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Journal of Soils and Sediments

, Volume 16, Issue 11, pp 2580–2593 | Cite as

Impact of urban development on streamflow regime of a Portuguese peri-urban Mediterranean catchment

  • Carla Sofia Santos Ferreira
  • Rory Peter Dominic Walsh
  • João Pedro Carvalho Nunes
  • Tammo S. Steenhuis
  • Manuel Nunes
  • João Luís Mendes Pedroso de Lima
  • Celeste Oliveira Alves Coelho
  • António José Dinis Ferreira
Urban Soils and Sediments

Abstract

Purpose

Relatively little is known in the Mediterranean environment about changes in streamflow during urban development in partially urbanized peri-urban catchments. This paper explores the modification of streamflow regime as a consequence of the construction of an enterprise park, a major road, and expansion of residential areas, leading to urban areas increase from 32 to 40 % in a small catchment (6.2 km2), located in the periphery of one of the main cities in central mainland Portugal.

Materials and methods

The study was carried out over five hydrological years (October 2008–September 2009 to October 2012–September 2013), including two initial years of pre- and three following years of post-additional urban development. Streamflow was recorded by a V-notch weir at the catchment outlet at 5-min intervals. Rainfall was recorded at a weather station 0.5 km north of the catchment and by five tipping-bucket raingauges installed in January 2011 within the study catchment. Streamflow was converted into runoff and split into baseflow and stormflow components by applying a mathematical low-pass digital filter. Streamflow differences were investigated through changes in (i) annual runoff coefficients, (ii) annual baseflow index, (iii) seasonal baseflow index and stormflow coefficient, and (iv) storm event analysis.

Results and discussion

Annual runoff coefficient ranged from 14 to 21 % and storm runoff coefficient from 9 to 14 %, both between the driest 2011/12 and wettest 2012/13. Although these differences were influenced by inter-annual weather variability, a comparison between years with similar rainfall before and after additional urban development showed a 43 % increase in storm runoff. Impacts on streamflow were also noticed through changes on hydrograph: (i) regression lines of storm runoff against rainstorm parameters exhibited higher vertical positions in 2012/13 than 2008/09, (ii) gradual increase in peak flow but with a clear distance between pre- and post- additional urbanization, (iii) quicker response time from 60–75 min to 40–45 min between both periods, and (iv) decrease in recession time from 21–29 h to 7–9 h for the same periods.

Conclusions

The dispersed urban pattern and permeable soils provide many overland flow sinks, favouring relatively low storm runoff of the catchment. Nevertheless, the enlargement of impervious surfaces (from 12.8 to 17.0 %) and particularly the storm drainage system installed in new urban areas led to great changes on rainfall–runoff event responses. Urban planning should consider the landscape mosaic of peri-urban areas in order to maximize water infiltration and minimize the impacts on streamflow regime.

Keywords

Rainfall–runoff events Recession time Response time Runoff coefficient Storm runoff Urbanization 

Notes

Acknowledgments

This research was carried out in the framework of the (1) PhD research fellowship of Carla Ferreira (SFRH/BD/64493/2009), funded by the Portuguese Science and Technology Foundation (FCT), under QREN-POPH and co-funded by ESF and MEC national funds, and (2) FRURB project “Managing Flood Risk in Urban areas in a global change context” (PTDC/AUR-URB/123089/2010), also funded by FCT. Additional funding was provided by the FCT as a post-doctoral fellowship for João Nunes (SFRH/BPD/87571/2012). The authors would like to acknowledge Daniel Soares for fieldwork assistance and Lídia Carvalho for the help with the land-use analysis and streamflow data compilation.

