Jacob worked on the Space-and-Satellite-Systems-UC-Davis/ADCS-Software repository, delivering features for real-time satellite attitude control and ground-station visibility. He overhauled sensor data structures, implemented TLE data acquisition with shell scripting, and developed tools for satellite position calculation using C. His approach emphasized maintainability, modularity, and robust error handling, with targeted refactoring to improve code hygiene and cross-language compatibility. Jacob integrated build automation with Makefile, enhanced CI/CD workflows, and introduced debugging utilities to streamline development. His work demonstrated depth in embedded systems, algorithm optimization, and orbital mechanics, resulting in a more reliable, extensible, and production-ready aerospace software platform.
2025-08 Monthly Summary — Space-and-Satellite-Systems-UC-Davis/ADCS-Software
2025-08 Monthly Summary — Space-and-Satellite-Systems-UC-Davis/ADCS-Software
June 2025: Delivered core system enhancements for Space-and-Satellite-Systems-UC-Davis/ADCS-Software. Key features delivered include (1) vi_sensor data structure overhaul from enum to struct to improve data encapsulation and support for diverse sensors, and (2) a new inrange satellite visibility tool for ground-station calculations using TLE data, with a Makefile for reliable builds. No major bugs fixed this month. Overall, these changes improve maintainability, extend sensor integration capabilities, and provide ready-to-use visibility calculations for mission planning. Demonstrated technologies: C programming, data-structure redesign, build automation (Makefile), and orbital mechanics concepts.
June 2025: Delivered core system enhancements for Space-and-Satellite-Systems-UC-Davis/ADCS-Software. Key features delivered include (1) vi_sensor data structure overhaul from enum to struct to improve data encapsulation and support for diverse sensors, and (2) a new inrange satellite visibility tool for ground-station calculations using TLE data, with a Makefile for reliable builds. No major bugs fixed this month. Overall, these changes improve maintainability, extend sensor integration capabilities, and provide ready-to-use visibility calculations for mission planning. Demonstrated technologies: C programming, data-structure redesign, build automation (Makefile), and orbital mechanics concepts.
May 2025 performance summary for Space-and-Satellite-Systems-UC-Davis/ADCS-Software: Delivered core feature work across sensor selection, detumbling generation management, and magnetic field lookup, alongside code quality and maintainability improvements. No major bug fixes were completed this month; instead, a deliberate defect was introduced in ADCS.c to validate debugging workflows and will be corrected in the next sprint. The work improves attitude control reliability, modularity, and maintainability, enabling faster iteration and safer operation in space environments. Technologies demonstrated include C, bitwise operations, lookup designs, API design for generation management, and code quality practices (clang-format, modular refactoring).
May 2025 performance summary for Space-and-Satellite-Systems-UC-Davis/ADCS-Software: Delivered core feature work across sensor selection, detumbling generation management, and magnetic field lookup, alongside code quality and maintainability improvements. No major bug fixes were completed this month; instead, a deliberate defect was introduced in ADCS.c to validate debugging workflows and will be corrected in the next sprint. The work improves attitude control reliability, modularity, and maintainability, enabling faster iteration and safer operation in space environments. Technologies demonstrated include C, bitwise operations, lookup designs, API design for generation management, and code quality practices (clang-format, modular refactoring).
Monthly work summary for 2025-04 focusing on Space-and-Satellite-Systems-UC-Davis/ADCS-Software. Highlights include robustness improvements in detumbling with cross-language compatibility, targeted sensor/actuator control enhancements in virtual Intellisat, sensor integration for attitude control (CSS) with maneuver controls, and build-time optimizations. Timekeeping and utilities were modernized, and ADCS status reporting was clarified. Build hygiene improvements and header cleanups reduced dependencies and potential issues, contributing to faster iterations and clearer code ownership.
Monthly work summary for 2025-04 focusing on Space-and-Satellite-Systems-UC-Davis/ADCS-Software. Highlights include robustness improvements in detumbling with cross-language compatibility, targeted sensor/actuator control enhancements in virtual Intellisat, sensor integration for attitude control (CSS) with maneuver controls, and build-time optimizations. Timekeeping and utilities were modernized, and ADCS status reporting was clarified. Build hygiene improvements and header cleanups reduced dependencies and potential issues, contributing to faster iterations and clearer code ownership.
Concise monthly summary for February 2025 for Space-and-Satellite-Systems-UC-Davis/ADCS-Software. This month focused on improving debugging capability, stabilizing the ADCS software, and strengthening the CI pipeline for ARM-based builds. Delivered features and improvements enable faster issue diagnosis, more reliable attitude control experiments, and smoother release readiness.
Concise monthly summary for February 2025 for Space-and-Satellite-Systems-UC-Davis/ADCS-Software. This month focused on improving debugging capability, stabilizing the ADCS software, and strengthening the CI pipeline for ARM-based builds. Delivered features and improvements enable faster issue diagnosis, more reliable attitude control experiments, and smoother release readiness.
January 2025 performance summary for Space-and-Satellite-Systems-UC-Davis/ADCS-Software. Focused on maintainability, simulation capabilities, and controlled experiment workflows. Delivered three targeted features with corresponding build and documentation improvements, leading to a cleaner codebase, more reliable simulations, and faster onboarding for new contributors.
January 2025 performance summary for Space-and-Satellite-Systems-UC-Davis/ADCS-Software. Focused on maintainability, simulation capabilities, and controlled experiment workflows. Delivered three targeted features with corresponding build and documentation improvements, leading to a cleaner codebase, more reliable simulations, and faster onboarding for new contributors.
2024-11 monthly summary for Space-and-Satellite-Systems-UC-Davis/ADCS-Software focused on robustness, performance, and maintainability. Delivered targeted ADCS and magnetic field modeling improvements, tied to evolving orbital data (TLEs), with substantial code hygiene upgrades. The work enhances reliability of attitude determination, reduces unnecessary recomputations, and simplifies future integration efforts across the repository.
2024-11 monthly summary for Space-and-Satellite-Systems-UC-Davis/ADCS-Software focused on robustness, performance, and maintainability. Delivered targeted ADCS and magnetic field modeling improvements, tied to evolving orbital data (TLEs), with substantial code hygiene upgrades. The work enhances reliability of attitude determination, reduces unnecessary recomputations, and simplifies future integration efforts across the repository.
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