that will routinely leverage your technical and interpersonal skills as you develop a shared understanding of the new product requirements.
Essential Job Duties
Mechanical Design
- Own mechanical assemblies for new instruments, focus on injection molding, from concept through commercialization that meet demanding performance, manufacturability, and reliability constraints using knowledge and experience to select the optimal material and process (metal vs. plastic, molded vs. extruded vs. MIM vs. formed, etc.).
- Understand and design to optimize interfaces with mechanic, electronic, optic, and seal elements.
- Rapid development and iteration of proof-of-concept and high-fidelity prototypes of candidate architectures to satisfy requirements.
- Complete detailed drawings and robust tolerance analysis and update designs accordingly.
- Define engineering requirements and ensure candidate designs are backed by robust data prior to design freeze.
- Perform detailed 2D/3D tolerance analysis, FEA/simulation, and statistical modeling to ensure robust design margins.
- Troubleshoot component and prototype performance issues with speed, rigor, and cross-functional collaboration.
- Develop test methods, fixtures, and measurement tools to evaluate the performance of robotic catheters and sub-assemblies.
- Provide written protocols, reports, drawings, specifications, presentations, and perform technical design reviews to solicit feedback on design activities on an ongoing basis.
Manufacturing, DFM/DFA, and Supplier Engagement
- Lead DFM/DFA discussions with cross-functional teams to understand key drivers of product performance, durability, and ease of assembly.
- Partner with suppliers on development and troubleshooting efforts to supply reliable, complex components and assemblies.
- Support transition to manufacturing, ramp-to-production, and lifecycle reliability improvements.
- Investigate and determine root cause of emerging design or manufacturing defects.
Technical Leadership
- Utilize best-in-class mechanical design practices, precision engineering, tolerance- driven design, and robust system integration.
- Interface with clinical and human factor engineering to inform designs and identify user needs.
- Mentor and guide engineers on best practices in design and engineering with a particular focus on designing for injection molding.
- Support intellectual property creation and technical documentation.
