Overview of Proposed Climate Sensitivity Research.

Slides:



Advertisements
Similar presentations
Cascading Thresholds Subsistence-related changes Warming to fire to permafrost loss to wetland drying to subsistence change Warming to fire to altered.
Advertisements

Resilience and Change in Arctic Terrestrial Ecosystems: A Key Role in the Arctic System Terry Chapin University of Alaska Fairbanks.
The Tundra Carbon Balance - some recent results with LPJ-GUESS contributions Paul Miller Ben Smith, Martin Sykes, Torben Christensen, Arnaud Heroult, Almut.
Modeling Changes in Vegetation Dynamics in Alaska: Implications for Arctic Herbivores Eugénie Euskirchen ESPSCoR All Hands Meeting, May , 2010.
A Synthesis of Terrestrial Carbon Balance of Alaska and Projected Changes in the 21 st Century: Implications for Climate Policy and Carbon Management To.
Impacts of Climate Change on Western Forests Dr. Mark Johnston Saskatchewan Research Council and Prairie Adaptation Research Collaborative.
Konza Prairie Long-Term Ecological Research Station Tall Grass Prairie Ecosystem.
Drought Preparedness with feedback from YOU Julie Kalansky April 8 th, 2015 Sonoma County Adaptation Forum.
Ecosystems- Characteristics and Cycles
Fire effects on vegetation recovery Summary of Results and Project Deliverables Jill Johnstone, Teresa Hollingsworth, Emily Bernhart & Katie Villano.
1)Direct linkages between climate change and altered disturbance (Rupp/Jones);
Threshold Change Thresholds with a landscape or regional effect Driving variable Response variable.
The overall goal of the breakout group activity is to help put together a road map of how we can achieve more effective integration a) among the tasks.
Boreal Forest and Fire. sq. mi.sq. km. Boreal Forests Other Forests
Effects of Climatic Variability and Change on Forest Resources Dave Peterson Forest Service – PNW Research Station Pacific Wildland Fire Sciences Lab UW.
Climatic variability, land-cover change, and forest hydrology in the Pacific Northwest David W. Peterson JISAO Climate Impacts Group Forest Hydrology.
Climate Change and its impact on Forests in Europe and North America Andrew J. R. Gillespie, Ph. D. United States Environmental Protection Agency.
AP Biology Earth’s biomes. AP Biology Environmental factors  Abiotic factors  non-living chemical & physical factors  temperature  light  water 
Ecosystem processes and heterogeneity Landscape Ecology.
3.3 Studying Organisms in Ecosystems
Abiotic Factors- The non living factors in an ecosystem that affect the survival chances for an organism in that ecosystem.
The observed responses of ecosystem CO2 exchange to climate variation from diurnal to annual time scale in the northern America. C. Yi, K.J. Davis, The.
Blending Science with Traditional Ecological Knowledge  Frank K. Lake  Environmental Science, Graduate Ph.D program  US Forest Service- Redwood Sciences.
Biomes. Tropical Rainforests Physical --- Warm & humid, found near equator, sunlight constant throughout the year Physical --- Warm & humid, found near.
Climate Sensitivity of Boreal Forest Ecosystem Carbon Dynamics A. David McGuire and Colleagues BNZ LTER Annual Symposium 5 March 2009.
Climate Feedback Research: Consequences of climate and disturbance changes for the Carbon feedback in Interior Alaska Patrick Endres, AK photographics.
Thresholds and State Changes Climate Rate and Trajectory of Successional Changes in Ecosystem Processes Sensitivity and Response to Change Frequency and.
Fire Ecology and Fire Regimes in Boreal Ecosystems Oct 19, 2010.
The Biosphere: An Introduction to Biomes. Earths Biomes Ecology Organization Population Community Ecosystem -scientific study of the interactions between.
How Does Climate Change Affect Biomass Accumulation in Boreal Ecosystems? Earth Science B Period 2012.
BNZ LTER Program Role in the National LTER Network LTER Network Decadal Plan 2009 LTER All Scientists Meeting.
The study of the interactions among organisms and their environment. Ecologists are scientists who study these relationships. Two groups of environmental.
Data Management Developing a Venue for Synthesis Jason Downing BNZ Data Management 2009.
How do forest ecosystems respond to environmental change?
Overview of Proposed Climate Sensitivity Research.
Ecology Communities and Biomes. Limiting Factors  environmental factors that affect an organism’s ability to survive  Two types  Density-dependent.
Charge to Breakout Groups How do we achieve more effective integration? 1. Among climate sensitivity tasks 2. With tasks in successional and threshold.
Scott Goetz Changes in Productivity with Climate Change at High Latitudes: the role of Disturbance.
(Name of biome) Your names Per ____ (Date). 1. Pictures of (name of biome) Add at least 4 pictures of your biome use several slides if needed.
Demonstration Sites What are they, and who cares?.
Habitat Diversity What is the link between Evolution & Adaptation, & the diversity of Habitats found on Earth?
Transitions in Rangeland Evaluations David A. Pyke & Jeffrey E. Herrick Jornada Experimental Range Forest and Rangeland Ecosystem Science Center.
State of Data Management at BNZ-LTER Jason Downing BNZ-LTER Data Manager.
 Comparing Vegetation in a Riparian Zone to an Upland Area in a Colorado Montane Forest By: Abby Branson Vegetation Ecology, Summer 2013 Mountain Research.
Modeling Modes of Variability in Carbon Exchange Between High Latitude Ecosystems and the Atmosphere Dave McGuire (UAF), Joy Clein (UAF), and Qianlai.
BIOMES CECE FRODO PATRICK ALEX SARAH. BIOMES TROPICAL DRY FOREST  The tropical and subtropical dry broadleaf biome, also known as Tropical dry forest.
Growing season dynamics in high-latitude ecosystems: relations to soil thermal regimes, productivity, carbon sequestration, and atmospheric heating Bonanza.
Coupling between fire and permafrost Effects of permafrost thaw on surface hydrology between better- drained vs. poorly- drained ecosystems Consequences.
Ecosystems have a lifecycle that usually ends with a natural “disaster” such as a forest fire. The result is a clear fertile area for plants to colonize.
Bright blue marble floating in space Ecology Chapter 52.
Midsummer Warming/Drought in the Boreal Forest. The inter- and intra-seasonal relationships between evaporation and rainfall, which are linked to summer.
Climate Sensitivity of Thinleaf Alder Growth in Interior Alaska: Implications for N-Fixation Inputs to River Floodplains Dana Nossov 1,2, Roger Ruess 1,
What Are Biomes?.
Band Dendrometer, Inventory, and Litterfall Data A.D. McGuire, R.W. Ruess, J.S. Clein, J.Yarie Ecological Question What is the sensitivity of AGNPP to.

