• Architecting the automated test orchestration infrastructure and hardware connectivity frameworks to streamline firmware deployment and execution on custom silicon systems.

• 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.

• Designed and implemented a scalable test automation framework infrastructure reusable across computing platforms for firmware validation using Python, Robot Framework, JSON, and Azure DevOps pipelines.

• 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

• Spearheaded the technical direction for a scalable automation framework in Python that procedurally generates autonomous vehicle scenarios for virtual mass simulation of 100k+ jobs.

• 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.

Developed systems software in C++ and Python on ROS for multiple robots used across different industries, including medical, marine, and space.

Autonomous Racing Motorcycle Robot:

• 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.

Autonomous Factory Robots:

• 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.

Mining Robot:

• 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.

VR Robot Teleoperation:

• 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.

Medical Device:

• 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.

• Developed systems software in C++ on ROS for commercial-grade drones used in the mining industry.

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