2 research outputs found

    Modelling optimal location for pre-hospital helicopter emergency medical services

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    <p>Abstract</p> <p>Background</p> <p>Increasing the range and scope of early activation/auto launch helicopter emergency medical services (HEMS) may alleviate unnecessary injury mortality that disproportionately affects rural populations. To date, attempts to develop a quantitative framework for the optimal location of HEMS facilities have been absent.</p> <p>Methods</p> <p>Our analysis used five years of critical care data from tertiary health care facilities, spatial data on origin of transport and accurate road travel time catchments for tertiary centres. A location optimization model was developed to identify where the expansion of HEMS would cover the greatest population among those currently underserved. The protocol was developed using geographic information systems (GIS) to measure populations, distances and accessibility to services.</p> <p>Results</p> <p>Our model determined Royal Inland Hospital (RIH) was the optimal site for an expanded HEMS – based on denominator population, distance to services and historical usage patterns.</p> <p>Conclusion</p> <p>GIS based protocols for location of emergency medical resources can provide supportive evidence for allocation decisions – especially when resources are limited. In this study, we were able to demonstrate conclusively that a logical choice exists for location of additional HEMS. This protocol could be extended to location analysis for other emergency and health services.</p

    Do speed cameras produce net benefits? Evidence from British Columbia, Canada

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    Traffic collisions kill about 43,000 Americans a year. Worldwide, road traffic injuries are the leading cause of death by injury and the ninth leading cause of all deaths. Photo Radar speed enforcement has been implemented in the United States and many other industrialized countries, yet its cost-effectiveness from a societal viewpoint, taking all significant impacts into account, has not been reported. This paper fills this gap, reporting on a Photo Radar traffic safety program introduced in 1996 in British Columbia, Canada, and incorporating the results of rigorous statistical analyses on speed and crash impacts into a comprehensive cost-benefit analysis from both societal and sponsoring-agency perspectives. The study reveals that the Rhoto Radar Program cost C27millionperyearin2001Canadiandollars(?US27 million per year in 2001 Canadian dollars (?US21 million) and generated benefits valued at 142millionperyear(?US142 million per year (?US109 million), for net societal benefits of C115millionperyear(?US115 million per year (?US88 million). It was estimated that the sponsoring agency saved C38million(?US38 million (?US29 million) annually in claim costs. These results are robust to plausible alternate assumptions. Societal net benefits become negative only if the reduction in injuries and fatalities is one standard error below the expected value, or if private travel time is valued at or above C$15 per hour. Agency claim cost savings are greater than program costs under all scenarios tested. These results are likely applicable to jurisdictions in developed countries with similar traffic infrastructure: Greater use of highway photo radar speed enforcement would be good public policy. © 2006 by the Association for Public Policy Analysis and Management
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