Boreal forest resilience Some initial thoughts BNZ LTER meeting, March 2009 Terry Chapin & Jill Johnstone.
Do Nows: January 4 – 8Do Nows: January 4 – 8. Do Now: 1. Temperate forests include all of the following except a. Tundra b. deciduous forest c. evergreen.
Name of biome Your names. Pictures of ______ Location of ________ Add map showing location of biome worldwide.
Tuesday, 17 January 2006 Synthesis of Arctic System Science Projects Online Meeting.
Detecting Thresholds How to detect thresholds? Major state changes (talik formation), first order understanding of ecosystem function (WT controls on peatland.
Climate Data. Scope of Core Data Air temperature Precipitation Rain Snow Relative Humidity Barometric Pressure Solar Radiation Wind.
Feeding Across the ESN: Studying Herbivore-Ecosystem Interactions Following Fire in Black Spruce Forests Characterizing and inferring patterns and processes.
Climate Sensitivity Succession Regime Shifts Integration Current Proposal: The Dynamics of Change Next Proposal (due in < 4 years!!) Human Dimensions K-12.
Planning for Thursday’s Morning and Afternoon breakout groups Questions for report back at end of morning and afternoon sessions: (5-7 minutes each) What.
Earth’s Biomes Chapter 20.  Biomes are dependent on two very important environmental factors: Average Temperature and Average Rainfall  Biomes are named.
Unit 9 Lesson 2 Ecology of Terrestrial Ecosystems Copyright © Houghton Mifflin Harcourt Publishing Company.
Bright blue marble spinning in space
Earth’s Biomes.
Describing and Monitoring Rangelands:
BIOMES AND ECOSYSTEMS.
Presentation transcript:

Overview of Proposed Climate Sensitivity Research

(Serreze et al., Climatic Change, 2000) High Latitude Temperature Trends ( ) Annual data °C per decade

Courtesy of G. Juday

June-August Water Deficits in Alaska Oechel et al Nature

Courtesy of G. Juday

Date of leaf-out in Fairbanks (Chena Ridge) Data courtesy of J. Anderson

Overview of Proposed Climate Sensitivity Research Hypothesis: The effects of climate change on boreal ecosystem processes are primarily indirect, acting through temperature and precipitation effects on other environmental parameters. The most important of these indirect effects differ among landscape units, with south-facing uplands being most responsive to summer drought (conifers) and season length (deciduous), north-facing uplands to early-winter soil temperature, wetlands to water table height, and active floodplains to river height, which correlates positively with summer temperature and glacial melt.

