A STELLA-Based Model to Simultaneously Predict Hydrological Processes, N Uptake and Biomass Production in a Eucalyptus Plantation

Eucalyptus is one of the fastest growing hardwoods for bioenergy production. Currently, few modeling tools exist to simultaneously estimate soil hydrological processes, nitrogen (N) uptake, and biomass production in a eucalyptus plantation. In this study, a STELLA (Structural Thinking and Experienti...

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Veröffentlicht in:Forests 2021-05, Vol.12 (5), p.515
Hauptverfasser: Ouyang, Ying, Feng, Gary, Renninger, Heidi, Leininger, Theodor D., Parajuli, Prem, Grace, Johnny M.
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container_end_page
container_issue 5
container_start_page 515
container_title Forests
container_volume 12
creator Ouyang, Ying
Feng, Gary
Renninger, Heidi
Leininger, Theodor D.
Parajuli, Prem
Grace, Johnny M.
description Eucalyptus is one of the fastest growing hardwoods for bioenergy production. Currently, few modeling tools exist to simultaneously estimate soil hydrological processes, nitrogen (N) uptake, and biomass production in a eucalyptus plantation. In this study, a STELLA (Structural Thinking and Experiential Learning Laboratory with Animation)-based model was developed to meet this need. After the model calibration and validation, a simulation scenario was developed to assess eucalyptus (E. grandis × urophylla) annual net primary production (ANPP), woody biomass production (WBP), water use efficiency (WUE), and N use efficiency (NUE) for a simulation period of 20 years. Simulation results showed that a typical annual variation pattern was predicted for water use, N uptake, and ANPP, increasing from spring to fall and decreasing from fall to the following winter. Overall, the average NUE during the growth stage was 700 kg/kg. To produce 1000 kg eucalyptus biomass, it required 114.84 m3 of water and 0.92 kg of N. This study suggests that the STELLA-based model is a useful tool to estimate ANPP, WBP, WUE, and NUE in a eucalyptus plantation.
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source Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals; MDPI - Multidisciplinary Digital Publishing Institute
subjects Age
Animation
Annual variations
Biomass
Calibration
Carbon
Eucalyptus
Growth stage
Hardwoods
Hydrology
Investigations
Mathematical functions
Net Primary Productivity
Nitrogen
Plantations
Primary production
Productivity
Rain
Renewable energy
Simulation
Stream flow
Water use
Water use efficiency
title A STELLA-Based Model to Simultaneously Predict Hydrological Processes, N Uptake and Biomass Production in a Eucalyptus Plantation
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