Determination of Curve Number for snowmelt-runoff floods in a small catchment

被引:7
|
作者
Hejduk, L. [1 ]
Hejduk, A. [2 ]
Banasik, K. [1 ]
机构
[1] Warsaw Univ Life Sci SGGW, Hydraul Engn, Warsaw, Poland
[2] Warsaw Univ Life Sci SGGW, Lab Water Ctr, Warsaw, Poland
关键词
D O I
10.5194/piahs-370-167-2015
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
One of the widely used methods for predicting flood runoff depth from ungauged catchments is the curve number (CN) method, developed by Soil Conservation Service (SCS) of US Department of Agriculture. The CN parameter can be computed directly from recorded rainfall depths and direct runoff volumes in case of existing data. In presented investigations, the CN parameter has been computed for snowmelt-runoff events based on snowmelt and rainfall measurements. All required data has been gathered for a small agricultural catchment (A = 23.4 km(2)) of Zagozdzonka river, located in Central Poland. The CN number received from 28 snowmelt-runoff events has been compared with CN computed from rainfall-runoff events for the same catchment. The CN parameter, estimated empirically varies from 64.0 to 94.8. The relation between CN and snowmelt depth was investigated in a similar procedure to relation between CN and rainfall depth.
引用
收藏
页码:167 / 170
页数:4
相关论文
共 50 条
  • [31] Runoff formation in a small catchment at hillslope and catchment scales
    Hrncir, Miroslav
    Sanda, Martin
    Kulasova, Alena
    Cislerova, Milena
    [J]. HYDROLOGICAL PROCESSES, 2010, 24 (16) : 2248 - 2256
  • [32] Modelling spatially distributed snowmelt and meltwater runoff in a small Arctic catchment with a hydrology land-surface scheme (WATCLASS)
    Pohl, S
    Davison, B
    Marsh, P
    Pietroniro, A
    [J]. ATMOSPHERE-OCEAN, 2005, 43 (03) : 193 - 211
  • [33] Applying the stocking index to the determination of the curve number parameter in the forest catchment area
    Wrobel, Michal
    Mank, Kamil
    Krysztofiak-Kaniewska, Anna
    [J]. NATURAL RESOURCE MODELING, 2020, 33 (01)
  • [34] Snowmelt runoff processes in a headwater lake and its catchment, subarctic Canadian Shield
    Mielko, C
    Woo, MK
    [J]. HYDROLOGICAL PROCESSES, 2006, 20 (04) : 987 - 1000
  • [35] RELATIVE RUNOFF BY CURVE NUMBER NOMOGRAPH
    HEGGEN, RJ
    [J]. JOURNAL OF THE IRRIGATION AND DRAINAGE DIVISION-ASCE, 1981, 107 (04): : 385 - 388
  • [36] Runoff management during the September 2008 floods in the Belford catchment, Northumberland
    Wilkinson, M. E.
    Quinn, P. F.
    Welton, P.
    [J]. JOURNAL OF FLOOD RISK MANAGEMENT, 2010, 3 (04): : 285 - 295
  • [37] Runoff curve number, and it's variability in the estimation of storm runoff
    Vali-Khodjeini, A
    [J]. PROCEEDINGS OF THE 8TH INTERNATIONAL CONFERENCE OF RAINWATER CATCHMENT SYSTEMS, VOLS 1 AND 2: RAINWATER CATCHMENT FOR SURVIVAL, 1997, : 687 - 695
  • [38] Runoff and Sediment Transport during the Snowmelt Period in a Mediterranean High-Mountain Catchment
    Lana-Renault, Noemi
    Alvera, Bernardo
    Garcia-Ruiz, Jose M.
    [J]. ARCTIC ANTARCTIC AND ALPINE RESEARCH, 2011, 43 (02) : 213 - 222
  • [39] Sediment and nutrient dynamics during snowmelt runoff generation in a southern Taiga catchment of Russia
    Ollesch, Gregor
    Demidov, Valery
    Volokitin, Mitrofan
    Voskamp, Michael
    Abbt-Braun, Gudrun
    Meissner, Ralph
    [J]. AGRICULTURE ECOSYSTEMS & ENVIRONMENT, 2008, 126 (3-4) : 229 - 242
  • [40] Laboratory investigation of phosphorus loss with snowmelt and rainfall runoff from a Steppe wetland catchment
    He, Jing
    Diao, Zhaoyan
    Zheng, Zhirong
    Su, Derong
    Lyu, Shihai
    [J]. CHEMOSPHERE, 2020, 241