Challenging Paraglide Control System  CLES FACIL student club developing CANSAT in   cooperation with Kyushu Institute of ...
Challenging Paraglide Control SystemCLES FACIL (1/2): The Club• Autonomous Student Club with  Support from INSA• 40 Years ...
Challenging Paraglide Control SystemCLES FACIL (2/2): The Club• Sounding Rocket Experience at La Courtine  CNES/Planete Sc...
Challenging Paraglide Control SystemThe CanSat Project (1/10): The Launcher•   Sounding Rocket meets the    restrictions o...
Challenging Paraglide Control SystemThe CanSat Project (2/10): The Module•   Use of the Nose Cone as the Ejected Module•  ...
Challenging Paraglide Control SystemThe CanSat Project (3/10): The Control Algorithm•   Uncertainty of GPS Positioning    ...
Challenging Paraglide Control SystemThe CanSat Project (4/10): The Optimizing Control Algorithm•   Existing Control Algori...
Challenging Paraglide Control SystemThe CanSat Project (5/10): The Optimizing Control Algorithm
Challenging Paraglide Control SystemThe CanSat Project (6/10): The Optimizing Control Algorithm•   Our Solution: 3-Phase A...
Challenging Paraglide Control SystemThe CanSat Project (7/10): The Optimizing Control Algorithm
Challenging Paraglide Control SystemThe CanSat Project (8/10): The Optimizing Control Algorithm•   Second Phase:    – Chec...
Challenging Paraglide Control SystemThe CanSat Project (9/10): The Optimizing Control Algorithm•   Second Phase:    –   wi...
Challenging Paraglide Control SystemThe CanSat Project (10/10): The Optimizing Control Algorithm•   Advantages    – Stable...
Challenging Paraglide Control SystemThe CanSat Project: The Cooperation with the KIT•   Team of Prof. Yonemoto works on si...
Challenging Paraglide Control System
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Challenging Paraglide Control System

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CLES FACIL student club developing CANSAT in cooperation with Kyushu Institute of Technology

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Challenging Paraglide Control System

  1. 1. Challenging Paraglide Control System CLES FACIL student club developing CANSAT in cooperation with Kyushu Institute of Technology Stanislaw Ostoja-Starzewski, Marc Dal MolinCLES FACIL at the National Institute of Applied Science (INSA) Lyon, France
  2. 2. Challenging Paraglide Control SystemCLES FACIL (1/2): The Club• Autonomous Student Club with Support from INSA• 40 Years of History• Today ~25 members working on: – CanSat Project – ESA ESMO Project
  3. 3. Challenging Paraglide Control SystemCLES FACIL (2/2): The Club• Sounding Rocket Experience at La Courtine CNES/Planete Sciences Rocket Launch Campaign• Special Security Rules and Weight Restrictions – Sounding Rocket up to 15 kg – Solid Propellant Propulsion provided by CNES• This Year’s Launch Scheduled on July
  4. 4. Challenging Paraglide Control SystemThe CanSat Project (1/10): The Launcher• Sounding Rocket meets the restrictions of CNES• Embedded Anti-rotation system: - Compressed Air Jet Propulsion System with the Output Pressure of 10-15 bars - System implies Weight Obstruction• Consequence: Non Can-Sized CanSat
  5. 5. Challenging Paraglide Control SystemThe CanSat Project (2/10): The Module• Use of the Nose Cone as the Ejected Module• Nose Cone Dimensions – Diameter: ~15 cm – Height: ~40cm• Special Ejection Mechanism• Used Devices: – Paraglide – Servo Actuator – GPS Device – Accelerometer – Microcontrollers, others...
  6. 6. Challenging Paraglide Control SystemThe CanSat Project (3/10): The Control Algorithm• Uncertainty of GPS Positioning System – Cases of false Data Input• Separate Algorithm to Calculate the Estimated Position – Use of Accelerometer to Optimize the Estimation
  7. 7. Challenging Paraglide Control SystemThe CanSat Project (4/10): The Optimizing Control Algorithm• Existing Control Algorithms – Simple nature: iterative correction of the directional vector – Does not take into account different scenarios• Unstable final phase of flight
  8. 8. Challenging Paraglide Control SystemThe CanSat Project (5/10): The Optimizing Control Algorithm
  9. 9. Challenging Paraglide Control SystemThe CanSat Project (6/10): The Optimizing Control Algorithm• Our Solution: 3-Phase Algorithm Elaborating the Optimal Trajectory• Assumption: Constant Descent Angle of the CanSat• First Phase: – Paraglide deployment – Optimal Trajectory Calculation – Driving CanSat to 2nd Phase Departure Point
  10. 10. Challenging Paraglide Control SystemThe CanSat Project (7/10): The Optimizing Control Algorithm
  11. 11. Challenging Paraglide Control SystemThe CanSat Project (8/10): The Optimizing Control Algorithm• Second Phase: – Checkpoints Distributed uniformly – alpha: CanSat Constant Descent Angle – beta: Optimal Trajectory Descent Angle
  12. 12. Challenging Paraglide Control SystemThe CanSat Project (9/10): The Optimizing Control Algorithm• Second Phase: – wide curve longer pathway arriving at lower altitude – narrow curve shorter pathway arriving at higher altitude• At each Checkpoint: – Comparison of current Estimated Position with the Checkpoint position – Calculation of curve i+1 leading to cp i+1
  13. 13. Challenging Paraglide Control SystemThe CanSat Project (10/10): The Optimizing Control Algorithm• Advantages – Stable Flight – Taking into Account Different Scenarios – Dealing with the Wind Factor
  14. 14. Challenging Paraglide Control SystemThe CanSat Project: The Cooperation with the KIT• Team of Prof. Yonemoto works on similar aspects of the Navigation Control• Cooperation includes: – Exchange of Know-How – Collaboration on Optimizing Control Algorithm• First Expected Result: La Courtine CNES Rocket Launch Campaign, France, July 2007
  15. 15. Challenging Paraglide Control System
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