
Rafael Zampieri developed and maintained core firmware for UFABCRocketDesign/newbie_software, focusing on modular sensor integration, robust data logging, and autonomous system control. Over six months, he engineered features such as multi-stage parachute deployment, GPS-based location tracking, and real-time telemetry, using C++ and Arduino programming within an embedded systems context. His approach emphasized modularity through conditional compilation, memory optimization, and function-based design, enabling configurable deployments and reliable sensor data collection. By refactoring code for maintainability and enhancing data formatting, Rafael improved system reliability, observability, and safety, supporting scalable sensor configurations and streamlined field operations for aerospace and IoT applications.
March 2026 monthly performance for UFABCRocketDesign/newbie_software focused on robust location tracking and telemetry reliability. Delivered two major features: GPS Location Reporting and Data Logging, and Altitude Telemetry with Fall Detection. Achievements include switching GPS to hardware serial for improved performance, refining data formats for clearer user-facing logs, and substantial telemetry refactoring to enhance reliability and maintainability. Key improvements and work patterns: - GPS: Iterative integration and debugging across multiple commits to stabilize latitude/longitude collection, data logging, and log readability; achieved a stable data flow even with SD/log constraints. - Altitude Telemetry: Refactored altitude filtering, optimized memory usage for sensors, and strengthened fall detection with function-based encapsulation, simplifying telemetry reads. - Reliability and maintainability: Consolidated logic into dedicated functions, reduced scope-related variable issues, and improved code structure for easier future enhancements. - Business value: More reliable location data, safer telemetry capabilities, and clearer logs driving better decision-making and field-readiness. Technologies/skills demonstrated: Embedded C/C++, Arduino-style environment, hardware serial interfacing, memory optimization, function-based design, and data logging/formatting.
March 2026 monthly performance for UFABCRocketDesign/newbie_software focused on robust location tracking and telemetry reliability. Delivered two major features: GPS Location Reporting and Data Logging, and Altitude Telemetry with Fall Detection. Achievements include switching GPS to hardware serial for improved performance, refining data formats for clearer user-facing logs, and substantial telemetry refactoring to enhance reliability and maintainability. Key improvements and work patterns: - GPS: Iterative integration and debugging across multiple commits to stabilize latitude/longitude collection, data logging, and log readability; achieved a stable data flow even with SD/log constraints. - Altitude Telemetry: Refactored altitude filtering, optimized memory usage for sensors, and strengthened fall detection with function-based encapsulation, simplifying telemetry reads. - Reliability and maintainability: Consolidated logic into dedicated functions, reduced scope-related variable issues, and improved code structure for easier future enhancements. - Business value: More reliable location data, safer telemetry capabilities, and clearer logs driving better decision-making and field-readiness. Technologies/skills demonstrated: Embedded C/C++, Arduino-style environment, hardware serial interfacing, memory optimization, function-based design, and data logging/formatting.
Summary for 2025-08: Delivered core firmware enhancements for UFABCRocketDesign/newbie_software, focusing on reliability, observability, and maintainability. Key outcomes include modular sensor data collection and system control (enable/disable readings and parachute activations), initial telemetry integration routing data to both SD card and telemetry with a 5-second cadence, and targeted code quality improvements to the main firmware file. These changes improve data reliability, real-time monitoring, and long-term maintainability, accelerating development cycles and safer operation during flights.
Summary for 2025-08: Delivered core firmware enhancements for UFABCRocketDesign/newbie_software, focusing on reliability, observability, and maintainability. Key outcomes include modular sensor data collection and system control (enable/disable readings and parachute activations), initial telemetry integration routing data to both SD card and telemetry with a 5-second cadence, and targeted code quality improvements to the main firmware file. These changes improve data reliability, real-time monitoring, and long-term maintainability, accelerating development cycles and safer operation during flights.
Month: 2025-07 | Key focus: modular data logging and sensor/parachute integration. Delivered Data Logging System Initialization with sensor suite (accelerometer, gyroscope, magnetometer) and parachute control, reorganizing setup for modular, conditional compilation-based enablement of sensors and parachute components, and updating the data logging header to include new sensor data. This work enables configurable deployments and easier maintenance of the onboard data pipeline. No major bugs fixed this month; focus was architectural refactor and feature integration. Impact: improves data fidelity and operational flexibility for missions, reduces future integration risk, and supports scalable sensor configurations. Technologies/skills demonstrated: C/C++, conditional compilation, modular software architecture, embedded sensor integration, data logging subsystem design, header/interface evolution.
Month: 2025-07 | Key focus: modular data logging and sensor/parachute integration. Delivered Data Logging System Initialization with sensor suite (accelerometer, gyroscope, magnetometer) and parachute control, reorganizing setup for modular, conditional compilation-based enablement of sensors and parachute components, and updating the data logging header to include new sensor data. This work enables configurable deployments and easier maintenance of the onboard data pipeline. No major bugs fixed this month; focus was architectural refactor and feature integration. Impact: improves data fidelity and operational flexibility for missions, reduces future integration risk, and supports scalable sensor configurations. Technologies/skills demonstrated: C/C++, conditional compilation, modular software architecture, embedded sensor integration, data logging subsystem design, header/interface evolution.
April 2025 performance: Delivered multi-parachute deployment expansion and telemetry/sensor integration, fixed critical deployment timing and magnetometer logging issues, and strengthened system reliability and observability for autonomous operations. These efforts improved safety, data quality, and readiness for sensor fusion, with releases spanning Paraquedas v0.2.x through v0.5.x and multiple commits across reviews.
April 2025 performance: Delivered multi-parachute deployment expansion and telemetry/sensor integration, fixed critical deployment timing and magnetometer logging issues, and strengthened system reliability and observability for autonomous operations. These efforts improved safety, data quality, and readiness for sensor fusion, with releases spanning Paraquedas v0.2.x through v0.5.x and multiple commits across reviews.
March 2025 monthly summary for UFABCRocketDesign/newbie_software focusing on delivering core capabilities, stabilizing data collection, and enabling safer, more reliable aircraft subsystems. Highlights include substantial altitude filtering enhancements with full testing scaffolding, an across-the-board data logging improvement path, and the evolution of a robust fall detection feature, plus foundational work for parachute activation.
March 2025 monthly summary for UFABCRocketDesign/newbie_software focusing on delivering core capabilities, stabilizing data collection, and enabling safer, more reliable aircraft subsystems. Highlights include substantial altitude filtering enhancements with full testing scaffolding, an across-the-board data logging improvement path, and the evolution of a robust fall detection feature, plus foundational work for parachute activation.
February 2025 accomplishments for UFABCRocketDesign/newbie_software: Delivered two core firmware features—an Arduino LED Blink Demonstration for hardware control validation and a BMP085 Sensor Data Acquisition and Output module with improved serial output, data formatting, and robust altitude processing. Work included initialization resilience, baseline subtraction, and filtering/averaging to stabilize measurements, enabling reliable telemetry and downstream analytics. These efforts strengthened hardware-software integration, improved data readability for dashboards, and enhanced testability of hardware tests.
February 2025 accomplishments for UFABCRocketDesign/newbie_software: Delivered two core firmware features—an Arduino LED Blink Demonstration for hardware control validation and a BMP085 Sensor Data Acquisition and Output module with improved serial output, data formatting, and robust altitude processing. Work included initialization resilience, baseline subtraction, and filtering/averaging to stabilize measurements, enabling reliable telemetry and downstream analytics. These efforts strengthened hardware-software integration, improved data readability for dashboards, and enhanced testability of hardware tests.

Overview of all repositories you've contributed to across your timeline