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  • 1
    Online Resource
    Online Resource
    Dordrecht :Springer Netherlands,
    Keywords: Climatic changes. ; Electronic books.
    Description / Table of Contents: This volume offers a scientific assessment of the effects of climatic variability and change on forest resources in the United States. It serves as a framework for managing U.S. forest resources in the context of climate change.
    Type of Medium: Online Resource
    Pages: 1 online resource (289 pages)
    Edition: 1st ed.
    ISBN: 9789400775152
    Series Statement: Advances in Global Change Research Series ; v.57
    DDC: 333.75140973
    Language: English
    Note: Intro -- Foreword -- Preface -- Acknowledgments -- Contents -- Contributors -- List of Figures -- List of Tables -- Part I Seeking the Climate Change Signal -- 1 Recent Changes in Climate and Forest Ecosystems -- 1.1 Atmospheric Environment -- 1.2 Trends and Extreme Events in Forest Ecosystems -- 1.3 Resilience of Ecosystems and Institutions -- References -- 2 Projected Changes in Future Climate -- 2.1 Methods for Projecting Future Climate -- 2.2 Projected Future Climate in the United States -- 2.2.1 Temperature -- 2.2.2 Precipitation -- 2.2.3 Drought -- 2.3 Sea Level Rise -- 2.4 Using Climate Projections to Estimate Effects on Forests -- References -- Part II Effects of Climatic Variability and Change -- 3 Forest Processes -- 3.1 Introduction -- 3.2 Carbon and Nutrient Cycling -- 3.2.1 Response of Forest C Cycling to Changing Environmental Conditions -- 3.2.2 Effects on Nutrient Cycling -- 3.3 Forest Hydrological Processes -- 3.3.1 Forest Evapotranspiration and Streamflow -- 3.3.2 Elevated Atmospheric CO2 -- 3.3.3 Changing Species Composition -- 3.3.4 Snowmelt -- 3.3.5 Soil Infiltration -- 3.3.6 Carbon and Water Tradeoffs -- 3.4 Tree Species Distribution -- 3.4.1 Modeling Species Distribution and Abundance -- 3.4.1.1 Species Distribution Models -- 3.4.1.2 Process Models -- 3.4.1.3 Demographic Studies -- 3.4.1.4 Dispersal and Migration Models -- 3.4.2 Assisted Migration -- 3.5 Effects of Altered Forest Processes and Functions on Ecosystem Services -- References -- 4 Disturbance Regimes and Stressors -- 4.1 Introduction -- 4.2 Wildfire -- 4.3 Insects and Pathogens -- 4.3.1 General Concepts -- 4.3.2 Climate and Biotic Disturbances -- 4.3.2.1 Bark Beetles -- -- 4.3.2.2 Defoliating Insects -- 4.3.2.3 Plant Pathogens -- 4.3.2.4 Non-native and Emerging Insects and Pathogens -- 4.3.3 Effects and Interactions with Other Disturbances. , 4.4 Invasive Plants -- 4.4.1 Introduction -- 4.4.2 Interactions Between Climate Change and Plant Invasion -- 4.4.2.1 Temperature, Precipitation, and CO2 -- 4.4.2.2 Disturbance and Resource Availability -- 4.5 Erosion, Landslides, and Precipitation Variability -- 4.5.1 Erosion and Landslides -- 4.5.2 Drought and Water Supply -- 4.6 Disturbance Interactions -- 4.6.1 Disturbances and Thresholds -- -- 4.6.2 Stress Complexes: From Conceptual to Quantitative Models -- 4.6.3 Uncertainties -- References -- 5 Climate Change and Forest Values -- 5.1 Introduction -- 5.2 Socioeconomic Context: Ownership, Values, and Institutions -- 5.2.1 Forest Ownership Patterns -- 5.2.2 Economic Contributions of Forests -- 5.2.3 Policy Context of Forest Management in Response to Climate Change -- 5.3 Rural Forests, Land-Use Change, and Climate Change -- 5.4 Trees and Climate in Urban Environments -- 5.5 Climate Change and the Wildland-Urban Interface -- 5.6 Social Interactions with Forests Under Climate Change -- 5.6.1 Natural Resource-Based Communities -- 5.6.2 Tribal Forests -- 5.6.3 Social Vulnerability and Climate Change -- 5.7 Conclusions -- References -- 6 Regional Highlights of Climate Change -- 6.1 Introduction -- 6.2 Alaska -- 6.3 Hawaii and the U.S.