اثر ارتفاع از سطح دریا بر توابع توزیع قطر، ارتفاع و مساحت تاج بلوط اوری

 1.Aguilar, F.J., Nemmaoui, A., Aguilar, M.A., Chourak, M., Zarhloule, Y., and García Lorca, A.M. 2016. A quantitative assessment of forest cover change in the Moulouya river watershed (Morocco) by the integration of a subpixel-based and object-based analysis of Landsat data. Forests. 7: 23. 1-19.

2.Pogoda, P., Ochał, W., and Orzeł, S. 2019. Modeling diameter distribution of black alder (Alnus glutinosa (l.) gaertn.) stands in Poland. Forests. 10: 412. 1-16.

3.Sohrabi, H., and Taheri Sarteshnizi, M.J. 2012. Fitting probability distribution functions for modeling diameter distribution of oak species in pollarded northern Zagros forests (Case study: Armardeh-Baneh). Iranian J. of Forest. 4: 4. 333-343.

4.Hassanzad Navroodi, I., and Moradi Emamgheysi, I. 2020. Fitting tree height distributions in natural beech forest stands of Guilan (case study: Masal). Ecology of Iranian Forests 7: 14. 1-9. (In Persian)

5.Tian, X., Sun, S., Mola-Yudego, B., and Cao, T. 2020. Predicting individual tree growth using stand-level simulation, diameter distribution, and Bayesian calibration. Annals of Forest Science. 77: 57. 1-17.

6.Teimouri, M., and Podlaski, R. 2022. Bayesian inference for Johnson's SB and Weibull distributions, Scandinavian J. of Forest Research. 37: 1. 740-82.

7.Schutz, J.P. and Rosset, C. 2020. Performances of different methods of estimating the diameter distribution based on simple stand structure variables in monospecific regular temperate European forests. Annals of Forest Science. 77: 1-11.

8.Egonmwan, Y.I., and Ogana, F.N. 2020. Application of diameter distribution model for volume estimation in Tectona grandis L.f. stands in the Oluwa forest reserve, Nigeria. Tropical Plant Research. 7: 3. 573-580.

9.Sedighi, F., Taheri Abkenar, K., and Heidari Safari Kouchi, A. 2021. Analyzing the diameter distribution of Juniperus excelsa m. bieb stands of northeast Iran, using probability distribution functions. Ecopersia. 9: 2. 69-77.

10.Zasada, M. 2013. Evaluation of the double normal distribution for tree diameter distribution modeling. Silva Fennica. 47: 2. 1-17.

11.Mirzaei, M., and Bonyad, A.E. 2015. Diameter distribution modeling of Quercus persica using probability distribution functions in open forests (Case study: Dalab of Ilam province). Iranian J. of Forest. 7: 1. 117-136. (In Persian)

12.Mirzaei, M., Bonyad, A.E., and Mohebi Bijarpas, M. 2014. Application of probability distributions in order to fit canopy classes of Quercus brantii trees, Case Study: Dalab forests of Ilam.J. of Forest Sustainable Development.1: 2. 195-203.

13.Mirzaei, M., Aziz, J., Mahdavi, A., and Mohammad Rad, A. 2016. Modeling frequency distributions of tree height, diameter and crown area by six probability functions for open forests of Quercus persica in Iran. J. of Forestry Research. 27: 901-905.

14.Ostadhashemi, R., Akhavan, R., Abbaslou, A., and Safapour, Gh. 2021. Modeling diameter distribution of oak and forest stand in Arasbaran (Ilgenechay). J. of Environmental Science Studies. 6: 4. 4256-4265.(In Persian)

15.Mohammadi, F., Fallahchai, M.M., and Hashemi, S.A. 2016. Application of probability distribution in order to fit the diameter and height of oak species in two natural and man-made stands in Hyrcanian forests. International J. of Biomathematics. 9: 3. 1-9.

