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Kyle Usbeck

Possible papers associated with this exact author name in Arrow. This page groups case-insensitive exact name matches and is not a full identity disambiguation profile.

3 papers
1 author row

Possible papers

3

TAAS Journal 2018 Journal Article

Adaptive Opportunistic Airborne Sensor Sharing

  • Jacob Beal
  • Kyle Usbeck
  • Joseph Loyall
  • Mason Rowe
  • James Metzler

Airborne sensor platforms are becoming increasingly significant for both civilian and military operations; yet, at present, their sensors are typically idle for much of their flight time, e.g., while the sensor-equipped platform is in transit to and from the locations of sensing tasks. The sensing needs of many other potential information consumers might thus be served by sharing such sensors, thereby allowing other information consumers to opportunistically task them during their otherwise unscheduled time, as well as enabling other improvements, such as decreasing the number of platforms needed to achieve a goal and increasing the resilience of sensor tasks through duplication. We have implemented a prototype system realizing these goals in Mission-Driven Tasking of Information Producers (MTIP), which leverages an agent-based representation of tasks and sensors to enable fast, effective, and adaptive opportunistic sharing of airborne sensors. Using a simulated large-scale disaster-response scenario populated with publicly available Geographic Information System (GIS) datasets, we demonstrate that correlations in task location are likely to lead to a high degree of potential for sensor-sharing. We then validate that our implementation of MTIP can successfully carry out such sharing, showing that it increases the number of sensor tasks served, reduces the number of platforms required to serve a given set of sensor tasks, and adapts well to radical changes in flight path.

AAAI Conference 2005 System Paper

The AI Technologies of the Philadelphia Area Urban Wireless Network Testbed

  • Gustave Anderson
  • Andrew Burnheimer
  • Vincent Cicirello
  • David Dorsey
  • Chris Dugan
  • Iris Howley
  • Moshe Kam
  • Joseph Kopena

Drexel University’s College of Engineering has been working with local law enforcement and transportation officials to develop a Philadelphia Area Urban Wireless Network Testbed (PA-UWNT). The PAUWNT is a mobile ad hoc network (MANET) consisting of PDAs (HP iPAQs), Tablet PCs, and laptops. The PAUWNT integrates: (1) the industrial-strength mobile agent platform of Lockheed’s Advanced Technology Laboratories known as the Extendable Mobile Agent Architecture (EMAA) (2) an 802.11b wireless network with ad hoc routing; and (3) lightweight computing platforms such as PDAs and Tablets. MANETs, such as the PA-UWNT, can allow for a ‘bring your own network” solution to communications and management of rescue workers at the location of a natural disaster, where traditional networking infrastructure is not likely to exist or at best is likely to be inoperable. One of the goals of the PA-UWNT is to enable researchers at Drexel University to study research problems of importance to the enabling of police, fire, security, and other emergency personnel to communicate and collaborate effectively over MANETs.

AAAI Conference 2004 System Paper

Intelligent Systems Demonstration: The Secure Wireless Agent Testbed (SWAT)

  • Gustave Anderson
  • Vincent Cicirello
  • Saturnino Garcia
  • Joseph Kopena
  • Andy Mroczkowski
  • Gaurav Naik
  • Joshua Shaffer
  • Kenneth Tsang

We will demonstrate the Secure Wireless Agent Testbed (SWAT), a unique facility developed at Drexel University to study integration, networking and information assurance for next-generation wireless mobile agent systems. SWAT is an implemented system that fully integrates: (1) mobile agents, (2) wireless ad hoc multi-hop networks, and (3) security. The demonstration will show the functionality of a number of decentralized agent-based applications, including applications for authentication, collaboration, messaging, and remote sensor monitoring. The demonstration will take place on a live mobile ad hoc network consisting of approximately a dozen nodes (PDAs, tablet PCs, and laptops) and hundreds of mobile software agents.