Plan and optimize spacecraft GNC/ADCS architectures with pointing budgets.
npx skills add https://github.com/devideamax/aerospace-team --skill gnc
Please help me install this Agent Skill. Skill: gnc Source: https://github.com/devideamax/aerospace-team/tree/main/skills/gnc Command: npx skills add https://github.com/devideamax/aerospace-team --skill gnc
Expert spacecraft guidance, navigation and control (GNC) / attitude determination and control systems (ADCS) analysis — sensor selection, actuator sizing, pointing budgets, disturbance torque analysis, control mode design, and momentum management. Use when designing ADCS architectures, selecting star trackers or reaction wheels, calculating gravity gradient torques, building pointing error budgets, or evaluating slew performance.
Trigger with a spacecraft geometry and pointing requirement to obtain a complete ADCS plan
High-intent search queries and answers about installing and using this skill.
Spacecraft ADCS architecture sizing evaluates pointing requirements and disturbance torques to select appropriate reaction wheels and sensors. The analysis outputs component selection options and control laws tailored to your specific mission geometry.
Pointing error budgets for LEO missions are built by calculating gravity gradient disturbance torques against your spacecraft geometry. This analysis produces robust pointing budgets with clear performance margins for your specific orbit.
Disturbance torque analysis for deep-space control system design evaluates environmental torques against your spacecraft geometry to determine actuator sizing needs. It outputs momentum management strategies and control mode designs robust to mission disturbances.
Yes, ADCS analysis supports GEO missions by evaluating slew performance against pointing requirements. It provides control law options and actuator sizing outputs applicable across LEO, GEO, and deep-space mission profiles.
Complete GNC architecture planning triggers when you input spacecraft geometry and pointing requirements. It outputs a comprehensive ADCS plan including sensor selection, actuator sizing, control modes, and momentum management options.
Star tracker selection and momentum management are needed when designing ADCS architectures that require precise attitude determination. The analysis outputs sensor selection and momentum management strategies based on your pointing budget margins.
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