Proposed Climate Sensitivity Tasks Question 1. How has climate change altered the physical environment of the BNZ LTER site and how have different stand types (conifer vs. deciduous; upland vs. floodplain vs. wetland) differed in their responses to the direct and indirect effects of summer warming? C1 - Conduct a retrospective analysis of the relationship of litterfall, diameter increment, and seed production to thaw date, summer air temperature, growing degree days, daily temperature maxima and minima, summer soil temperature and moisture, early-winter soil temperature, and precipitation. (McGuire, J. Hollingsworth) C2 - Use tree-ring analysis to assess the sensitivity of tree-ring width to climatic variation. (Juday, Lloyd) C3 - Document the effects of climate variability, vegetation type, and predation on herbivore abundance. (Kielland, Werner, Hanley) C4 - Manipulate soil moisture to assess its effects on NPP and other ecosystem processes. (Yarie, Turetsky, Harden, McGuire, Valentine)

Proposed Climate Sensitivity Tasks Question 2. How does winter warming influence ecosystem processes in Alaska’s boreal forest? C5 - Document the relative importance of winter and summer processes through observations and field experiments. (Kielland, Turetsky, Harden, McGuire)

Synthesis of Climate Sensitivity Motivational Talks (this morning) Breakout Groups (this afternoon) Summarized Plan of Action (tomorrow morning)

Synthesis of Climate Sensitivity Motivational Talks (this morning) 1. Paleo Perspectives – Andi Lloyd 2. Growing Season Changes – Eugenie Euskirchen 3. Summer Drought – John Yarie 4. Winter Ecology – Knut Kielland Breakout Groups (this afternoon) Summarized Plan of Action (tomorrow morning)

Synthesis of Climate Sensitivity Motivational Talks (this morning) Breakout Groups (this afternoon) 1. How do we achieve more effective integration? 2. What product(s) should be generated by the synthesis? 3. How should we organize monthly meetings this year? Summarized Plan of Action (tomorrow morning)

Charge to Breakout Groups How do we achieve more effective integration? 1. Among climate sensitivity tasks 2. With tasks in successional and threshold themes 3. With the synthesis tasks 4. Across the LTER Network What product(s) should be generated by the synthesis? 1. BioScience Paper? 2. Special issue of a journal? Identify three or more climate sensitivity talks for the monthly meetings (list of titles and speakers).

Table 6. Major activities of the BNZ research program, showing ongoing research (black) and new research initiatives (red). Task numbers are in parenthesis. Climate sensitivity Succession Thresholds Drivers Met stations (C1) Exptl. Burn (S2) Thermokarst (S3) Rain exclusion (C4) Fire record analysis (S2) Fire severity (S2, T2) Snowmelt exclusion (C4) 2004 fire monitoring (S2) Hydrologic change (T1) Winter warming (C4) Hydrologic synthesis (S1) Watertable manipula. (C4) Biotic Biomass & NPP (C1) Stand-age maps (S2) Disease & insect response Tree rings (C2) Species effects (S5) impacts (T3) Insect monitoring (C3) Invasive species (S5) Hare & moose monitor (C3) Herbivore exclosures (S6) Biogeochem. monitor (C1) Plant & animal diversity (C1) Seasonal biogeochem. (C5) Fungal diversity (S7) Landscape Community mapping (I/S2) Succession models (S4) Watershed proc. (I/S1) response Wetland transects (C1) Biogeochem models (I/S3) Threshold model. (I/S4) Societal Ecosyst. service synth. (I/S5) Ecosyst. service model (I/S3) impacts Synthesis focus (I/S6) Climate feedbacks (I/S3)

Charge to Breakout Groups How do we achieve more effective integration? 1. Among climate sensitivity tasks 2. With tasks in successional and threshold themes 3. With the synthesis tasks 4. Across the LTER Network What product(s) should be generated by the synthesis? 1. BioScience Paper? 2. Special issue of a journal? Identify three or more climate sensitivity talks for the monthly meetings (list of titles and speakers).

Breakout Groups Direct Responses to Summer Warming Indirect Responses to Summer Warming Winter Warming/Changes in Growing Season