
Contributed to the mcgill-robotics/rover-embedded-2025 repository by developing robust embedded communication features and improving maintainability over five months. Delivered a real-time UART messaging UI, modular USB/CDC integration, and a cross-language COBS encoding library, using C, Python, and CMake to enable reliable telemetry and efficient data interchange across STM32-based systems. Enhanced the codebase with buffer management, serialization, and protocol design, while optimizing memory usage and build automation. Focused on maintainable, testable solutions, including comprehensive documentation updates and dependency management, which streamlined onboarding and future development. The work emphasized modularity, observability, and reliability for embedded robotics and data communication workflows.
Concise monthly summary for 2026-01 for repo mcgill-robotics/rover-embedded-2025. Focus areas: delivered features, fixed critical issues, overall impact, and technologies demonstrated. Key items: - Feature delivered: UartBoard firmware with GPS data handling and JSON serialization/deserialization using TinyUSB and ArduinoJson. Commit: 04bc5fdb16f611e3507c57db38ad06c223709d55. - Major bugs fixed: USB CDC reliability and configuration adjustments including consolidation to a single virtual COM port, improved interrupt handling, and clock configuration. Commits: 6ad8dc3770be19e15a9453bf260ae3a2306cd46c; ad0353c807f53a9079dbf24ccf0d434cb1ad2905. Business value and impact: - Enhanced telemetry and host integration through reliable serial/USB communication, reducing debugging time and support overhead. - Streamlined CDC interface improves compatibility with host tools and downstream systems. - Demonstrated proficiency with embedded firmware, USB stacks, and data serialization in resource-constrained environments. Technologies/skills demonstrated: - TinyUSB, USB CDC, ArduinoJson, UART, GPS data handling, JSON serialization/deserialization, interrupt handling, clock configuration, and debugging options. Month: 2026-01; Repository: mcgill-robotics/rover-embedded-2025
Concise monthly summary for 2026-01 for repo mcgill-robotics/rover-embedded-2025. Focus areas: delivered features, fixed critical issues, overall impact, and technologies demonstrated. Key items: - Feature delivered: UartBoard firmware with GPS data handling and JSON serialization/deserialization using TinyUSB and ArduinoJson. Commit: 04bc5fdb16f611e3507c57db38ad06c223709d55. - Major bugs fixed: USB CDC reliability and configuration adjustments including consolidation to a single virtual COM port, improved interrupt handling, and clock configuration. Commits: 6ad8dc3770be19e15a9453bf260ae3a2306cd46c; ad0353c807f53a9079dbf24ccf0d434cb1ad2905. Business value and impact: - Enhanced telemetry and host integration through reliable serial/USB communication, reducing debugging time and support overhead. - Streamlined CDC interface improves compatibility with host tools and downstream systems. - Demonstrated proficiency with embedded firmware, USB stacks, and data serialization in resource-constrained environments. Technologies/skills demonstrated: - TinyUSB, USB CDC, ArduinoJson, UART, GPS data handling, JSON serialization/deserialization, interrupt handling, clock configuration, and debugging options. Month: 2026-01; Repository: mcgill-robotics/rover-embedded-2025
Month 2025-10 — mcgill-robotics/rover-embedded-2025: Delivered a comprehensive steering motor firmware documentation overhaul to improve maintainability, onboarding, and field troubleshooting. Included motor control, encoder setup, PID tuning, calibration, CAN interface, and GPIO/PWM/config guidance, with descriptive diagrams and README illustrations. Commits contributing to this work included: efaeabf58a16bab0ded30969f2e665b6b1822822, ae6aa670b4acdc9bcb8d9f2b3d000cdff2c81760, a8b56aaeb9befade2753fec69400761d701fff8a, and 2ab435f2e0e7eedadaa0e9045c0a94913c02a650.
