Smiling young man in graduation gown and stole standing outdoors near an arched gateway with trees in the background.

Jonathan Goenadibrata

I’m Jonathan, a robotics engineer and problem-solver who loves creating practical solutions that make everyday life easier. I get excited about building robots from scratch, designing automation that saves time, and finding ways to make technology more approachable or everyone. Curiosity keeps me learning, efficiency keeps me focused, and I’m always down to learn more, especially from the people I meet along the way.

Timeline

  • Photo of a building with a tower, framed by trees, with the word 'Cal' written in yellow above the building.

    UC Berkeley

    Aug’24 - May’25

    Masters of Engineering in Mechanical Engineering

  • Apple Park, Apple's corporate headquarters, with a large white Apple logo superimposed in the center, during sunset or sunrise.

    Apple Inc.

    Aug’21 - Jun’24

    Robotics Test Engineer in Product Safety Automation

  • A modern multi-level building with glass windows, elevated on large concrete supports, surrounded by shrubs and a dirt pathway, with a large yellow abstract shape overlayed.

    UC San Diego

    Sep’18 - Jun’21

    B.S. in Mechancal Engineering Controls & Robotics

Meet My Robots

  • Autonomous SAR Rover for real-time mapping and victim detection

    Yahboom RDK X3

  • A desktop CNC machine with a control panel, equipped with a black motorized body, and a working bed for material placement.

    Robotic Process Automation for wireless charging safety testing

    Hyulim DTR-MU

  • A robotic device under construction with wires, circuit boards, and metal framework on a worktable.

    low-cost In-house built 9-DOF robot for dexterous manipulation

    TriFinger Robotics

Search & Rescue Robot

uc berkeley masters of engineering capstone project

A small robot with a metallic frame, wheels, and electronic components on a wooden floor, with beverage cans and boxes in the background.

Combining perception, exploration, and navigation, my team from the UC Berkeley Master of Engineering program developed an automated exploration project as a proof of concept for search and rescue operations in natural disasters utilizing the Yahboom RDK X3 Robot.

As the engineering project manager, I oversaw project planning, delegated tasks, and ensured milestones were met on schedule, while also establishing a robust code sharing and version control workflow using GitHub.

On the technical side, I led the system design, leveraging ROS2 as the communication infrastructure between sensors, programs, and actuators. By integrating Nav2, SLAM, and OpenCV, our robot was able to autonomously navigate unknown terrain, generate maps of the environment, detect markers, and deliver first-response support.

Foreign Object Detection

apple inc. - product safety automation

Diagram showing a smartphone, a foreign object, and a transmitter in a medical or scanning device setup.

At Apple Inc., I developed a Robotic Process Automation (RPA) system to automate Foreign Object Detection (FOD) testing for wireless charging devices, ensuring compliance with IEC 62368-1:2018 certification standards. Our goal was to replace long manual test cycles with a faster, more reliable process.

I programmed a Hyulim DTR-M robot in Python to place receivers (Rx) on transmitters (Tx) with metallic objects in between, while capturing real-time temperature data from devices and thermocouples. The RPA collected, processed, and visualized data in Tableau, enabling engineers to quickly interpret results. This automation reduced testing time by over 90%, cutting the process from nearly two months to one week.

In addition, I designed custom fixtures in Siemens NX to streamline device alignment and setup, reducing setup time by ~97% (1.5 hours to 2 minutes) while improving consistency and repeatability across tests.

TriFinger Robotics

uc san diego bachelor of science capstone project

A 3D model of a robotic arm with multiple joints and a complex mechanical structure, mounted on a framework with four vertical supports.

Our team of four designed and built the TriFinger, a three-finger robotic manipulator inspired by the Open Dynamic Robot Initiative. The goal was to create a low-cost, accessible platform for grasping and manipulation tasks that could be easily manufactured and reproduced for research and education.

I served as the software lead, developing an in-house inverse kinematics solver and motor control algorithms in Arduino C on the Arduino Mega 2560. The system achieved a resolution of 0.2° per step, enabling precise 9-DoF movements. I also created a GUI for serial communication, allowing users to issue commands and monitor the robot in real time.

To reduce costs, our team designed every component in-house and fabricated parts with SolidWorks CAD and 3D printing. These design choices lowered the build cost from $5,000 to $1,800—a 64% reduction—while still delivering a precise, reliable, and fully functional robotic platform for students and researchers.

Contact Me!

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