Scaling up of biomass simulation for Eucalyptus plantations based on landsenses ecology. Issue 2 (4th March 2017)

• Record Type: Journal Article
• Authors: Ren, Yin; Zhang, Chi; Zuo, Shudi; Li, ZhengWei
• Is Part Of: International journal of sustainable development and world ecology. Volume 24:Issue 2(2017)
• Page Start: 135
• Page End: 148
• Publication Date: 2017-03-04
• Subjects: Landsenses ecology -- meliorization model evaluation framework -- various ecological factors -- model behavior uncertainty -- mix-marching data -- ecological forecasting -- process-based ecological models; Sustainable development -- Periodicals; Ecology -- Periodicals; Economic development -- Environmental aspects -- Periodicals; Ecologie; Duurzame ontwikkeling; Ecology; Economic development -- Environmental aspects; Sustainable development; Periodicals; Electronic journals; 338.72
• DOI: 10.1080/13504509.2016.1228017
• Languages: English
• ISSNs: 1745-2627

Abstract

ABSTRACT: Sustainable forest management on a regional scale requires accurate biomass estimation. At present, technologically comprehensive forecasting estimates are generated using process-based ecological models. However, isolation of the ecological factors that cause uncertainty in model behavior is difficult. To solve this problem, this study aimed to construct a meliorization model evaluation framework to explain uncertainty in model behavior with respect to both the mechanisms and algorithms involved in ecological forecasting based on the principle of landsenses ecology. We introduce a complicated ecological driving mechanism to the process-based ecological model using analytical software and algorithms. Subsequently, as a case study, we apply the meliorization model evaluation framework to detect Eucalyptus biomass forest patches at a regional scale (196, 158 ha) using the 3PG2 (Physiological Principles in Predicting Growth) model. Our results show that this technique improves the accuracy of ecological simulation for ecological forecasting and prevents new uncertainties from being produced by adding a new driving mechanism to the original model structure. This result was supported by our Eucalyptus biomass simulation using the 3PG2 model, in which ecological factors caused 21.83% and 9.05% uncertainty in model behavior temporal and spatial forecasting, respectively. In conclusion, the systematic meliorization model evaluation framework reported here provides a new method that could be applied to research requiring comprehensive ecological forecasting. Sustainable forest management on regional scales contributes to accurate forest biomass simulation through the principle of landsenses ecology, in which mix-marching data and a meliorization model are combined.