16.Safari, M., Sefidi, K., Alijanpoor, A., and Elahian, M.R. 2018. Study of natural regeneration in Quercus macranthera stands in different physiographic conditions in arasbaran forests. Ecology of Iranian Forests.6: 12. 1-8. (In Persian)

17.Safari, M., Sefidi, K., Alijanpoor, A., and Elahian, M.R. 2021. Ecological role of altitude on quantitative characteristics of Caucasian oak (Quercus macranthera Fisch. & C.A.Mey. Ex Hohen.) stands in arasbaran forest. Ecology of Iranian Forests. 9: 17. 106-113. (In Persian)

18.Naderi Varandi, M., Kialashaki, A., Veisi, R., and Sheykheslami, A. 2018. Effect of Altitude on some Quantitative and Qualitative Characteristics of Populus Deltoids Trees. Ecology of Iranian Forests. 6: 12. 30-38. (In Persian)

19.Hoseini, A. 2016. Effects of altitude on tree species diversity in Hyanan oak forests of Ilam province. J. of Natural Ecosystem of Iran. 7: 1. 1-8. (In Persian)

20.Atae, A., Kazemnezhad, F., Eshagh Nimvari, M., and Sheykholeslami, A. 2021. Effect of altitudinal gradient on biodiversity indices of plant ecological groups in Hyrcanian forests, Tiremrood basin. J. of Forest Research and Development. 7: 3. 493-504. (In Persian)

21.Rezaei Sangdehi, S.M., Fallah, A., Oladi, J., and Latifi, H. 2020. Determination of altitude gradient effect on quantitative characteristics of forest stands (Case study: District 3 of Sangdeh forests). J. of Wood and Forest Science and Technology. 27: 1. 1-16.(In Persian)

22.Abedi, R. 2022. Application of multi-criteria decision-making models to forest fire management. International J. of Geoheritage and Parks. 10: 1. 84-96.

23.Zobeyri, M. 2005. Forest inventory (Measurement tree and forest), TehranUniv. press, 424p. (In Persian)

24.Mohammadalizadeh, Kh., Namiranian, M., Zobeiri, M., Hoorfar, A., and Marvie Mohajer, M.R. 2013. Modeling of frequency distribution of tree's height in uneven- aged stands (Case study: Gorazbon district of Khyroud forest). J. of Forest and Wood Products.66: 2. 155-165. (In Persian)

25.Kazempour Larsary, M., Taheri Abkenar, K., Pothier, D., Pourbabaei, H., and Fadaie Khoshkebijari, F. 2016. Comparison of probability distribution functions applied to tree diameter and height of three development stages in a mixed beech (FAGUS orientalis Lipsky.) forest in Hyrcanean region of Iran. Forestry Ideas. 22: 1. 65-84.

26.Abedi, R. 2020. Investigation of changes in probability distribution functions of diameter, height and crown area
of trees affected by slope aspect. J.of Environmental Science Studies.5: 2. 2513-2520. (In Persian)

27.Masoodi, T.H., Shah, I.A., DinDar, M.U., Sofi, P.A., and Mugloo, J.A. 2021. Evaluation of probability distribution functions applied to tree diameter in a mixed uneven Kiker (Robinia pseudoacacia) stand of Kashmir Himalaya, India. Current Science. 121: 4. 573-577.

28.Shahrezei, H., Faramarzi, M., Heydari, M., and Poorreza, M., 2020. Comparison of some soil physico-chemical and microbial characteristics in relation to oak decline in different elevation classes in Southern Zagros forest. Iranian Forest Ecology J. 8: 16. 136-147.

29.Mohebbi Bijarpas, M., Rostami Shahraji, T., and Samizadeh, H. 2019. Changes in leaf morphological characteristics of Fagus orientalis Lipesky. along altitudinal gradients (Case study: Gilan forests, Masal). Forest Research and Developmemnt. 5: 1. 27-40

30.Bagheri, S., Zare-Maivan, H., Heydari, M., and Kazempour Osaloo, Sh. 2020. Relationship between broadleaved mixed forest understory species groups with soil and elevation in a semi-arid Persian oak (Quercus brantii L.) ecosystem. Caspian J. of Environmental Sciences. 18: 2. 157-170.

31.Azizi, K., Naji, H.R., Hassaneian Khoshroo, H., and Heifari, M. 2020. Effect of altitude and growing season on some physiological properties of leaf from Persian Oak (Quercus brantii) in Zagros forest (Case study: Ilam). J. of Plant Process and Function. 9: 35. 101-114.