Month 2025-10 — mcgill-robotics/rover-embedded-2025: Delivered a comprehensive steering motor firmware documentation overhaul to improve maintainability, onboarding, and field troubleshooting. Included motor control, encoder setup, PID tuning, calibration, CAN interface, and GPIO/PWM/config guidance, with descriptive diagrams and README illustrations. Commits contributing to this work included: efaeabf58a16bab0ded30969f2e665b6b1822822, ae6aa670b4acdc9bcb8d9f2b3d000cdff2c81760, a8b56aaeb9befade2753fec69400761d701fff8a, and 2ab435f2e0e7eedadaa0e9045c0a94913c02a650.
Monthly performance summary for 2025-07 focused on delivering robust rover steering, calibration reliability, and control system enhancements in mcgill-robotics/rover-embedded-2025. Highlights include three delivered features, one bug fix, and system-level improvements that increase reliability and mission readiness.
Monthly performance summary for 2025-07 focused on delivering robust rover steering, calibration reliability, and control system enhancements in mcgill-robotics/rover-embedded-2025. Highlights include three delivered features, one bug fix, and system-level improvements that increase reliability and mission readiness.
In June 2025, delivered core enhancements to the rover-embedded steering subsystem, focusing on a robust CAN-based interface and calibration workflow. Implemented a standard CAN interface for steering motor firmware, including message parsing, initialization/config, and refactoring of CAN processing to improve motor control. Integrated limit-switch GPIO with steering control and added an interrupt-driven calibration flow with encoder recalibration to ensure accurate steering positioning. Started implementing steering control from CAN (single motor) and introduced CAN ID handling and broad filtering (get IDs working; set filter to allow all). Documentation and cleanup of the CAN subsystem were initiated to improve maintainability and future work. These changes improve reliability, testability, and deployment readiness of the rover's steering subsystem.
In June 2025, delivered core enhancements to the rover-embedded steering subsystem, focusing on a robust CAN-based interface and calibration workflow. Implemented a standard CAN interface for steering motor firmware, including message parsing, initialization/config, and refactoring of CAN processing to improve motor control. Integrated limit-switch GPIO with steering control and added an interrupt-driven calibration flow with encoder recalibration to ensure accurate steering positioning. Started implementing steering control from CAN (single motor) and introduced CAN ID handling and broad filtering (get IDs working; set filter to allow all). Documentation and cleanup of the CAN subsystem were initiated to improve maintainability and future work. These changes improve reliability, testability, and deployment readiness of the rover's steering subsystem.
May 2025 monthly summary for mcgill-robotics/rover-embedded-2025: Delivered robust steering control improvements and safety interlocks, enhancing reliability and safety for rover operations. Focused on thread-safety, safety interlocks, and encoder accuracy.
May 2025 monthly summary for mcgill-robotics/rover-embedded-2025: Delivered robust steering control improvements and safety interlocks, enhancing reliability and safety for rover operations. Focused on thread-safety, safety interlocks, and encoder accuracy.
March 2025 performance summary for mcgill-robotics/rover-embedded-2025: Delivered two high-impact features in steering control, enabling precise operation, real-time diagnostics, and improved reliability. Implementations include Encoder Counts to Angles conversion with a UART debug interface and a PID-based steering motor control with range clamping and GPIO-based UI feedback. These changes reduce debugging time, increase system robustness, and establish a solid foundation for safety-critical autonomous steering.
March 2025 performance summary for mcgill-robotics/rover-embedded-2025: Delivered two high-impact features in steering control, enabling precise operation, real-time diagnostics, and improved reliability. Implementations include Encoder Counts to Angles conversion with a UART debug interface and a PID-based steering motor control with range clamping and GPIO-based UI feedback. These changes reduce debugging time, increase system robustness, and establish a solid foundation for safety-critical autonomous steering.
Month: 2025-02 — This month focused on delivering a robust steering motor firmware feature set, incorporating UI feedback, reliable encoder integration, and the groundwork for PID-based motor control. The work emphasizes business value through clearer operator feedback, improved steering accuracy, and a foundation for autonomous control while maintaining code quality and testability.
Month: 2025-02 — This month focused on delivering a robust steering motor firmware feature set, incorporating UI feedback, reliable encoder integration, and the groundwork for PID-based motor control. The work emphasizes business value through clearer operator feedback, improved steering accuracy, and a foundation for autonomous control while maintaining code quality and testability.

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