This project will: (1) Build an experimental setup for conducting evacuation experiments inside 3D virtual online communities. (2) Analyze the realism of the experimental setup and research the ways to improve it. (3) Investigate the use of intelligent signs for controlling peoples' behavior in emergency situations. One of the major aspects in the design of buildings, stadiums and city blocks is their suitability for evacuation. Peoples' lives depend on how quickly these constructions can be evacuated in the emergency situations such as fires, earthquakes, terrorist attacks and collapsing structures. As a result of the 9/11 terrorist attacks however, it became apparent that current approaches to building design in regard to emergency evacuation for various building typologies such as high-rises, airports and stadiums need to be re-examined. In particular, the designs must be carefully evaluated against evacuation procedures. This raised a major concern about the lack of tools that would allow robust predictions of realistic human movements and interaction in the designed environments. It is clearly impractical to establish live experiments with thousands of people evacuating every possible building design for every possible emergency condition.

The research will not only evaluate virtual-world information technology as a tool for building design to facilitate evacuation, but it will also develop new information technology that could be incorporated in real-world buildings. For example, intelligent exit signs could automatically direct people during emergencies based on the known information about the construction, the type and location of emergency, and the current distribution of people. Building an experimental setup for conducting evacuation experiments within 3D virtual online communities requires answering such unorthodox questions as how to attract research subjects to the experiments, how to motivate the participants to evacuate buildings when emergency occurs, and what setup should be made to evaluate the efficiency of evacuation as truthfully as possible. The analysis and improvement of the realism of the setup requires research in realistic simulation of natural effects such as fire, real-time realistic human motion synthesis for hundreds of characters and developing effective means of measuring the immersiveness of participants. Finally, the design of control strategies for intelligent signs requires the research of real-time decision-theoretic planning under uncertainty algorithms suitable for the control of massive multi-agent systems.

The safety of buildings is of critical importance to any society. Natural hazards, terrorist attacks and fire accidents cause losses of thousands of lives every year. By designing buildings that are easier to evacuate, engineers can save a significant fraction of these lives. Yet, there is a lack of tools that would allow engineers to conduct high-fidelity evaluations of building designs in terms of evacuation efficiency. This research is directed towards providing engineers with access to conducting such large-scale high-fidelity experiments at drastically lower expense than previously possible. Progress in this direction will also have positive educational impacts. The project will play a significant part in the classes offered in an undergraduate Digital Media Design program, which has about 50% female students.

Agency
National Science Foundation (NSF)
Institute
Division of Information and Intelligent Systems (IIS)
Type
Standard Grant (Standard)
Application #
1018486
Program Officer
William Bainbridge
Project Start
Project End
Budget Start
2010-09-15
Budget End
2014-08-31
Support Year
Fiscal Year
2010
Total Cost
$500,000
Indirect Cost
Name
University of Pennsylvania
Department
Type
DUNS #
City
Philadelphia
State
PA
Country
United States
Zip Code
19104