AAE450 Spring 2009 Locomotion Phase: Propulsion System X1 February 5, 2009 Ryan Lehto Propulsion Locomotion CAD Designer.

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Presentation transcript:

AAE450 Spring 2009 Locomotion Phase: Propulsion System X1 February 5, 2009 Ryan Lehto Propulsion Locomotion CAD Designer

AAE450 Spring 2009 Drive Train Sizing for X1  4 Independent Drive Wheels  Selection Criteria –Power Input/ Output –Size/ Weight –Strength –Environmental Capabilities –Cost Ryan Lehto Propulsion

AAE450 Spring 2009 Results  Motor: Maxon DC Precious Metal Brushes Motor –Max Output: 2.5W  Gearing: Planetary Gearhead Ratio of 3373:1  Controller: LSC 30/2, linear 4-Q-Servoamplifier 30 V / 2 A  Energy Needed: ~42.82 W*hrs  System Mass: kg  Mission Time: 0.03m/s  4.63 hrs  Max Temp.: Up to 125°C  Total Cost: 4*(Motors + Gears) + Controller= *$ Ryan Lehto Propulsion *Based on current exchange rate of 1.00 EUR=1.28 USD

AAE450 Spring 2009 Back-up Ryan Lehto Propulsion Motor Power Input (W) Efficency (%) Power Nomial Output (W) Mass (g) No-load Velocity (RPM) Dia (mm) Length (mm)Cost RE 13 Ø13 mm, Precious Metal Brushes % Eur GearingRatioEfficencyMass (g)Diameter mmLength mmCost Planetary Gearhead GP 13 A Ø13 mm, Nm, Metal Version, Sleeve Bearing 3373:162% Eur ControllerCost LSC 30/2, linear 4-Q-Servoamplifier 30 V / 2 A in module housing Eur All information from

AAE450 Spring 2009 Ryan Lehto Propulsion Motor Efficiency: 78.3% Gearing Efficiency: 68%

AAE450 Spring 2009 Ryan Lehto Propulsion Power Needed Per Wheel: WMotor Has Max RPM Gearing Reduction: 3373:1 Max Wheel Rotation: 2.99

AAE450 Spring 2009 Ryan Lehto Propulsion Sources: 1.Clark, D., & Owings, M. (2003). Building Robot Drive Trains. New York. McGraw-Hill 2.Maxon Motor website: 3.Currency Exchange Rate Found at: