rocket-propulsion

name	rocket-propulsion
description	Comprehensive skill for rocket engine design and performance analysis
allowed-tools	["Read","Write","Glob","Grep","Edit","WebFetch","WebSearch","Bash"]
metadata	{"version":"1.0","category":"aerospace-engineering","tags":["propulsion","rocket","combustion","nozzle-design"]}
graph	{"domains":["domain:aerospace-engineering"],"specializations":["specialization:aerospace-engineering"],"skillAreas":["skill-area:physics-simulation","skill-area:mathematical-reasoning","skill-area:computational-geometry"],"roles":["role:research-engineer","role:computational-scientist"]}

Rocket Propulsion Analysis Skill

Purpose

Enable comprehensive rocket engine design and performance analysis including combustion analysis, nozzle design, and propellant optimization.

Capabilities

• CEA combustion analysis integration
• Nozzle design and optimization (bell, aerospike)
• Propellant selection and performance comparison
• Chamber pressure and mixture ratio optimization
• Regenerative cooling analysis
• Injector design considerations
• Thrust vectoring system analysis
• Rocket Propulsion Analysis (RPA) integration

Usage Guidelines

• Use CEA for accurate combustion product calculations
• Optimize mixture ratio for specific impulse or thrust requirements
• Consider thermal management in chamber and nozzle design
• Account for real gas effects at high pressures
• Validate designs against empirical correlations and test data
• Document propellant properties and compatibility considerations

Dependencies

• CEA (Chemical Equilibrium with Applications)
• RPA (Rocket Propulsion Analysis)
• MATLAB

Process Integration

• AE-005: Rocket Propulsion Design