4.7 Article

Evaluating the Climate Effects of Reforestation in New England Using a Weather Research and Forecasting (WRF) Model Multiphysics Ensemble

Journal

JOURNAL OF CLIMATE
Volume 29, Issue 14, Pages 5141-5156

Publisher

AMER METEOROLOGICAL SOC
DOI: 10.1175/JCLI-D-15-0286.1

Keywords

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Funding

  1. National Science Foundation Experimental Program to Stimulate Competitive Research (EPSCoR)
  2. New Hampshire EPSCoR Ecosystems and Society Program [EPS-1101245]
  3. NASA Terrestrial Ecology Program [NNX12AK56G S01]
  4. Northern Ecosystems Research Cooperative (NERC)
  5. National Science Foundation [EF-1048481]
  6. NSF
  7. Division Of Environmental Biology
  8. Direct For Biological Sciences [1633026] Funding Source: National Science Foundation
  9. EPSCoR
  10. Office Of The Director [1101245] Funding Source: National Science Foundation

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The New England region of the northeastern United States has a land use history characterized by forest clearing for agriculture and other uses during European colonization and subsequent reforestation following widespread farm abandonment. Despite these broad changes, the potential influence on local and regional climate has received relatively little attention. This study investigated wintertime (December through March) climate impacts of reforestation in New England using a high-resolution (4 km) multiphysics ensemble of the Weather Research and Forecasting Model. In general, the conversion from mid-1800s cropland/grassland to forest led to warming, but results were sensitive to physics parameterizations. The 2-m maximum temperature (T2max) was most sensitive to choice of land surface model, 2-m minimum temperature (T2min) was sensitive to radiation scheme, and all ensemble members simulated precipitation poorly. Reforestation experiments suggest that conversion of mid-1800s cropland/grassland to present-day forest warmed T2max +0.5 to +3K, with weaker warming during a warm, dry winter compared to a cold, snowy winter. Warmer T2max over forests was primarily the result of increased absorbed shortwave radiation and increased sensible heat flux compared to cropland/grassland. At night, T2min warmed +0.2 to +1.5K where deciduous broadleaf forest replaced cropland/grassland, a result of decreased ground heat flux. By contrast, T2min of evergreen needleleaf forest cooled -0.5 to -2.1 K, primarily owing to increased ground heat flux and decreased sensible heat flux.

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