Date of Award
Spring 2014
Document Type
Thesis
Degree Name
Master of Science (MS)
Department
Mathematics, Statistics and Computer Science
First Advisor
Kaczmarek, Thomas
Second Advisor
Ahamed, Sheikh
Third Advisor
Harris, Douglas
Abstract
In the United States, there is an emergency dispatch for fire department services more than once every second - 31,854,000 incidents in 2012. While large scale disasters present enormous response complexity, even the most common emergencies require a better way to communicate information between personnel. Through real-time location and status updates using integrated sensors, this system can significantly decrease emergency response times and improve the overall effectiveness of emergency responses. Aside from face-to-face communication, radio transmissions are the most common medium for transferring information during emergency incidents. However, this type of information sharing is riddled with issues that are nearly impossible to overcome on a scene. Poor sound quality, the failure to hear transmissions, the inability to reach a radio microphone, and the transient nature of radio messages illustrate just a few of the problems. Proprietary and closed systems that collect and present response data have been implemented, but lack interoperability and do not provide a full array of necessary services. Furthermore, the software and hardware that run the systems are generally poorly designed for emergency response scenarios. Pervasive devices, which can transmit data without human interaction, and software using open communication standards designed for multiple platforms and form factors are two essential components. This thesis explores the issues, history, design, and implementation of a ubiquitous interoperable emergency response system by taking advantage of the latest in hardware and software, including Google Glass, Android powered mobile devices, and a cloud based architecture that can automatically scale to 7 billion requests per day. Implementing this pervasive system that transcends physical barriers by allowing disparate devices to communicate and operate harmoniously without human interaction is a step towards a practical solution for emergency response management.