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Modelling of forest carbon dynamics in different forest management scenarios: A case study on poplar and black locust plantations in Hungary Cover

Modelling of forest carbon dynamics in different forest management scenarios: A case study on poplar and black locust plantations in Hungary

Open Access
|Dec 2024

Figures & Tables

Figure 1.

Forest carbon dynamics for black locust (left) and white poplar (right) in different yield classes (started from yield class I on the upper side and yield class VI on the lower side).
Forest carbon dynamics for black locust (left) and white poplar (right) in different yield classes (started from yield class I on the upper side and yield class VI on the lower side).

Figure 2.

Carbon allocation in tree’s organs: (a) black locust, (b) white poplar.
Carbon allocation in tree’s organs: (a) black locust, (b) white poplar.

Figure 3.

Carbon dynamics in the biomass; (a) black locust, (b) white poplar.
Carbon dynamics in the biomass; (a) black locust, (b) white poplar.

Figure 4.

Carbon dynamics in above- and below-ground carbon; (a) black locust, (b) white poplar.
Carbon dynamics in above- and below-ground carbon; (a) black locust, (b) white poplar.

Figure 5.

Carbon dynamic in product and bio-energy compartments for: (a) board, (b) sawn mill, (c) pulp.
Carbon dynamic in product and bio-energy compartments for: (a) board, (b) sawn mill, (c) pulp.

Model parameterization_

NoParametersReferences
Black locustPoplar
1GrowthRédei et al. (2014)Rédei et al. (2012)
2Biomass allocationRédei et al. (2017a)Jiao et al. (2022)
3Survival rateQuinkenstein & Jochheim (2016)Al Afas et al. (2008)
4Wood product allocationQuinkenstein & Jochheim (2016)Zbieć et al. (2022); Zhang et al. (2019, 2018)
5Percentage carbon contentQuinkenstein & Jochheim (2016)Ma et al. (2022)
6Soil and root turnover rateQuinkenstein & Jochheim (2016)Ajit et al. (2013)
7Relative growth of tree componentsLemma et al. (2007); Rédei et al. (2017b)Ajit et al. (2013); Nabuurs & Mohren (1995)
8Foliage, branches, root turnover rateQuinkenstein & Jochheim (2016)Nabuurs & Mohren (1995); Quinkenstein & Jochheim (2016)
9The average lifetime of productsde Jong et al. (2007)de Jong et al. (2007)
10Growth reduction rates due to competitionde Jong et al. (2007)de Jong et al. (2007)
11Parameter of bioenergy modulede Jong et al. (2007)de Jong et al. (2007)
12Lumber recovery productsPrada et al. (2016)Prada et al. (2016)
13Climatology data of HungaryOrszágos Meteorológiai Szolgálat (2021)Országos Meteorológiai Szolgálat (2021)

Total carbon at the end of rotation in different forest management scenarios_

Total carbon at the age of 45 years (Mg C/ha)
White poplarBlack locust

SawmillBoardPulpSawmillBoardPulp
Yield class I91.3890.1293.7599.9098.92101.75
Yield class II71.7070.6973.5880.8481.1383.50
Yield class III53.6852.9355.0963.6963.9766.99
Yield class IV39.4438.8840.4850.3049.7951.24
Yield class V28.0727.6728.8137.3937.0138.09
Yield class VI24.0123.7524.5033.7933.5434.27
DOI: https://doi.org/10.2478/fsmu-2024-0005 | Journal eISSN: 1736-8723 | Journal ISSN: 1406-9954
Language: English
Page range: 77 - 89
Published on: Dec 31, 2024
Published by: Estonian University of Life Sciences
In partnership with: Paradigm Publishing Services
Publication frequency: 2 issues per year

© 2024 Budi Mulyana, András Polgár, Andrea Vityi, published by Estonian University of Life Sciences
This work is licensed under the Creative Commons Attribution 4.0 License.