Design and develop mechanical and electromechanical components for robotic systems, with a strong focus on gripper and end-effector design (rigid, soft, vacuum, and/or pneumatic grippers) for complex scenarios of deformable materials.
Plan and execute accelerated life and durability tests to validate design hypotheses under representative and worst-case operating conditions.
Design structured test experiments (DOE-style thinking) to isolate failure modes, validate assumptions, and generate actionable engineering data.
Build and test physical prototypes using in-house manufacturing methods, including 3D printing (FDM/SLA), silicone molding/casting, and machining.
Select appropriate manufacturing processes and materials based on functional requirements, cost, and production volume.
Collaborate with electrical, controls, and robotics engineers to integrate mechanical designs with actuators, sensors, and Fanuc (or similar) robot arms.
Create standards-compliant engineering drawings (GD&T, tolerancing, weld/assembly callouts) and own CAD models, BOMs, and version control across our Engineering Repositories.
Bachelor's or Master's degree in Mechanical Engineering, Mechatronics, or a related field.
Demonstrated experience designing grippers or robotic end-effectors.
Solid understanding of electromechanical systems — actuators, sensors, motors, pneumatics, and their mechanical integration.
Ability to independently design experiments to test and validate engineering hypotheses (structured, data-driven approach).
Hands-on experience with multiple manufacturing technologies: 3D printing, silicone molding/casting, sheet metal, machining, etc.
Strong proficiency with 3D CAD software , PLM system and Engineering revision control (Autodesk Inventor , Fusion and Vault).
Strong command of engineering drawing standards (GD&T, ISO/ASME tolerancing) and best practices for technical documentation.
Comfortable working in a fast-moving, iterative product development environment with frequent prototyping cycles.