-Affiliated Pacific Islands -- 6.4 Northwest -- 6.5 Southwest -- 6.6 Great Plains -- 6.7 Midwest -- 6.8 Northeast -- 6.9 Southeast -- References -- Part III Responding to Climate Change -- 7 Managing Carbon -- 7.1 Introduction -- 7.2 Status and Trends in Forest-Related C -- 7.3 Monitoring and Evaluating Effects of C Management -- 7.4 Carbon Mitigation Strategies -- 7.4.1 Land Use Change: Afforestation, Avoiding Deforestation, and Urban Forestry -- 7.4.1.1 Afforestation -- 7.4.1.2 Avoiding Deforestation -- 7.4.1.3 Urban Forestry -- 7.5 In Situ Forest Carbon Management. , 7.5.1 Increasing Forest C by Decreasing Harvest and Protecting Large C Stocks -- 7.5.2 Managing Forest Carbon with Fuel Treatments -- 7.5.3 Increasing Forest C Stocks by Increasing Forest Growth -- 7.6 Ex Situ Forest C Management -- 7.6.1 Carbon in Forest Products -- 7.6.2 Product Substitution -- 7.6.3 Biomass Energy -- 7.7 Mitigation Strategies: Markets, Regulations, Taxes, and Incentives -- 7.7.1 Markets, Registries, and Protocols for Forest-Based Carbon Projects -- 7.7.2 Tax and Incentive Programs -- 7.8 The Role of Public Lands in C Mitigation -- References -- 8 Adapting to Climate Change -- 8.1 Principles for Forest Climate Adaptation -- 8.1.1 Adaptation Planning and Implementation -- 8.1.2 Education and Training -- 8.1.3 Science-Management Partnerships -- 8.1.4 Risk and Uncertainty -- 8.1.5 Toolkit Approach -- 8.1.6 No-Regrets Decision Making -- 8.1.7 Flexibility and Adaptive Learning -- 8.1.8 Mixed-Models Approach -- 8.1.9 Integration with Other Priorities and Forest Management Objectives -- 8.2 The Context for Adaptation -- 8.3 The Adaptation Process -- 8.3.1 Overview of Forest Adaptation Strategies -- 8.3.2 Strategic Steps for Adaptation -- 8.4 Tools and Resources for Adaptation and Implementation -- 8.5 Institutional Responses -- 8.5.1 U.S. Forest Service -- 8.5.2 U.S. Department of the Interior (DOI) -- 8.5.3 Regional Integrated Sciences and Assessment (RISA) -- 8.5.4 State and Local Institutions -- 8.5.4.1 Western Governors' Association (WGA) -- 8.5.4.2 Washington State Climate Response Strategy -- 8.5.4.3 Minnesota State Climate Response -- 8.5.4.4 North Carolina State Climate Response -- 8.5.4.5 State University and Academic Responses -- 8.5.5 Industrial Forestry -- 8.5.6 Native American Tribes and Nations -- 8.5.7 Nongovernmental Organizations -- 8.5.7.1 Pacific Forest Trust (PFT) -- 8.5.7.2 The Nature Conservancy (TNC). , 8.5.7.3 Trust for Public Land (TPL) -- 8.5.7.4 The Wilderness Society (TWS) -- 8.5.8 Ski Industry -- 8.6 Regional Responses -- 8.6.1 Western United States -- 8.6.1.1 Olympic National Forest/Olympic National Park (ONFP), Washington -- 8.6.1.2 Inyo National Forest and Devils Postpile National Monument, California -- 8.6.1.3 Shoshone National Forest, Wyoming -- 8.6.1.4 The Strategic Framework for Science in Support of Management in the Southern Sierra Nevada, California (SFS) -- 8.6.2 Southern United States -- 8.6.3 Northern United States -- 8.6.4 National Example-Watershed Vulnerability Assessment -- 8.7 Assessment: Challenges and Opportunities -- 8.7.1 Assessing Adaptation Response -- 8.7.2 Adaptation Challenges -- 8.7.2.1 Education, Awareness, and Empowerment -- 8.7.2.2 Policy, Planning, and Regulations -- 8.7.2.3 Monitoring and Adaptive Management -- 8.7.2.4 Financial Barriers -- 8.7.3 A Vision for Climate Smart Forest Management -- References -- 9 Risk Assessment -- 9.1 A Risk-Based Framework -- 9.2 Risk Case Studies -- 9.2.1 Water Resources -- 9.2.2 A Framework for Assessing Climate Change Risks to Forest Carbon Stocks -- 9.2.3 Risk Assessment for Wildfire in the Western United States -- 9.2.4 Risk Assessment for Forest Habitats: Case Study in Northern Wisconsin -- 9.2.5 Risk Assessment for Bird Species: A Case Study in Northern Wisconsin -- References -- Part IV Scientific Issues and Priorities -- 10 Research and Assessment in the Twenty-First Century -- 10.1 Improving the Accuracy and Certainty of Climate Change Science -- 10.2 Toward an Ongoing National Assessment -- 10.3 Improving Risk Assessment -- References -- Index.
