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Intelligent Ground Vehicle Competition 2006

Intelligent Ground Vehicle Competition 2006. Brigham Young University. The Challenge:. To design and build a fully autonomous robot capable of traversing an obstacle course while staying within the white boundaries. The fastest robot wins!.

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Intelligent Ground Vehicle Competition 2006

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  1. Intelligent Ground Vehicle Competition 2006 Brigham Young University

  2. The Challenge: To design and build a fully autonomous robot capable of traversing an obstacle course while staying within the white boundaries. The fastest robot wins!

  3. The 14th Annual Intelligent Ground Vehicle CompetitionSelfridge Air National Guard Base Harrison Township, Michigan June 10 - 12, 2006www.igvc.org

  4. Pledge Your Support The logos of our sponsors of the project will be prominently displayed on our robot and website. We are committed to the success of this project and to helping our sponsors receive recognition for their essential role. As the following slide explains, it will cost roughly $16,000 to build the robot and $12,000 to attend the competition. Any contribution you can make will help us implement our powerful algorithms with the latest technology.

  5. Major Expenses Sensors: $10,000 Color cameras, Three Axis Compass, GPS, Laser range finder Electrical System: $3,000 Laptop or Small PC, Microcontroller boards, Frame capture boards    Mechanical System: $3,000 Replacement motors, Fiberglass exterior, Treads, Wheel Encoders, Bearings Team Expenses: $12,000 Transportation of Team and Robot to the Competition

  6. Senior Project Teams 2005

  7. 2005 Success Last year’s entry from BYU took 5th place among 37 teams from across the world! This was also BYU’s first year to ever participate in the competition.

  8. Design Features A single camera guided the robot around obstacles and navigated within the boundaries.

  9. Design Features Image processing took place on a Pentium III system which translated the real-time visual input into steering commands. The laptop shown was used for testing the various subsystems.

  10. Design Features A motorized wheelchair chassis with independently controlled wheels allowed the robot to turn on a dime. The robust motors and gearboxes performed extremely well on the terrain of the course.

  11. Looking Ahead… Inspired by the extraordinary success of last year’s team, a new group of 12 electrical and computer engineering students is determined to win this year’s competition.

  12. Challenges BYU’s 2005 team faced difficult time and budget constraints, but we will improve on their design: - Unpowered front wheels swerved on slopes New tread design provides excellent stability - Wheels did not include feedback about distance traveled Wheel encoders will record distances within inches - Unoptimized frame buffering slowed image processing New capture boards and frame processing - Limited funds only allowed for a single camera Sponsors will make stereo vision and distance sensing feasible

  13. We are confident that we can win by: • Intelligent computing: path planning including short-term memory of the robot’s immediate surroundings and learned reflexes built on familiar situations • Sensory Input: More advanced sensors will allow us to recognize obstacles quickly and accurately and navigate without sacrificing speed

  14. Concept Drawings of Y-clops

  15. Design Decisions: • Tank tracks on our wheels will decrease slippage, ensuring the robot will not veer off course on slopes and inclines. They will also make sure our wheel encoders accurately measure distance traveled • A fiberglass or polymer shell will give our robot a sleek look as we compete in the design competition, and allow us to prominently display logos of our sponsors

  16. Conclusion: • Last year, on a shoestring budget and with only six months to prepare, our team came in 5th out of 37 teams. • This year, with more time to • prepare and more resources, we’re confident we can win this competition!

  17. Intelligent Ground Vehicle Competition 2006 Brigham Young University

  18. http://yclops.ece.byu.edu

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