
Over a three-month period, contributed to the mcgill-robotics/rover-embedded-2025 repository by developing core embedded features in C and C++. Built an interrupt-driven UART communication framework with message protocol support, enabling reliable, low-latency serial messaging across multiple interfaces for scalable rover telemetry and command channels. Integrated TinyGPS and TinyGPS++ libraries to provide real-time GPS data parsing, location tracking, and distance calculations, enhancing navigation and telemetry capabilities. Leveraged CMake for build management and focused on clean integration, resolving conflicts and improving maintainability. The work established robust foundations for future geofencing, path planning, and analytics in embedded rover systems.
March 2026 - Delivered GPS Data Retrieval Enhancement by integrating TinyGPS into mcgill-robotics/rover-embedded-2025, enabling reliable location, speed, and altitude data for GPS-enabled devices. This strengthens navigation, tracking, and telemetry capabilities, supporting improved mission planning, asset monitoring, and analytics. The integration provides a solid foundation for GPS-based features while maintaining a lightweight footprint.
March 2026 - Delivered GPS Data Retrieval Enhancement by integrating TinyGPS into mcgill-robotics/rover-embedded-2025, enabling reliable location, speed, and altitude data for GPS-enabled devices. This strengthens navigation, tracking, and telemetry capabilities, supporting improved mission planning, asset monitoring, and analytics. The integration provides a solid foundation for GPS-based features while maintaining a lightweight footprint.
February 2026 monthly summary for mcgill-robotics/rover-embedded-2025: Implemented TinyGPS++ integration to enable GPS-based location tracking and distance calculations, enhancing autonomous navigation and telemetry.
February 2026 monthly summary for mcgill-robotics/rover-embedded-2025: Implemented TinyGPS++ integration to enable GPS-based location tracking and distance calculations, enhancing autonomous navigation and telemetry.
Concise monthly summary for 2026-01 focused on the mcgill-robotics/rover-embedded-2025 repository. Delivered a UART Communication Framework with interrupt-driven handling and a message protocol, enabling reliable, low-latency serial messaging across multiple UART interfaces and laying groundwork for scalable rover telemetry and command channels. The work included framing/deserialization, multi-channel support, and a simple firmware skeleton to accelerate development. Fixed integration issues by resolving conflicts and adding missing private variables to ensure clean builds and easier maintenance.
Concise monthly summary for 2026-01 focused on the mcgill-robotics/rover-embedded-2025 repository. Delivered a UART Communication Framework with interrupt-driven handling and a message protocol, enabling reliable, low-latency serial messaging across multiple UART interfaces and laying groundwork for scalable rover telemetry and command channels. The work included framing/deserialization, multi-channel support, and a simple firmware skeleton to accelerate development. Fixed integration issues by resolving conflicts and adding missing private variables to ensure clean builds and easier maintenance.

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