SIAM-DM 06
Spatial Data Mining:
Consolidation and Renewed Bearing
April 22, 2006


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challenge: pandemic preparedness
Workshop Agenda

The workshop includes an invited talk regarding challenges in pandemic preparedness by Madhav Marathe, presentations of five papers addressing spatial data mining challenges in the pandemic preparedness context and two papers addressing general issues in spatial data mining, and a discussion period for comparing, contrasting, identifying emergent themes, and so forth.

Schedule
1:30Welcome and introduction
Synthetic Data to Support Spatial Data Mining in Epidemiological Modeling
  Madhav Marathe
  [slides pdf]
1:45Regular papers
Model Based Spatial Data Mining for Power Markets
  Jiangzhuo Chen, V.S. Anil Kumar, Achla Marathe, Karla Atkins
  [pdf]
Mining and Visualizing Spatial Interaction Patterns for Pandemic Response
  Diansheng Guo
  [pdf]
Process Driven Spatial and Network Aggregation for Pandemic Response
  Robert Savell, Wayne Chung
  [pdf]
Containment Policies for Transmissible Diseases
  Shirish Tatikonda, Sameep Mehta, Srinivasan Parthasarathy
  [pdf]
Aggregation of Location Attributes for Prediction of Infection Risk
  Slobodan Vucetic, Hao Sun
  [pdf]
3:00Break
3:30Invited talk: Interaction Based Computer Modeling for Comprehensive Incident Characterization to Support Pandemic Preparedeness
  Madhav Marathe
  [abstract below; slides pdf]
4:30Short papers
Spatial-Temporal Data Mining in Traffic Incident Detection
  Ying Jin, Jing Dai, Chang-Tien Lu
  [pdf]
Mining Spatial Trends by a Colony of Cooperative Ant Agents
  Ashkan Zarnani, Masoud Rahgozar
  [pdf]
4:50Discussion: mining spatial data
5:30Adjourn
 

Interaction Based Computer Modeling for Comprehensive Incident Characterization to Support Pandemic Preparedness

Madhav Marathe
Dept. of Computer Science and
Network Dynamics and Simulation Science Laboratory,
Virginia Bio-Informatics Institute

Pandemic diseases such as the avian influenza are extreme infectious disease outbreaks. Pandemic influenza viruses have demonstrated their ability to spread worldwide within months, or weeks, and to cause infections in all age groups.

Traditional epidemiological modeling techniques for planning and responding during such events have focused on rate-based differential-equation models on completely mixing populations. Although these models are attractive from the standpoint of obtaining analytical results, they do not capture the complexity of human and/or vector interactions that serve as a mechanism for disease transmission. In addition, their use in formulating and implementing public policies in the event of epidemics is rather limited.

The talk will outline an interaction based approach based on a combination of network theory and discrete-event simulations to study epidemics in large urban areas. The approach is highly scalable and overcomes several weaknesses inherent in the traditional models. Moreover, it naturally yields a scalable computer assisted decision support system for pandemic planning and response.

I will conclude by discussing new research questions in spatial data mining suggested by the approach.