Mechanical Engineer - Tooling Systems (EOAT) Design | Apprentice at Origin

Bengaluru, karnataka, India -

Full Time

Start Date

Immediate

Expiry Date

15 May, 26

Salary

0.0

Posted On

14 Feb, 26

Experience

0 year(s) or above

Remote Job

Yes

Telecommute

Yes

Sponsor Visa

Skills

Mechanical Design, Tooling Systems, EOAT Design, Electromechanical Interface Design, Systems Engineering, Verification and Validation, DFMEA, Risk Analysis, Rapid Prototyping, 3D Printing, Laser Cutting, CAD, SolidWorks, GD&T, Mechanism Design, Mechatronics

Industry

Robotics Engineering

Description

As a Mechanical Engineer – Tooling Systems (EOAT) Design Apprentice at Origin (formerly 10xConstruction), you will design the “hands” and “tools” of our robots. You will be responsible for building a complete, modular tooling ecosystem—not just the End-of-Arm Tooling (EOAT), but also auxiliary hardware systems (pumps, vacuums, material hoppers, etc.) that dock with the robot to enable general-purpose construction tasks. This is a high-ownership apprenticeship role where you will work hands-on in the lab and contribute directly to building real robotic tooling systems from scratch. Key Responsibilities Tooling System Design Lead mechanical design and adaptation (“hacking”) of off-the-shelf power tools (drywall sanders, spray guns, etc.) for robotic use. Architect mechanical integration of auxiliary systems (pumps, vacuums, material hoppers, etc.) that dock with the mobile base. Design custom mounts, actuators, mechanisms, and fixtures to unlock tool functionality. Electromechanical Interface Design Design modular physical electromechanical interfaces for EOAT and auxiliary systems ensuring robust, repeatable connections. Design tool docking stations and manage manipulator cable/conduit routing. User-Centric Design Own the physical UX of the tooling ecosystem so operators can easily service, exchange, and manage tools and modules. Systems Engineering & Verification & Validation (V&V) Translate tool functional requirements into verifiable engineering requirements for payload, precision, reliability, and scalability. Develop and execute V&V protocols for tooling systems. Conduct DFMEA and risk analysis for tool attachments and interface designs. Prototyping & Fabrication Lead rapid prototyping of tool attachments, docking systems, and interfaces in the hardware lab. Use 3D printing, laser cutting, and power tools to build and test concepts quickly. Collaboration Work closely with the Embedded Tooling team to integrate electronics, sensors, and mechanical systems. Collaborate with the MoMa team to ensure tooling compatibility with the manipulator and mobile base. Preferred Qualifications Design portfolio showcasing relevant projects. Experience/exposure to robotics, mechatronics, or the power tool industry. Hiring Note This is an Apprentice position. We are looking for Immediate Joiners (or candidates with minimal notice period). Graduates only. Relevant work experience: >6 months. Bachelor’s or Master’s degree in Mechanical Engineering, Mechatronics, or related field. Strong proficiency in CAD tools (SolidWorks, etc.) and GD&T. Strong mechanism design fundamentals and mechatronics exposure. A “tinkerer” mind-set with passion for taking things apart and building new solutions. Exposure to integrating electronics into mechanical assemblies. Experience/exposure designing modular systems and docking mechanisms. Hands-on fabrication and prototyping skills. Familiarity with manufacturing processes and material selection. Strong communication, interpersonal, and problem-solving skills. Why Join Origin? Work in a fast-paced robotics start-up building real-world construction automation. Own end-to-end tooling development: design → build → test. Learn directly in a hands-on lab environment with high-impact work. Contribute to robotics systems that can transform the construction industry.

Responsibilities

The apprentice will lead the mechanical design and adaptation of off-the-shelf power tools for robotic use, while also architecting the mechanical integration of auxiliary hardware systems that dock with the robot. Key tasks include designing modular electromechanical interfaces, tool docking stations, and owning the physical user experience of the tooling ecosystem.