Difference between revisions of "Media"
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== Paparazzi in the News == | == Paparazzi in the News == | ||
*[http://hjnews.townnews.com/articles/2008/07/12/news/news01.txt ‘Ghetto’ plane soars] | |||
**:<small>When a group of USU students arrived at a national robotic airplane contest, judges said their entry would never fly. | |||
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* [http://www.engineering.usu.edu/htm/engineering-news/news-articles/articleID=3579 Unmanned Aerial Vehicles Team Places 2nd at AUVSI Competition] - July 1, 2008 | * [http://www.engineering.usu.edu/htm/engineering-news/news-articles/articleID=3579 Unmanned Aerial Vehicles Team Places 2nd at AUVSI Competition] - July 1, 2008 | ||
*:<small>The Open Source Autonomous Multiple Unmanned Aerial Vehicles Build Fly and Beyond (OSAM-UAV-BFB) team of Austin Jensen, Cal Coopmans, Christopher Hall, Di Long, Haiyang Chao, Mitchel Humpherys, and team captain Daniel Morgan, won $8,000 of the $45,000 total prize money for 2nd place overall at the Association for Unmanned Vehicles Systems International (AUVSI) competition in St. Inigoes, Maryland in June. | *:<small>The Open Source Autonomous Multiple Unmanned Aerial Vehicles Build Fly and Beyond (OSAM-UAV-BFB) team of Austin Jensen, Cal Coopmans, Christopher Hall, Di Long, Haiyang Chao, Mitchel Humpherys, and team captain Daniel Morgan, won $8,000 of the $45,000 total prize money for 2nd place overall at the Association for Unmanned Vehicles Systems International (AUVSI) competition in St. Inigoes, Maryland in June. |
Revision as of 09:32, 12 July 2008
Paparazzi in the News
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Design Reports
Manuals
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Other Sites of Interest
- "Design, Fabrication and Initial Results of a 2g Autonomous Glider"
(900K, PDF) - July 2007- Utilizing the core technologies of emerging microrobotic structures, the rapid design and prototyping of a passive micro air vehicle with the final goal of locating an audio source while avoiding hazardous obstacles is presented. The airfoil and control surfaces are optimized empirically to maximize lift and maneuverability while minimizing drag. Bimorph piezoelectric bending cantilevers actuate the control surfaces. Since such actuators require high voltages, an efficient boost circuit is presented along with appropriate high voltage electronics. To locate audio sources, a pair of acoustic sensors is designed and prototyped using a phase detection algorithm while a custom optic flow sensor is developed to avoid obstacles and give estimates of object distances and velocities. Finally, each subsystem is demonstrated and the complete glider is integrated to demonstrate initial open loop control performance.