Kevin Granville, S. Cao, D. Woolford, Colin B. McFayden
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We analyze data of industrial forestry-caused wildland fires ignited on Crown forest land in Ontario from 1976 to 2019. This type of retrospective analysis is important for monitoring the performance of Ontario’s prevention and mitigation efforts and providing insight for the future, especially in a changing environment. Our findings provide evidence of MIOP succeeding at its goal of mitigating the negative impact of ignited industrial forestry fires when compared against previous regulations.\n Study Implications: Regulations are one avenue for mitigating risk associated with the accidental ignition of fires by forestry operations. The Modifying Industrial Operations Protocol (MIOP) aims to be more flexible than its predecessor, so we investigate whether forestry-caused fires are tending to grow larger or smaller under MIOP compared to previous time periods. Quantile regression allows us to model individual quantiles of the distribution of incremental growth, the difference between a fire’s discovery and final sizes, while controlling for several confounders that influence growth. We find evidence of improvements to the right tail of this distribution, with fires growing less under MIOP.","PeriodicalId":12749,"journal":{"name":"Forest Science","volume":"163 1","pages":""},"PeriodicalIF":1.5000,"publicationDate":"2023-05-26","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Quantile Regression Analysis of the Modifying Industrial Operations Protocol’s Impact on Forestry Fire Incremental Growth\",\"authors\":\"Kevin Granville, S. Cao, D. Woolford, Colin B. McFayden\",\"doi\":\"10.1093/forsci/fxad027\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"\\n Governmental legislation, regulations, and policies are used to prevent and mitigate the negative impact of human-caused wildland fires. In Ontario, Canada, the Modifying Industrial Operations Protocol (MIOP) aims to manage and limit the risk associated with fires ignited because of industrial forestry operations while maintaining flexibility in terms of daily restrictions. The MIOP was enacted in Ontario in 2008, when it replaced the Woods Modifications Guidelines, which had been in effect since 1989. We use quantile regression to quantify how the distribution of incremental growth has changed when contrasting three prevention time periods (MIOP, Woods Guidelines, Pre-Woods) while controlling for several possible confounding variables that drive fire growth. We analyze data of industrial forestry-caused wildland fires ignited on Crown forest land in Ontario from 1976 to 2019. This type of retrospective analysis is important for monitoring the performance of Ontario’s prevention and mitigation efforts and providing insight for the future, especially in a changing environment. Our findings provide evidence of MIOP succeeding at its goal of mitigating the negative impact of ignited industrial forestry fires when compared against previous regulations.\\n Study Implications: Regulations are one avenue for mitigating risk associated with the accidental ignition of fires by forestry operations. The Modifying Industrial Operations Protocol (MIOP) aims to be more flexible than its predecessor, so we investigate whether forestry-caused fires are tending to grow larger or smaller under MIOP compared to previous time periods. Quantile regression allows us to model individual quantiles of the distribution of incremental growth, the difference between a fire’s discovery and final sizes, while controlling for several confounders that influence growth. 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Quantile Regression Analysis of the Modifying Industrial Operations Protocol’s Impact on Forestry Fire Incremental Growth
Governmental legislation, regulations, and policies are used to prevent and mitigate the negative impact of human-caused wildland fires. In Ontario, Canada, the Modifying Industrial Operations Protocol (MIOP) aims to manage and limit the risk associated with fires ignited because of industrial forestry operations while maintaining flexibility in terms of daily restrictions. The MIOP was enacted in Ontario in 2008, when it replaced the Woods Modifications Guidelines, which had been in effect since 1989. We use quantile regression to quantify how the distribution of incremental growth has changed when contrasting three prevention time periods (MIOP, Woods Guidelines, Pre-Woods) while controlling for several possible confounding variables that drive fire growth. We analyze data of industrial forestry-caused wildland fires ignited on Crown forest land in Ontario from 1976 to 2019. This type of retrospective analysis is important for monitoring the performance of Ontario’s prevention and mitigation efforts and providing insight for the future, especially in a changing environment. Our findings provide evidence of MIOP succeeding at its goal of mitigating the negative impact of ignited industrial forestry fires when compared against previous regulations.
Study Implications: Regulations are one avenue for mitigating risk associated with the accidental ignition of fires by forestry operations. The Modifying Industrial Operations Protocol (MIOP) aims to be more flexible than its predecessor, so we investigate whether forestry-caused fires are tending to grow larger or smaller under MIOP compared to previous time periods. Quantile regression allows us to model individual quantiles of the distribution of incremental growth, the difference between a fire’s discovery and final sizes, while controlling for several confounders that influence growth. We find evidence of improvements to the right tail of this distribution, with fires growing less under MIOP.
期刊介绍:
Forest Science is a peer-reviewed journal publishing fundamental and applied research that explores all aspects of natural and social sciences as they apply to the function and management of the forested ecosystems of the world. Topics include silviculture, forest management, biometrics, economics, entomology & pathology, fire & fuels management, forest ecology, genetics & tree improvement, geospatial technologies, harvesting & utilization, landscape ecology, operations research, forest policy, physiology, recreation, social sciences, soils & hydrology, and wildlife management.
Forest Science is published bimonthly in February, April, June, August, October, and December.