Rocketry, Propulsion and Launch Systems

Course Overview

This comprehensive course explores the science and engineering of rocket propulsion systems and launch vehicles. From fundamental principles to cutting-edge innovations, you'll gain in-depth knowledge of how rockets work, how they're designed, and the complex infrastructure required to launch them safely and efficiently. The course balances theoretical foundations with practical applications, providing you with tools to understand both traditional chemical rockets and emerging propulsion technologies.

What You'll Learn

Module 1: Fundamentals of Rocket Propulsion

• Rocket equation and performance parameters
• Thrust, specific impulse, and efficiency metrics
• Nozzle theory and design
• Propellant characteristics and selection
• Staging concepts and mass fraction optimization

Module 2: Chemical Propulsion Systems

• Liquid propellant engines and components
• Solid rocket motors and grain design
• Hybrid propulsion systems
• Engine cycles and performance trade-offs
• Combustion stability and performance optimization

Module 3: Launch Vehicle Design

• Vehicle configuration and architecture
• Structural considerations and materials
• Aerodynamics and flight mechanics
• Guidance, navigation, and control systems
• Reliability and fault tolerance

Module 4: Launch Operations and Infrastructure

• Launch pad systems and infrastructure
• Range safety and mission assurance
• Launch weather considerations
• Mission planning and preparation
• Launch windows and orbital insertions

Module 5: Non-Chemical Propulsion Technologies

• Electric propulsion concepts
• Nuclear propulsion principles
• Solar sails and momentum exchange
• Advanced concepts (VASIMR, fusion, antimatter)
• Selection criteria for mission applications

Module 6: Emerging Launch Systems

• Reusable launch vehicles
• Air-breathing propulsion for space access
• Small launch vehicles and microlaunchers
• Suborbital systems and applications
• Spaceports of the future

Module 7: Future Propulsion Concepts

• In-situ resource utilization for propellants
• Beamed energy propulsion
• Breakthrough propulsion physics
• Interstellar mission concepts
• Technology roadmaps and development challenges

Practical Components

This course will include:

• Propulsion system performance calculations
• Launch vehicle sizing exercises
• Mission analysis for propulsion selection
• Case studies of successful and failed systems
• Virtual tours of propulsion test facilities

Industry Applications

The knowledge gained is directly applicable to:

• Launch vehicle manufacturers and operators
• Spacecraft propulsion system designers
• Mission planners and systems engineers
• Space policy and regulatory roles
• Emerging commercial space ventures

Upon completion, you'll have the technical foundation to understand, evaluate, and contribute to discussions on rocket propulsion systems and launch vehicles across the space industry.