This book investigates the feasibility of developing a tool that enables fire departments to estimate the value of their services to a community in terms of environmental and financial impact. This book provides a summary of this effort, which resulted in development of a prototype tool for fire department use. The impact of fire on a community is usually measured in terms of the number of fires, human casualties, and property damage. There are, however, more subtle impacts of fire that are not so easily estimated but contribute to the measure of overall performance of the fire service in protecting a community. While environmental and economic impact assessment methodologies exist as separate systems, they generally require a high level of knowledge that is outside the scope of most fire departments. A relatively simple methodology for estimating the environmental and economic impact of fires helps communities understand the degree to which fire department activities can benefit a community's environmental and economic well-being. The scope and approach for this prototype tool is explained, including risk assessment, cost benefit analysis, life cycle assessment, integration and implementation, and sensitivity and uncertainty analysis. It includes multiple case studies and offers statistical support for future expansion of the tool. Fire service professionals will find this a useful new approach to presenting value in a community, as well as a method for examining their own financial and environmental plans.

Five different fire service thermal imagers were evaluated by the National Institute of Standards and Technology (NIST) Fire Research Division using performance metrics and testing protocols that were developed specifically for evaluating thermal imaging cameras utilized by firefighters, many of which have subsequently been integrated into Draft NFPA 1801 Standard on Thermal Imagers for the Fire Service 1]. The performance metrics for these tests were Field of View (FOV), Nonuniformity (NU), Spatial Resolution (SR), Effective Temperature Range (ETR), and Thermal Sensitivity (TS).