Developing the mission-critical testing infrastructure that certifies production readiness for the global AI systems powering Microsoft Copilot.

Driving cross-functional partnerships to streamline hardware-software integration and accelerate deployment cycles across Cloud + AI.

Automated technical support for global testing infrastructure by deploying a Copilot Studio agent, supporting 200+ partners with real-time troubleshooting.

Led scrum meetings, cross-team technical workshops, and mentoring sessions for best coding practices.

Resolved a pipeline email automation issue that was blocked for 3-months within 1-week and was given a company Super Star Award recognizing the hard work and contribution.

Vendor position through UST Global

Slashed the test case creation time by 30% through automation-focused process design, saving 11 months of effort per quarter and eliminating the former need for an exponential team expansion.

Mentored junior team members and conducted code reviews, significantly elevating the team’s code quality.

Partnered with Yamaha to develop systems software in C++ and Python on ROS for an autonomous racing motorcycle robot, featured at the Tokyo Motor Show, on Discovery Channel, and YouTube with 5.3M+ views.

Interfaced with actuators, sensors (GPS, IMU), and CAN bus. Conducted HIL simulation testing. Implemented path and balance algorithms in close collaboration with controls researchers.

Reignited project momentum by advocating for and promptly implementing a state estimator that significantly enhanced localization accuracy at high speed, culminating in the groundbreaking achievement of driving 200kph and becoming of the world’s fastest autonomous ground vehicle.

Architected software from the ground up in C++ and Python on ROS with one other teammate for 5 reconfigurable autonomous factory robots designed to supplant static conveyor belt lines.

Engineered a scheduler for task orchestration of the robot fleet and waypoint-based path follower.

Shattered perceivedly unattainable project deadlines, by asserting the need for a comprehensive project plan, formulating it, and ensuring close adherence.

Created robot teleoperation UI and tools using Qt and RViz for a mining robot to deliver and deploy explosives in hazardous environments. Displayed critical sensor data such as LiDAR and IMU.

Designed immersive virtual reality robot teleoperation control rooms in C++ and Unreal Engine, facilitating operator training and real-time robot control for the medical, marine, and space industries.

Eliminated major sources of human error via precise synchronization of code and documentation by building a robust C++ code-generative UML state-machine model for FDA verification.

Refactored camera system module for reusability across multiple hardware configurations. Modified testing infrastructure to run verification within a Docker module.