References

  1. Bach PM, Rauch W, Mikkelsen PS, McCarthy DT, Deletic A (2014) A critical review of integrated urban water modelling e Urban drainage and beyond. Environ Modell Software 54:88–107Google Scholar
  2. Bracken LJ, Wainwrigh J, Ali GA, Tetzlaff D, Smith MW, Reaney SM, Roy AG (2013) Concepts of hydrological connectivity: research approaches, pathways and future agendas. Earth Sci Rev 119:17–34CrossRefGoogle Scholar
  3. Brandes D, Cavallo GJ, Nilson ML (2005) Base flow trends in urbanizing watersheds of the Delaware River basin. J Am Water Resour Assoc 41(6):1377–1391CrossRefGoogle Scholar
  4. Braud I, Breil P, Thollet F, Lagouy M, Branger F, Jacqueminet C, Kermadi S, Michel K (2013) Evidence of the impact of urbanization on the hydrological regime of a medium-sized periurban catchment in France. J Hydrol 485:5–23CrossRefGoogle Scholar
  5. Brun SE, Band LE (2000) Simulating runoff behaviour in an urbanizing watershed. Comput Environ Urban Syst 24:5–22CrossRefGoogle Scholar
  6. Burns D, Vitvar T, McDonnell J, Hassett J, Duncan J, Kendall C (2005) Effects of suburban development on runoff generation in the Croton River basin, New York, USA. J Hydrol 311:266–281CrossRefGoogle Scholar
  7. Chu ML, Knouf JH, Ghulam A, Guzman JA, Pan Z (2013) Impacts of urbanization on river flow frequency: a controlled experimental modelling-based evaluation approach. J Hydrol 495:1–12Google Scholar
  8. Davies HA (1981) The water balance of urban impermeable surfaces: catchment and process studies. University College London, DissertationGoogle Scholar
  9. Devia GK, Ganasri BP, Dwarakish GS (2015) A review on hydrological models. Aquati Procedia 4:1001–1007Google Scholar
  10. Easton ZM, Fuka DR, Walter MT, Cowan DM, Schneiderman EM, Steenhuis TS (2008) Re-conceptualizing the soil and water assessment tool (SWAT) model to predict runoff from variable source areas. J Hydrol 348:279–291CrossRefGoogle Scholar
  11. European Environment Agency (EEA) (2006) Urban sprawl in Europe: the ignored challenge. Report No 10/2006, Copenhagen. http://www.eea.europa.eu/publications/eea_report_2006_10
  12. Ferreira AJD (1996) Processos hidrológicos e hidroquímicos em povoamentos de Eucalyptus globulus Labill. e Pinus pinaster Aiton. Dissertation, University of Aveiro (in Portuguese)Google Scholar
  13. Ferreira CSS, Ferreira ADF, de Lima JLMP, Nunes JP (2011) Assessment of surface hydrologic properties on a small urbanized Mediterranean basin: experimental design and first results. Die Bodenkultur 62(1–4):57–62Google Scholar
  14. Ferreira CSS, Ferreira AJD, Pato RL, Magalhães MC, Coelho COA, Santos C (2012) Rainfall-runoff-erosion relationships study for different land-uses, in a sub-urban area. Z Geomorphol 56(3):5–20CrossRefGoogle Scholar
  15. Ferreira AJD, Pardal J, Malta M, Ferreira CSS, Soares DDJ, Vilhena J (2013) Improving urban ecosystems resilience at a city level. The Coimbra Case Study. Energy Procedia 40:6–14CrossRefGoogle Scholar
  16. Ferreira AJD, Nunes JP, de Lima JLMP Ferreira CSS, Esteves T, Nunes M (2010) Urban flood risk and pollutant relocation as a result of global change. A catchment experimental approach in central Portugal. Folia Geographica, Series Geographica-Physica XLI: 59–66. http://www.geo.uj.edu.pl/foliageographica/index.php?id=2010&nr=2010_04&lang=1
  17. Ferreira CSS, Walsh RPD, Steenhuis TS, Shakesby RA, Nunes JPN, Coelho COA, Ferreira AJD (2015) Spatiotemporal variability of hydrologic soil properties and the implications for overland flow and land management in a peri-urban Mediterranean catchment. J Hydrol 525:249–263CrossRefGoogle Scholar
  18. Ferreira CSS, Walsh RPD, Shakesby RA, Keizer JJ, Soares D, González-Pelayo O, Coelho COA, Ferreira AJD (2016) Differences in overland flow, hydrophobicity and soil moisture dynamics between Mediterranean woodland types in a peri-urban catchment in Portugal. J Hydrol 533:473–485CrossRefGoogle Scholar