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  • 2
    Publication Date: 2016-04-20
    Description: The historical and presettlement relationships between drought and wildfire are well documented in North America, with forest fire occurrence and area clearly increasing in response to drought. There is also evidence that drought interacts with other controls (forest productivity, topography, fire weather, management activities) to affect fire intensity, severity, extent, and frequency. Fire regime characteristics arise across many individual fires at a variety of spatial and temporal scales, so both weather and climate – including short- and long-term droughts – are important and influence several, but not all, aspects of fire regimes. We review relationships between drought and fire regimes in United States forests, fire-related drought metrics and expected changes in fire risk, and implications for fire management under climate change. Collectively, this points to a conceptual model of fire on real landscapes: fire regimes, and how they change through time, are products of fuels and how other factors affect their availability (abundance, arrangement, continuity) and flammability (moisture, chemical composition). Climate, management, and land use all affect availability, flammability, and probability of ignition differently in different parts of North America. From a fire ecology perspective, the concept of drought varies with scale, application, scientific or management objective, and ecosystem.
    Print ISSN: 1354-1013
    Electronic ISSN: 1365-2486
    Topics: Biology , Energy, Environment Protection, Nuclear Power Engineering , Geography
    Published by Wiley-Blackwell
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  • 3
    Publication Date: 2018-03-13
    Description: Building resilience to natural disturbances is a key to managing forests for adaptation to climate change. To date, most climate adaptation guidance has focused on recommendations for frequent-fire forests, leaving few published guidelines for forests that naturally experience infrequent, stand-replacing wildfires. Because most such forests are inherently resilient to stand-replacing disturbances, and burn severity mosaics are largely indifferent to manipulations of stand structure (i.e., weather-driven, rather than fuel-driven fire regimes), we posit that pre-fire climate adaptation options are generally fewer in these regimes relative to others. Outside of areas of high human value, stand-scale fuel treatments commonly emphasized for other forest types would undermine many of the functions, ecosystem services, and other values for which these forests are known. For stand-replacing disturbance regimes, we propose that (1) managed wildfire use (e.g., allowing natural fires to burn under moderate conditions) can be a useful strategy as in other forest types, but likely confers fewer benefits to long-term forest resilience and climate adaptation, while carrying greater socio-ecological risks; (2) reasoned fire exclusion (i.e., the suppression component of a managed wildfire program) can be an appropriate strategy to maintain certain ecosystem conditions and services in the face of change, being more ecologically justifiable in long-interval fire regimes and producing fewer of the negative consequences than in frequent-fire regimes; (3) low-risk pre-disturbance adaptation options are few, but the most promising approaches emphasize fundamental conservation biology principles to create a safe operating space for the system to respond to change (e.g., maintaining heterogeneity across scales and minimizing stressors); and (4) post-disturbance conditions are the primary opportunity to implement adaptation strategies (such as protecting live tree legacies and testing new regeneration methods), providing crucial learning opportunities. This approach will provide greater context and understanding of these systems for ecologists and resource managers, stimulate future development of adaptation strategies, and illustrate why public expectations for climate adaptation in these forests will differ from those for frequent-fire forests.
    Electronic ISSN: 2150-8925
    Topics: Energy, Environment Protection, Nuclear Power Engineering
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