Project 171024

Evaluation of Mitigation Strategies for Pandemic Preparedness in Canada

171024

Evaluation of Mitigation Strategies for Pandemic Preparedness in Canada

$94,750
Project Information
Study Type: Other Modeling_Study
Therapeutic Area: Infectious_Disease
Research Theme: Health systems / services
Disease Area: influenza pandemic
Data Type: Canadian
Institution & Funding
Principal Investigator(s): Moghadas, Seyed M; Pizzi, Nicolino (Nick); Wu, Jianhong
Co-Investigator(s): Alexander, Murray; Driedger, S. Michelle; Fisman, David N; Ping, Yan; Roos, Leslie L
Institution: University of Winnipeg
CIHR Institute: Infection and Immunity
Program: Catalyst Grant: Pandemic Preparedness
Peer Review Committee: Pandemic Preparedness and Outbreak Team Leader
Competition Year: 2008
Term: 1 yr 0 mth
Abstract Summary

Given the threat of an unprecedented spread of the highly pathogenic avian influenza strain H5N1 in humans, and considering the high degree of morbidity and mortality of previous pandemics, research into identifying effective disease control measures is an unavoidable priority. In light of this, the specific objectives of this proposal are: (i) Evaluate the impact of public health mitigation strategies on the spread of pandemic influenza in Canada; and (ii) Develop a predictive framework for subsequent evolution of the virus during a pandemic, which can be used to assess the likely outcomes of public health interventions. These objectives will be achieved through a reliable, efficient, and adaptable computational system that will be thoroughly evaluated by our stakeholder advisory group from Canadian healthcare departments and agencies involved in pandemic preparedness. Prior to the emergence of a novel pandemic strain, it is not possible to study the epidemiologic impact of disease or interventions in a real world environment. Our methodology will provide a valuable framework for synthesizing available biological and epidemiological data. By translating virological and clinical data into epidemiologically meaningful parameters, disparate pieces of information can be transformed into a framework that optimizes health policy decisions. The incorporation of population heterogeneity into a contact network model can permit the development of more nuanced, targeted, or geographically specific control strategies. Economic parameters can also be incorporated into network models, allowing estimation of cost-effectiveness and optimization of resource allocation in the face of competing health and distribution priorities. Finally, this framework is useful for the exploration of uncertainties and to (i) construct "best and worst case" projections, (ii) identify important areas for future research, and (iii) estimate the economic attractiveness of such research.

Research Characteristics

This project includes the following research characteristics:

AI/Machine Learning
Big Data Analytics
Cost Effectiveness
Budget Impact
Health Technology Assessment
Resource Utilization
Productivity Outcomes
Implementation Science
Policy Evaluation
Health System Integration
Scalability Assessment
Barrier Identification
Machine Learning Analysis
Novel Biostatistics
Comorbidity Focus
Pandemic Related
Social Determinants
Health Equity
Knowledge Translation Focus
Equity Considerations
Vulnerable Populations
Study Justification

"Evaluate the impact of public health mitigation strategies on the spread of pandemic influenza in Canada; and Develop a predictive framework for subsequent evolution of the virus during a pandemic, which can be used to assess the likely outcomes of public health interventions."

Novelty Statement

"By translating virological and clinical data into epidemiologically meaningful parameters, disparate pieces of information can be transformed into a framework that optimizes health policy decisions."

Methodology Innovation

using a computational system with contact network models to evaluate pandemic mitigation strategies in Canada

Keywords
Computer Simulations Influenza Pandemic Knowledge Translation And Policy Analysis Public Health Mitigation Strategies Social Structure And Network Dynamics Transmission Routs