Parameters of 150 temperate and boreal tree species and provenances for an individual-based forest landscape and disturbance model

作者：Dominik Thom, Werner Rammer, Katharina Albrich, Kristin H. Braziunas, Laura Dobor, Christina Dollinger, Winslow D. Hansen, Brian J. Harvey, Tomáš Hlásny, Tyler J. Hoecker, Juha Honkaniemi, William S. Keeton, Yuta Kobayashi, Sofia Saenz Kruszka, Akira Mori, Jenna E. Morris, Stephen Peters-Collaer, Zak Ratajczak, Trond Simensen, Ilié Storms, K. Suzuki, Anthony R. Taylor, Monica G. Turner, Susan Willis, Rupert Seidl · 发表于：Data in Brief · 年份：2024 · DOI：10.1016/j.dib.2024.110662 · 被引用次数：17 · 研究领域：Ecology and Vegetation Dynamics Studies、Forest ecology and management、Species Distribution and Climate Change

Understanding the impacts of changing climate and disturbance regimes on forest ecosystems is greatly aided by the use of process-based models. Such models simulate processes based on first principles of ecology, which requires parameterization. Parameterization is an important step in model development and application, defining the characteristics of trees and their responses to the environment, i.e., their traits. For species-specific models, parameterization is usually done at the level of individual species. Parameterization is indispensable for accurately modeling demographic processes, including growth, mortality, and regeneration of trees, along with their intra- and inter-specific interactions. As it is time-demanding to compile the parameters required to simulate forest ecosystems in complex models, simulations are often restricted to the most common tree species, genera, or plant-functional types. Yet, as tree species composition might change in the future, it is important to account for a broad range of species and their individual responses to drivers of change explicitly in simulations. Thus, species-specific parameterization is a critical task for making accurate projections about future forest trajectories, yet species parameters often remain poorly documented in simulation studies. We compiled and harmonized all existing tree species parameters available for the individual-based forest landscape and disturbance model (iLand). Since its first publication in 201...