
Worked on the mcgill-robotics/auv-embedded-2025 repository, delivering embedded software features and stability improvements for an autonomous underwater vehicle over five months. Focused on C and C++ development for microcontrollers, the work included integrating power management modules, refactoring thruster and power board control logic, and enhancing real-time communication using ROS and Micro-ROS. Addressed build reliability by introducing environment-specific include guards and improved navigation by implementing DVL serial passthrough. System safety and responsiveness were increased by reducing kill-process latency and optimizing agent connection handling. The approach emphasized maintainability, modular code organization, and robust handling of hardware dependencies across diverse environments.
Monthly performance summary for 2026-03, repo mcgill-robotics/auv-embedded-2025. Primary deliverable: System Kill Process Latency Reduction and Agent Connection Responsiveness. Implemented by optimizing command timing and enhancing agent connection handling, resulting in lower kill latency and more responsive communications. Commit included: cd17d87e43dea886ac8e98b0280ff88a919bb047 - "decrease killing latency".
Monthly performance summary for 2026-03, repo mcgill-robotics/auv-embedded-2025. Primary deliverable: System Kill Process Latency Reduction and Agent Connection Responsiveness. Implemented by optimizing command timing and enhancing agent connection handling, resulting in lower kill latency and more responsive communications. Commit included: cd17d87e43dea886ac8e98b0280ff88a919bb047 - "decrease killing latency".
For 2025-08, the team delivered critical navigation and stability improvements to the AUV embedded stack, focusing on real-time DVL data integration, ROS-friendly power board data handling, and maintainable test infrastructure. These changes enhance on-field navigation capabilities, reduce integration risks, and streamline future onboarding and testing.
For 2025-08, the team delivered critical navigation and stability improvements to the AUV embedded stack, focusing on real-time DVL data integration, ROS-friendly power board data handling, and maintainable test infrastructure. These changes enhance on-field navigation capabilities, reduce integration risks, and streamline future onboarding and testing.
June 2025 monthly summary for mcgill-robotics/auv-embedded-2025: Focused on improving build reliability and cross-environment compatibility for the Display subsystem by introducing include guards and environment guards to prevent compilation when DISPLAY_H is not defined.
June 2025 monthly summary for mcgill-robotics/auv-embedded-2025: Focused on improving build reliability and cross-environment compatibility for the Display subsystem by introducing include guards and environment guards to prevent compilation when DISPLAY_H is not defined.
Month: 2024-12 — Delivered stability improvements and feature enhancements for the mcgill-robotics/auv-embedded-2025 stack. Focused on real-time communication reliability, dependency risk reduction, and sensor robustness to increase autonomous operation uptime.
Month: 2024-12 — Delivered stability improvements and feature enhancements for the mcgill-robotics/auv-embedded-2025 stack. Focused on real-time communication reliability, dependency risk reduction, and sensor robustness to increase autonomous operation uptime.
November 2024 focused on delivering a robust power management and thruster control enhancement for the autonomous underwater vehicle project, with a clear emphasis on reliability, maintainability, and readiness for future features in the mcgill-robotics/auv-embedded-2025 repository.
November 2024 focused on delivering a robust power management and thruster control enhancement for the autonomous underwater vehicle project, with a clear emphasis on reliability, maintainability, and readiness for future features in the mcgill-robotics/auv-embedded-2025 repository.

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