- Introduction: Solving Problems for 75 Years
- Government Spurs Electronics Research
- A Solution to Long-Term Growth
- EES Installs “Electro-Mechanical Brain”
- Researchers form Scientific-Atlanta
- EES Tackles Diverse Projects
- Championing Research Personnel
- The Age of Automation Arrives
- A Time of Transition - the 1960s
- Research “For the Sake of People": Early Social Entrepreneurs
- EES Defends its Independence
- Change at the Top: The Grace Years
- EES Shapes a New Image and Gets a New Name
- GTRI Broadens its Research Capabilities
- Helping Capture the Olympic Games
- Recognition and Reorganization
- From Swords to Plowshares: Truly Takes the Helm
- GTRI Builds on Industry Relationships
- Reedy Leads GTRI into a New Century
- Cross Touts 'Interdisciplinary Focus'
- Defining the Future
- "One Georgia Tech"
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Helping Capture the Olympic Games
The centerpiece of Atlanta's 1996 Summer Olympic bid package was a seven-foot-tall, three-screen interactive video-disc system equipped with touch screen and trackball controls. It was developed by Georgia Tech and GTRI researchers, with assistance from other universities and off-campus organizations.
The presentation combined virtual reality techniques, computer graphics, animation and aerial photography that allowed viewers to take a virtual airborne tour of proposed Olympic venues. The roots of the Olympic interactive video system could be traced to earlier military projects-including missile defense modeling and simulation research.
Three versions were produced. One involved a flat-panel visual display, originally built for use in submarines in 1964.
A second involved a small, plastic three-dimensional model of the Olympic Village, illuminated with computer graphics. It displayed vignettes about a day in the life of an athlete when a particular building or area was touched.
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GTRI/Georgia Tech research helps win the 1996 Summer Olympics for Atlanta.
A third featured a full-color computer-simulated "fly-through" of the Olympic whitewater events venue. It was designed to orient TV viewers whenever Olympics coverage shifted from Atlanta-area sports venues to the whitewater course in Tennessee. GTRI developers integrated data from the LANDSAT satellite, high-altitude and low-altitude photography, and U.S. Geological Survey elevation information into the simulation.
Georgia Tech served as the Olympic Village, and the Olympics itself became a laboratory. GTRI investigators worked on transportation issues for application beyond the games. In one project, helicopters used mainly to transport packages and documents during the games were outfitted with a global positioning system for navigation, tracking and communication.
Atop Georgia Tech's Aquatic Center, nearly 3,000 photovoltaic panels produce as much as 30 percent of the electricity needed by the building, 2002.
Download>Back on the ground, the Olympics' traffic logistics presented a unique opportunity to test an information system that could improve mobility in urban areas. A fleet of vehicles was networked by 220 MHz transceivers and a subcarrier from a commercial FM broadcast station.
The vehicles received information about congestion, incidents, and weather and special-events data over RF links. GTRI's role was to evaluate the technology's performance, as well as development, implementation and analysis of error-correction techniques for use in the 220 MHz transceivers.
At the Olympic natatorium, built on the Tech campus expressly for swimming and diving events, GTRI and Georgia Tech scientists took advantage of the opportunity to deploy and monitor a rooftop photovoltaic electrical system. The system was designed to provide 25 percent of the venue's power needs through 2,856 DC solar modules generating a combined 340 kW.