Abstract
Peatlands play a crucial role in global carbon storage, yet their resilience to climate change remains uncertain. This study presents a novel method for generating long-term (\textgreater1000 years) site-specific climate data to drive peatland ecohydrological models. Using meteorological observations, we employ the Long Ashton Research Station Weather Generator (LARS-WG) to produce stochastic climate series for precipitation and temperature. The method integrates Holocene climate reconstructions from the EPOCH-2 database to simulate paleoclimate trends and interpolates climate projections based on Shared Socioeconomic Pathways (SSP) from CMIP6 models. Finally, a time series of potential evapotranspiration is calculated using a modified version of the Thornthwaite equation. This approach ensures continuity in climate inputs for peatland modelling, aiding in the assessment of long-term climate impacts on carbon dynamics. Our method provides a replicable framework for other regions, supporting improved climate-driven peatland simulations.
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Long-term paleoclimate data with climate projections tailored to specific sites are scarcely available
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This research outlines a simple method for generating climate series for driving ecosystem models
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Uses open-source resources and databases that are applicable across Europe
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Long-term paleoclimate data with climate projections tailored to specific sites are scarcely available
•
This research outlines a simple method for generating climate series for driving ecosystem models
•
Uses open-source resources and databases that are applicable across Europe
Original language | English |
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Article number | 103265 |
Journal | MethodsX |
Early online date | 13 Mar 2025 |
DOIs | |
Publication status | Published - 28 Mar 2025 |