Evaluation of the rainfall interception condition in some shrub species (Case study: campus of the Ferdowsi University of Mashhad)

Document Type : Research Article



. In fact, the purpose of this study was to assess the amount of interception, and also the effects of the rate and intensity of rainfall, and also plant cover density of the mentioned species on amount and percentage of interception during the research time period. The amount of precipitation was measured under the canopy of mentioned shrub species as well as in open space near the shrubs, immediately after each precipitation event during the research time period. Cover density of the species were also determined by vertical photography from vegetation cover in different seasons, and using Arc GIS 10.3 software. Based on the results, the highest measured interception was %79.57 occurred in December on Peganum harmala, while the lowest one was %7.09 measured in February on Rosa persica. Total annual interception for Artemisia scoparia, Rosa persica and Peganum harmala were respectively 37.99, 30.83 and 54.32 mm which are %27.35, %22.19 and %39.11 of the occurred rainfall. The results of regression analysis using SPSS 16.00 showed that between the rainfall amount and the interception of Artemisia scoparia, Rosa persica and Peganum harmala, also between growth season of Rosa persica and the interception percentage difference exist in the level of %1. In addition, between the precipitation duration and interception rate of Artemisia scoparia and Peganum harmala as well as between the vegetative form of the evaluated species and interception rate difference exist in the level of %5


Main Subjects

[1] Wullaert H, Pohlert T, Boy J, Valarezo C, Wilcke W. Spatial throughfall heterogeneity in a montane rain forest in Ecuador: Extent, temporal stability and drivers. Journal of Hydrology. 2009: 377: 71-79.
[2] Alizadeh A. Principles of Appled Hydrology.  ed. Imam Reza International University. 2015.p.20-937. [Persian]
[3] N var J, Charles F, Jurado E. Spatial variations of interception loss components by Tamaulipan thornscrub in northeastern Mexico. Forest Ecology and Management. 1999; 124(2-3):231-239.
[4] Serrato F, Diaz A. A simple technique for measuring rainfall interception by small shrub: interception flow collection box. Hydrological Processes. 1997;12(13):471– 481.
[5] Wang XP, Li XR, Zhang JG, Zhang ZS, Berntsson R. Measurement of rainfall interception by xerophytic shrubs in re-vegetated sand dunes. Journal of Hydrological Sciences. 2005; 50(5): 897- 910.
[6] Neto AJS, Ribeiro A, Lopes DDC, Neto OBDS, Souza WG, Santana MO. Simulation of Rainfall Interception of Canopy and Litter in Eucalyptus Plantation in Tropical Climate. Society of American Foresters. 2011;58 (1):54-60.
[7] Czikowsky MJ, Fitzjarrald DR. Detecting rainfall interception in an Amazonian rain forest with eddy flux measurements. Journal of Hydrology. 2009; 377 (1-2): 92-105.
[8] Huang JY, Black TA, Jassal RS, Lavkulich LM. Modelling rainfall interception by urban trees. Canadian Water Resources Journal. 2017;42(4):336-348.
[9] Saito T, Matsuda H, Komatsu M, Xiang Y, Takahashi A, Shinohara Y, et al. Forest canopy interception loss exceeds wet canopy evaporation in Japanese cypress (Hinoki) and Japanese cedar (Sugi) plantations. Journal of Hydrology. 2013;507:287–299.
[10] Godarzi S, Mataji A, Veisanloo F. Rainfall components distribution in needle-leaved and broadleaved plantations in a semiarid climate zone (Case study: Shahid-Beheshti Forest Park in Broujerd). Iranian Journal of Forest. 2014;6( 3):339-350. [Persian]
[11] Rutter J. Evaporation in forest. Endeavour. 1967;‏26‏(77)‏:‏39-43.
[12] Zhang Y, Li XY, Li W, Wu XC, Shi FZ, Fang WW, et al. Modeling rainfall interception loss by two xerophytic shrubs in the Loess Plateau. Hydrological Processes. 2017;‏31(10):1926-1937.
[13] Hoseini Ghaleh Bahmani SM, Attarod P, Ahmadi MT. Rainfall redistribution in natural pure stands of Quercus castaneifolia C.A.M. and Fagus orientalis L. in Caspian forests (Case study: Kheyrud forest). Iranian Journal of Forest. 2011;‏3(3):‏253-264. [ Persian]
[14] Liang, W, Ding G. Simulation of rainfall interception in a Pinus tabulaeformis plantation in North China. Journal of Food Agriculture and Environment. 2013;11(1):976-981.
[15] Khaligi Sigaroudi Sh, maliekian A, Tali Khoshk S, Farzin M. Wadi hydrology. Univerversity of Tehran press. 2016.p. 1-419. [Persian]
Volume 6, Issue 3
September 2019
Pages 809-819
  • Receive Date: 11 March 2019
  • Revise Date: 11 August 2019
  • Accept Date: 11 August 2019
  • First Publish Date: 23 September 2019
  • Publish Date: 23 September 2019