
Over a three-month period, contributed to the waterloo-rocketry/cansw_processor_canards firmware by developing a comprehensive health monitoring infrastructure for embedded systems. Built and integrated a health checks framework with watchdog management, enabling real-time monitoring of system status, current draw, and CAN bus reporting for flight-critical subsystems. Applied C and C++ to implement centralized watchdog task registration, ADC-based current monitoring, and robust error logging, while refactoring code for maintainability and standards compliance. Enhanced observability and reliability by standardizing health check APIs, improving code hygiene, and preparing the module for future RocketLib integration, ultimately reducing operational risk and supporting safer deployments.
January 2025: Delivered core health-check enhancements and foundational RocketLib readiness for cansw_processor_canards. Implemented centralized watchdog task registration to unify health check registration, prepared RocketLib integration by including the rocketlib common header, added a new current-draw health check task to monitor ADC-based current with logging and CAN-ready fault signaling, and tightened health checks code quality with header/include cleanup. These changes improve reliability, observability, and maintainability, reduce risk of misconfigured health checks, and position the module for future RocketLib-powered health monitoring.
January 2025: Delivered core health-check enhancements and foundational RocketLib readiness for cansw_processor_canards. Implemented centralized watchdog task registration to unify health check registration, prepared RocketLib integration by including the rocketlib common header, added a new current-draw health check task to monitor ADC-based current with logging and CAN-ready fault signaling, and tightened health checks code quality with header/include cleanup. These changes improve reliability, observability, and maintainability, reduce risk of misconfigured health checks, and position the module for future RocketLib-powered health monitoring.
December 2024 — waterloo-rocketry/cansw_processor_canards: Delivered a robust Health Check System with Watchdog and CAN reporting, plus targeted watchdog mechanism cleanup. This work hardens reliability, observability, and safety for flight-critical subsystems, delivering measurable business value through reduced risk and faster issue diagnosis in operation.
December 2024 — waterloo-rocketry/cansw_processor_canards: Delivered a robust Health Check System with Watchdog and CAN reporting, plus targeted watchdog mechanism cleanup. This work hardens reliability, observability, and safety for flight-critical subsystems, delivering measurable business value through reduced risk and faster issue diagnosis in operation.
November 2024 performance summary for waterloo-rocketry/cansw_processor_canards: Delivered Health Checks Framework and Watchdog Integration to enable firmware health monitoring, watchdog management, and initialization/status APIs. No critical bugs were reported this month; minor formatting and typo fixes plus firmware-standard refactors (static inline wrappers, void-argument conventions) improved code quality and maintainability. Overall, these changes enhance reliability, observability, and onboarding, delivering measurable business value by reducing MTTR and accelerating future instrumentation. Technologies demonstrated include embedded C practices, header-driven design, static inline optimizations, firmware standards compliance, and observability enhancements.
November 2024 performance summary for waterloo-rocketry/cansw_processor_canards: Delivered Health Checks Framework and Watchdog Integration to enable firmware health monitoring, watchdog management, and initialization/status APIs. No critical bugs were reported this month; minor formatting and typo fixes plus firmware-standard refactors (static inline wrappers, void-argument conventions) improved code quality and maintainability. Overall, these changes enhance reliability, observability, and onboarding, delivering measurable business value by reducing MTTR and accelerating future instrumentation. Technologies demonstrated include embedded C practices, header-driven design, static inline optimizations, firmware standards compliance, and observability enhancements.

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