NEHRP Clearinghouse

Title
Linking Lifeline Infrastructure Performance and Community Disaster Resilience: Models and Multi-Stakeholder Processes.
File
PB2008112234.pdf
Author(s)
Chang, S. E.; Pasion, C.; Tatebe, K.; Ahmad, R.
Source
Multidisciplinary Center for Earthquake Engineering Research, Buffalo, NY.; National Science Foundation, Washington, DC., March 3, 2008, 158 p.
Identifying Number(s)
MCEER-08-0004
Abstract
This report examines how lifeline infrastructure performance in disasters can be linked to communities disaster resilience. The scope is limited to the social and economic dimensions of resilience, and focuses on the case of the Los Angeles Department of Water and Power (LADWP). The research links infrastructure performance and community resilience through two channels: first, through quantitative modeling and development of decision-support tools, and second, through exploring the role of community engagement in defining performance goals. The research develops a new simulation model of direct economic loss from lifeline disruption in disasters. It further develops a model to estimate the demand for public shelter in a disaster. A second line of research then explores issues related to how such socio-economic impacts can be considered in utilities mitigation decision-making, what are appropriate seismic performance goals for utilities, and by what processes these can be determined. The issues are explored through a literature review of participatory processes in environmental risk management and a series of interviews with experts, utilities, and representatives from a broad range of community stakeholder groups. This research provides background, quantitative models, preliminary community input, and recommendations for a process by which utilities and communities can assess and improve their disaster resilience.
Keywords
Economic loss models; Models; Risk management; Communities disaster resilience; Shelter models; Performance objectives; Disasters; Earthquake engineering; Infrastructures; Socioeconomic factors; Quantitative modeling; Utilities; Seismic effects; Lifeline infrastructure performance; Los Angeles Department of Water and Power (LADWP)