Conservation of forest biomass and forest–dependent wildlife population: Uncertainty quantification of the model parameters

The ecosystem is confronted with numerous challenges as a consequence of the escalating human population and its corresponding activities. Among these challenges lies the degradation of forest biomass, which directly contributes to a reduction in forested areas and poses a significant threat to the...

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Main Authors: Ibrahim M. Fanuel, Silas Mirau, Damian Kajunguri, Francis Moyo
Format: Article
Language:English
Published: Elsevier 2023-06-01
Series:Heliyon
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2405844023041555
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author Ibrahim M. Fanuel
Silas Mirau
Damian Kajunguri
Francis Moyo
author_facet Ibrahim M. Fanuel
Silas Mirau
Damian Kajunguri
Francis Moyo
author_sort Ibrahim M. Fanuel
collection DOAJ
description The ecosystem is confronted with numerous challenges as a consequence of the escalating human population and its corresponding activities. Among these challenges lies the degradation of forest biomass, which directly contributes to a reduction in forested areas and poses a significant threat to the survival of wildlife species through the intensification of intraspecific competition. In this paper, a non–linear mathematical model to study the conservation of forest and wildlife species that are reliant on forest ecosystem within the framework of human population dynamics and its related activities is developed and analysed. The study assessed the impacts of economic measures in the form of incentives on reducing population pressure on forest resources as well as the potential benefits of technological efforts to accelerate the rate of reforestation. Qualitative and quantitative analyses reveals that economic and technological factors have the potential to contribute to resource conservation efforts. However, these efforts can only be used to a limited extent, and contrary to that, the system will be destabilised. Sensitivity analysis identified the parameters pertaining to human population, human activities, economic measures, and technological efforts as the most influential factors in the model.
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spelling doaj.art-85f4cfb659ba4ba9b4f6ef7771525cc52023-06-08T04:19:37ZengElsevierHeliyon2405-84402023-06-0196e16948Conservation of forest biomass and forest–dependent wildlife population: Uncertainty quantification of the model parametersIbrahim M. Fanuel0Silas Mirau1Damian Kajunguri2Francis Moyo3Department of Applied Mathematics and Computational Science, Nelson Mandela African Institution of Science and Technology, Arusha, Tanzania; Department of ICT and Mathematics, College of Business Education, Mwanza, Tanzania; Corresponding author at: Department of Applied Mathematics and Computational Science, Nelson Mandela African Institution of Science and Technology, Arusha, Tanzania.Department of Applied Mathematics and Computational Science, Nelson Mandela African Institution of Science and Technology, Arusha, TanzaniaDepartment of Mathematics, Kabale University, Kabale, UgandaDepartment of Biodiversity Conservation and Ecosystem Management, Nelson Mandela African Institution of Science and Technology, Arusha, TanzaniaThe ecosystem is confronted with numerous challenges as a consequence of the escalating human population and its corresponding activities. Among these challenges lies the degradation of forest biomass, which directly contributes to a reduction in forested areas and poses a significant threat to the survival of wildlife species through the intensification of intraspecific competition. In this paper, a non–linear mathematical model to study the conservation of forest and wildlife species that are reliant on forest ecosystem within the framework of human population dynamics and its related activities is developed and analysed. The study assessed the impacts of economic measures in the form of incentives on reducing population pressure on forest resources as well as the potential benefits of technological efforts to accelerate the rate of reforestation. Qualitative and quantitative analyses reveals that economic and technological factors have the potential to contribute to resource conservation efforts. However, these efforts can only be used to a limited extent, and contrary to that, the system will be destabilised. Sensitivity analysis identified the parameters pertaining to human population, human activities, economic measures, and technological efforts as the most influential factors in the model.http://www.sciencedirect.com/science/article/pii/S2405844023041555Uncertainty quantificationConservationForest biomassForest–dependent wildlife populationHypercube Latin sampling
spellingShingle Ibrahim M. Fanuel
Silas Mirau
Damian Kajunguri
Francis Moyo
Conservation of forest biomass and forest–dependent wildlife population: Uncertainty quantification of the model parameters
Heliyon
Uncertainty quantification
Conservation
Forest biomass
Forest–dependent wildlife population
Hypercube Latin sampling
title Conservation of forest biomass and forest–dependent wildlife population: Uncertainty quantification of the model parameters
title_full Conservation of forest biomass and forest–dependent wildlife population: Uncertainty quantification of the model parameters
title_fullStr Conservation of forest biomass and forest–dependent wildlife population: Uncertainty quantification of the model parameters
title_full_unstemmed Conservation of forest biomass and forest–dependent wildlife population: Uncertainty quantification of the model parameters
title_short Conservation of forest biomass and forest–dependent wildlife population: Uncertainty quantification of the model parameters
title_sort conservation of forest biomass and forest dependent wildlife population uncertainty quantification of the model parameters
topic Uncertainty quantification
Conservation
Forest biomass
Forest–dependent wildlife population
Hypercube Latin sampling
url http://www.sciencedirect.com/science/article/pii/S2405844023041555
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