Simulation of the impact of pest outbreak and forest harvesting on stand mixture in the Hhyrcanian forest (Case study: Lireh Sar forests, Tonekabon)

Subject Areas : environmental management

Mehdi  Vakili ¹ (Ph.D. student, Environment Department, Roudehen branch, Islamic Azad University, Roudehen, Iran. *(Corresponding Author))
Zahed  Shakeri ² (Assistant Prof., Faculty of Organic Agricultural Sciences, University of Kassel, Steinstr. 19, 37213 Witzenhausen, Germany.)
saeid  motahari ³ (Assistant Prof., Environment Department, Roudehen branch, Islamic Azad University, Roudehen, Iran.)
Maryam  Farahani ⁴ (Assistant Prof., Environment Department, Roudehen branch, Islamic Azad University, Roudehen, Iran.)
Zachary  Robbins ⁵ (Ph.D. student, Department of Forestry and Natural Resources, North Carolina State University, North Carolina, NC, United States.)
Robert  Scheller ⁶ (Professor, Department of Forestry and Natural Resources, North Carolina State University, North Carolina, NC, United States.)

Received: 2021-10-11 Accepted : 2022-09-21 Published : 2024-02-20

Keywords: Alder leaf beetle, forest landscape, LANDIS-II, tree harvesting management.,

Abstract :

Background and Objective: Species composition are affected by disease outbreaks, pest outbreaks, and harvesting. In the Hyrcanian forests, alder brown leaf beetle is among the most common biological disturbances, which along with timber harvesting can alter its species composition. The present study aimed to simulate the species composition of the Hyrcanian forest at stand level under the mentioned natural and anthropogenic disturbances. Material and Methodology: Using random-systematic sampling with a circular plot within a 200*200 grid, 667 plots (1000 m2) were sampled for evaluating the current state. A LANDIS-II landscape change model was used to simulate the study area under different scenarios for 5-years’ time periods over 100 years. Findings: By accelerating the removal of pure hornbeam stands from the landscape, biological disturbance is likely to increase the mixture of tree composition by allowing Carpinus-Diospyros and Carpinus-Parrotia to replace them. Similarly, tree harvesting will also create the same situation by establishing mixed broadleaf and Alnus-Carpinus forest types. In the presence of biological disturbance and tree harvesting, diversity peaked so that the highest mixture stands were produced by scenario of alder brown leaf beetle in the presence of tree harvesting. Discussion and Conclusion: When biological disturbance occur, Caucasian alder species that host this pest can be preserved by implementing appropriate harvest management techniques and creating a more mixed forest ecosystem.

References:

1. Wangchuk J, Choden K, Sears RR, Baral H, Yoezer D, Tamang KTD, et al. Community perception of ecosystem services from commercially managed forests in Bhutan. Ecosyst Serv. 2021;50:101335.
2. Derakhshan Hooreh S, Mahmoudi B. The position of forest resource management in the Sixth Development Plan. International Conference on Society and Environment. Tehran: Tehran University; 2018.
3. Pourbabaei H, RANJ AAR. Effect of shelterwood silvicultural method on plant species diversity in beech (Fagus orientalis Lipsky.) forests in Shafaroud, Guilan province. 2008;
4. Krebs CJ. Ecological methodology. 1999.
5. Jenkins MA, Parker GR. Composition and diversity of woody vegetation in silvicultural openings of southern Indiana forests. For Ecol Manage. 1998;109(1–3):57–74.
6. Lewis KJ, Lindgren BS. A conceptual model of biotic disturbance ecology in the central interior of BC: how forest management can turn Dr. Jekyll into Mr. Hyde. For Chron. 2000;76(3):433–43.
7. Shakeri Z, Mohadjer MRM, Simberloff D, Etemad V, Assadi M, Donath TW, et al. Plant community composition and disturbance in Caspian Fagus orientalis forests: which are the main driving factors? Phytocoenologia. 2012;41(4):247–63.
8. Sadeghi SE, Ahmadi SSM, Shayesteh N, Ali ZM, Pour MA. Study on biology of alder brown leaf beetle, Galerucella lineola (Col., Chrysomelidae) in Golestan Province of Iran. J Entomol Soc Iran [Internet]. 2004 [cited 2020 Jul 31];24(1):99–120. Available from: https://www.sid.ir/en/journal/ViewPaper.aspx?id=19744
9. Nouri Z, Feghhi J, Amiri GZ, Rahmani R. Estimation of species diversity in forest different stories (case study: Patom District of Kheyrud forest). J Nat Environ. 2011;63(4):399–407.
10. Tohidifar M, Moser M, Zehzad B, Ghadirian T. BIODIVERSITY OF THE HYRCANIAN FORESTS. 2016;
11. Kuuluvainen T, Penttinen A, Leinonen K, Nygren M. Statistical opportunities for comparing stand structural heterogeneity in managed and primeval forests: an example from boreal spruce forest in southern Finland. 1996;
12. Peltzer DA, Bast ML, Wilson SD, Gerry AK. Plant diversity and tree responses following contrasting disturbances in boreal forest. For Ecol Manage. 2000;127(1–3):191–203.
13. Shakeri Z, Simberloff D, Bernhardt‐Römermann M, Eckstein RL. The impact of livestock grazing and canopy gaps on species pool and functional diversity of ground flora in the Caspian beech forests of Iran. Appl Veg Sci. 2021;24(3):e12592.
14. Jafari SM, Zarre S, Alavipanah SK. Woody species diversity and forest structure from lowland to montane forest in Hyrcanian forest ecoregion. J Mt Sci. 2013;10(4):609–20.
15. Brown KA, Gurevitch J. Long-term impacts of logging on forest diversity in Madagascar. Proc Natl Acad Sci. 2004;101(16):6045–9.
16. Thom D, Seidl R. Natural disturbance impacts on ecosystem services and biodiversity in temperate and boreal forests. Biol Rev. 2016;91(3):760–81.
17. Goheen DJ, Hansen EM. Effects of pathogens and bark beetles on forests. Beetle-Pathogen Interact Conifer For TD Schowalter GM Filip, eds Acad Press San Diego. 1993;175–96.
18. Kamp BJ van der. Pathogens as agents of diversity in forested landscapes. For Chron. 1991;67(4):353–4.
19. Hansen EM. Disease and diversity in forest ecosystems. Australas Plant Pathol AAP. 1999;28(4):313.
20. Martin S, Deffuant G, Calabrese JM. Defining resilience mathematically: from attractors to viability. In: Viability and resilience of complex systems. Springer; 2011. p. 15–36.
21. Scheller RM, Domingo JB, Sturtevant BR, Williams JS, Rudy A, Gustafson EJ, et al. Design, development, and application of LANDIS-II, a spatial landscape simulation model with flexible temporal and spatial resolution. Ecol Modell. 2007;201(3–4):409–19.
22. Azizi Z, Najafi A, Fatehi P, Pirbavaghar M. Forest stand volume estimation using satellite IRS_P6 (LISS_IV) data (case study: Lirehsar, Tonekabon). Iran J For Poplar Res. 2010;18(1):143–51.
23. Mladenoff DJ. LANDIS and forest landscape models. Ecol Modell. 2004;180(1):7–19.
24. Scheller RM. Forest landscape simulation models: Tools and strategies for projecting and understanding spatially extensive forest ecosystems. The University of Wisconsin-Madison; 2004.
25. Anonymous. Forestry plan for watershed No. 35 Lirehsar forest, series 4. 2002;
26. Team RC. R: A language and environment for statistical computing [Internet]. R Foundation for Statistical Computing; 2018. Available from _ http//www R-project org/_[Google Sch. 2020;
27. Mladenoff DJ, He HS. Design, behavior and application of LANDIS, an object-oriented model of forest landscape disturbance and succession. Spat Model For Landsc Chang approaches Appl Cambridge Univ Press Cambridge, UK. 1999;125–62.
28. Hambäck, Peter AHambäck, P. A., Weingartner, E., Ericson, L., Fors, L., Cassel-Lundhagen, A., Stenberg, J. A., et al. (2013). Bayesian species delimitation reveals generalist and specialist parasitic wasps on Galerucella beetles (Chrysomelidae): sorting b 92., Weingartner E, Ericson L, Fors L, Cassel-Lundhagen A, Stenberg JA, et al. Bayesian species delimitation reveals generalist and specialist parasitic wasps on Galerucella beetles (Chrysomelidae): sorting by herbivore or plant host. BMC Evol Biol. 2013;13(1):92.
29. Escherich K. Die Forstinsekten Mitteleuropas II. Paul Parey, Berlin. 1923;406411.
30. KOVAČEVIČ Ž. Die Probleme des Forstschutzes in Jugoslawien. Anzeiger für Schädlingskd. 1957;30:65–9.
31. Hunter T. Pest and disease problems in willow biomass plantations. Proc Wood-Energy Environ Oxford. 1992;105–9.
32. Hoeglund S, Eklund K, Bjoerkman C. Outbreaks of three leaf beetles species in Salix plantations; Insektsskadegoerelse i Salixodlingar-bladbaggar. Växtskyddsnotiser. 1999;63.
33. Gharadjedaghi B. Phytophage Arthropoden an Erlen (Alnus spp.) in bachbegleitenden Gehölzsäumen Oberfrankens, Teil 1: Klopfprobenuntersuchung. Forstwissenschaftliches Cent Ver mit Tharandter Forstl Jahrb. 1997;116(1):158–77.
34. Sturtevant BR, Gustafson EJ, He HS, Scheller RM, Miranda BR. LANDIS-II biological disturbance agent v3. 0 extension user guide. USDA For Serv North Res Station Rhinelander, Wisconsin, USA. 2015;
35. Sturtevant BR, Gustafson EJ, Li W, He HS. Modeling biological disturbances in LANDIS: a module description and demonstration using spruce budworm. Ecol Modell. 2004;180(1):153–74.
36. MacLean DA. Vulnerability of fir-spruce stands during uncontrolled spruce budworm outbreaks: a review and discussion. For Chron. 1980;56(5):213–21.
37. Hall RJ, Volney WJA, Wang Y. Using a geographic information system (GIS) to associate forest stand characteristics with top kill due to defoliation by the jack pine budworm. Can J For Res. 1998;28(9):1317–27.
38. Chojnacky DC, Bentz BJ, Logan JA. Mountain pine beetle attack in ponderosa pine: Comparing methods for rating susceptibility. Res Pap RMRS-RP-26 Ogden, UT US Dep Agric For Serv Rocky Mt Res Station 10 p. 2000;26.
39. Bond BJ. Age-related changes in photosynthesis of woody plants. Trends Plant Sci. 2000;5(8):349–53.
40. Freeland RO. Effect of age of leaves upon the rate of photosynthesis in some conifers. Plant Physiol. 1952;27(4):685.
41. Robert M. Scheller Eric J. Gustafson, Brian R. Miranda, Patrick A. Zollner, David J. Mladenoff, James B. Domingo BRS. Base Harvest v3.0 LANDIS-II Extension User Guide . 2015;
42. Marvie Mohadjer MR. Silviculture. Univ Tehran, Tehran, Iran. 2005;