MODEL ROCKET

THRUST-VECTOR CONTROLLED MODEL ROCKET
PROJECT OVERVIEW
TYPE: Hardware Engineering
TECH: Arduino, 3D Printing, Embedded Systems
STATUS: In Development

This model rocket project focuses on implementing thrust vector control (TVC) technology to achieve stable and controlled flight. Unlike traditional model rockets that rely on fins for passive stabilization, this project uses active control of the rocket engine's direction to maintain stability and enable more complex flight paths.

Thrust vector control is the same technology used in advanced rockets like the SpaceX Falcon 9 and NASA's Space Launch System. By implementing this technology at model scale, the project provides valuable hands-on experience with aerospace engineering principles and control systems.

TECHNICAL DETAILS

The rocket incorporates several technical systems working together to achieve controlled flight:

  • Gimbal-mounted motor for two-axis thrust vectoring
  • Arduino-based flight computer for real-time control
  • IMU (Inertial Measurement Unit) with accelerometer and gyroscope
  • Custom PID control algorithms for flight stabilization
  • 3D printed structural components for weight optimization
  • Telemetry system for real-time data transmission
  • Redundant deployment systems for recovery parachutes
  • Custom PCB design for electronics integration
DESIGN CONSIDERATIONS

The rocket design balances several key factors:

  • Weight distribution for proper center of gravity
  • Aerodynamic stability during powered and unpowered flight
  • Structural integrity to withstand launch forces
  • Electronics bay thermal management
  • Modular construction for easy maintenance and modification
  • Recovery system reliability and redundancy
DEVELOPMENT PROCESS

The development of this model rocket follows an iterative engineering approach, starting with design and simulation, followed by component testing, and culminating in full flight tests. The process includes:

  • CAD modeling of all mechanical components
  • Computational fluid dynamics (CFD) simulations
  • Static thrust testing of the engine and gimbal system
  • Control algorithm development and tuning
  • Electronics integration and testing
  • Ground testing of all systems
  • Flight testing with data collection and analysis
  • Iterative improvements based on test results
PROJECT DOCUMENTATION

This project is currently under development, with detailed documentation and code to be published upon completion of initial flight tests.