Optimal Forestry Model Control with Logging and Tourism Factors

https://doi.org/10.47194/ijgor.v1i2.33

Authors

Keywords:

Forestry, Logging, Tourism, Stability Analysis, Optimal Control

Abstract

Forest is one of the natural resources that need to be preserved because it has vital functions for humans both ecologically and economically. In this study, a mathematical model of forestry dynamics was developed by dividing the forest area, indigenous people, non-indigenous people, population pressure and economic incentives. The model was analyzed by dynamic system theory, the existence of equilibrium points and their stability were determined. Using the second Lyapunov method, global stability was also determined. In that forestry model, logging and tourism factors were added which affect the dynamics of forest biomass. The Pontryagin maximum principle was used to obtain optimal conditions from the model. Numerical simulation shows that the use of forests by logging and tourism, reduces the amount of forest biomass, but the forest remains sustainable. Utilization of forests bycontrols will maximize the benefits of logging and tourism in the associated forests.

References

Agarwal, M., Fatima, T., Freedman, H.I., (2010), Depletion of forestry resource biomass due to industrialization pressure: a ratio-dependent mathematical model, Journal of Biological Dynamics, 4(4), 381-396.

Austin, K.G., Schwantes, A., Gu, Y., & Kasibhatla, P.S. (2019), What causes deforestation in Indonesia?, Environmental Research Letters, 14(2), 024007

Chaundhary, M., Dhar, J., Mirsa, O.P., ( 2015), A mathematical model for the conservation of forestry biomass with an alternative resource for industrialization: a modified Leslie Gower interaction, Model. Earth Syst. Environ., 1(43).

Clay, J.W, Alcorn, J.B., Butler, J.R., (2000), An analytical study for the world bank’s forestry policy implementation review and strategy development framework, Indigenous Peoples, Forestry Management and Corrigan, C., et al., (2018), Quantifying the contribution to biodiversity conservation of protected areas governed by indigenous peoples and local communities, Biological Conservation, 227, 403-412

Dhar, J., (2008), Population model with diffusion and supplementary forest resource in a two-patch habitat, Applied Mathematical Modelling, 32,1219-1235.

Fatem, S.M, et al., (2010) Camouflaging economic development agendas with forest conservation narratives: A strategy of lower governments for gaining authority in the recentralising Indonesia, Land Use Policy, 78, 699-710.

Lacitignola, D. (2007). Modelling socio-ecological tourism-based system for sustainability. Ecological Modelling 206, 191-204.

Lata, K., Mirsa, A.K., Shukla., J.B., (2018), Modeling the effect of deforestation caused by human population pressure on wildlife species, Nonlinear Analysis: Modelling and Control, 23(3), 303-320.

Misra, A.K., Lata, K., & Shukla, J.B., (2014), Effects of population and population pressure on forest resources and their conservation: a modeling study, Environment, Development and Sustainability: A Multidisciplinary Approach to the Theory and Practice of Sustainable Development,16(2), 361-374.

Mirsa, A.K., Lata, K., (2013), Modeling the effect of time delay on the conservation of forestry biomass, Chaos, Solitons & Fractals, 43, 1-11.

Mulyoutami, E., Rismawan, R., & Joshi, L., (2009), Local knowledge and management of simpukng (forest gardens) among the Dayak people in East Kalimantan, Indonesia, Forest Ecology and Management, 257, 2054-2061,

Pratama M.A.A., Zikkah, R.N., Supriatna A.K., & Anggriani N., (2020), A mathematical model to study the effects of population pressure on two-patch forest resources, AIP Conference Proceedings, 2264:1, 050003

Reyes-Garcia,V., et al., (2012), Presence and Purpose of Nonindigenous Peoples on Indigenous Lands: A Descriptive Account from the Bolivian Lowlands, Society & Natural Resources, 25(3), 270-284

Sahide, M.A.K, et al.,( 2016), Decentralisation policy as recentralisation strategy: forest management units and community forestry in Indonesia, International Forestry Review, 18(1),78-95.

Shukla, J.B., et al., (1989), Degradation and subsequent regeneration of a forestry resource: a mathematical model, Ecological Modelling, 44, 219-229.

Wadley R.L., & Coffer, C.J.P., (2004), Sacred Forest, Hunting, and Conservation in West Kalimantan, Indonesia, Human Ecology, 32(3), 313-338.

Published

2020-02-10