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Old Dominion ASV team. Capt. Chris Shertzer Adam Stofko Richard Blanchette Brittany Garman Ganesh Balasubramanian Zach Carpenter. Advising Professor: Dr. Gene Hou. Background. Increased use of autonomous robotics Safety Advances in technology
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Old Dominion ASV team Capt. Chris Shertzer Adam Stofko Richard Blanchette Brittany Garman Ganesh Balasubramanian Zach Carpenter Advising Professor: Dr. Gene Hou
Background • Increased use of autonomous robotics • Safety • Advances in technology • Increased support from interested parties • Military Applications • Consumer Applications
The Roboboat Competition • Competition Conducted by AUVSI • Association for unmanned vehicle systems international • Design autonomous boat • OpenCV buoy tracking • GPS tracking and navigation • Challenge stations • Tennis ball retrieval • Shoot through the hoop
Car Challenge • The boat will enter routine triggered by GPS location • The boat will dock at the ramp section of the dock • The car will begin its tasks • Leave the boat via on-board ramp • Acquire the ball • Return to boat with ball • The boat will exit challenge station Challenge Station layout
The Work Breakdown • Current Car • Needs improvements • Tires do not have an adequate tread • Ramp did not retract due to improper gear ratio and power source • Sensor’s were adequate but could be improved • New Car • AHP analysis • Schematic drafting • Hardware selection • Drafting • Budgeting Early iteration of last years car
Video of old car http://www.youtube.com/watch?v=WyIBuxCpkFE&feature=youtu.be
Turret Challenge The boat will signal the turret when GPS location is reached When the turret is enabled the boat will employ a freeze technique. The turret will begin its task Search for 1 or all of 3 rings Locate a target Shoot a NERF dart through a target The turret will exit the challenge station at the 2 minute mark or once all darts have been fired. Challenge Station layout
Turret Design • Design options • Hardware selection • Two high torque servos to provide 2 degrees of freedom • Housing for thermal-IR and Camera • 3 barrels powered by CO2 • Housing for electrical components 3D Rhino model (McNeel North America, Seattle, WA)
Hull Design • Analysis of current hull • Improvements • Lighter • Hydrodynamics increased • Structural integrity • Modularity considerations 3D Inventor model (Autodesk, San Rafael, CA)
New Hull Development • Aluminum pontoon system • Angle bar deck structure 3D Rhino model (McNeel North America, Seattle, WA)
Conclusion • The Competition • July 8th-14th • Past competition • Current Hull is lacking in several fundamental areas • The car used in last years competition does not complete the task • This years competition • A new hull and deck has been designed to replace the current one • Development of a new car has begun and the old car has been slated for optimization • Research on turret completed and development has begun
References • http://www.auvsifoundation.org • http://www.vg247.com/2013/12/02/amazon-readies-unmanned-prime-air-delivery-drones/ • http://www.irobot.com/us/learn/defense/firstlook.aspx • http://www.odu.edu/eng