  19. Fletcher TD, Andrieu H, Hamel P (2013) Understanding, management and modelling of urban hydrology and its consequences for receiving waters: a state of the art. Adv Water Resour 51:261–279CrossRefGoogle Scholar
  20. Franczyk J, Chang H (2009) The effects of climate change and urbanization on the runoff of the Rock Creek basin in the Portland metropolitan area, Oregon, USA. Hydrol Process 23:805–815CrossRefGoogle Scholar
  21. Haase D (2009) Effects of urbanisation on the water balance—a long-term trajectory. J Environ Impact Assess 29:211–219CrossRefGoogle Scholar
  22. Hood MJ, Clausen JC, Warner GS (2007) Comparison of stormwater lag times for low impact and traditional residential development. J Am Water Resour As 43(4):1036–1046Google Scholar
  23. Huang H, Cheng S, Wen J, Lee J (2008) Effect of growing watershed imperviousness on hydrograph parameters and peak discharge. J Hydrol Process 22:2075–2085CrossRefGoogle Scholar
  24. INMG - Instituto Nacional de Meteorologia e Geofísica (2001) O clima de Portugal. Normais climatológicas da região de “Beira Litoral”, correspondentes a 1971–2000. Fascículo A, volume XLII. Instituto Nacional de Meteorologia e Geofísica, Lisboa (in Portuguese)Google Scholar
  25. Jacobson CR (2011) Identification and quantification of the hydrological impacts of imperviousness in urban catchments: a review. J Environ Manage 92:1438–1448CrossRefGoogle Scholar
  26. Jarnagin T (2007) Historical analysis of the relationship of streamflow flashiness with population density, imperviousness, and percent urban land cover in the Mid-Atlantic Region. Environmental Protection Agency, Internal Report APM 408. http://www.epa.gov/esd/land-sci/pdf/Jarnagin_2007_Historical_Analysis_of_Streamflow_Flashiness.pdf
  27. Jennings DB, Jarnagin ST (2002) Changes in anthropogenic impervious surfaces, precipitation and daily streamflow discharge: a historical perspective in a mid-atlantic subwatershed. Landscape Ecol 17:471–489CrossRefGoogle Scholar
  28. Kalantari Z, Lyon SW, Folkeson L, French HK, Stolte J, Jansson PE, Sassner M (2014) Quantifying the hydrological impact of simulated changes in land use on peak discharge in a small catchment. Sci Total Environ 466–467:741–754CrossRefGoogle Scholar
  29. Konrad CP, Booth DB, Burges SJ (2005) Effects of urban development in the Puget Lowland, Washington, on interannual streamflow patterns: Consequences for channel form and streambed disturbance. Water Resour Res 41:W07009. doi: 10.1029/2005WR004097 CrossRefGoogle Scholar
  30. Lana-Renault N, Latron J, Karssenberg D, Serrano-Muela P, Regués D, Bierkens MFP (2011) Differences in streamflow in relation to changes in land cover: a comparative study in two sub-Mediterranean mountain catchments. J Hydrol 411:366–378Google Scholar
  31. Lu D, Weng Q (2006) Use of impervious surface in urban land-use classification. Remote Sens Environ 102:146–160CrossRefGoogle Scholar
  32. Miller JD, Kim H, Kjeldsen TR, Packman J, Grebby S, Dearden R (2014) Assessing the impact of urbanization on storm runoff in a peri-urban catchment using historical change in impervious cover. J Hydrol 515:59–70CrossRefGoogle Scholar
  33. Mungai DN, Ong CK, Kiteme B, Elkaduwa W, Sakthivadivel R (2004) Lessons from two long-term hydrological studies in Kenya and Sri Lanka. Agric Ecosyst Environ 104:135–143CrossRefGoogle Scholar
  34. Nathan RJ, McMahon TA (1990) Evaluation of automated techniques for base flow and recession analyses. Water Resour Res 26(7):1465–1473CrossRefGoogle Scholar
  35. Nisbet T (2005) Water use by trees. Forestry Commission, Information Note FCIN065. http://www.forestry.gov.uk/pdf/FCIN065.pdf/$FILE/FCIN065.pdf. Assessed 21 September 2015Google Scholar
  36. Nunes JP, de Lima JLMP, Ferreira AJD (2009) Modelling the impact of urbanization on hydrological extremes. IHP-VII UNESCO Tech Doc Hydrol 84:41–48Google Scholar
  37. Pappas EA, Smith DR, Huang C, Shuster WD, Bonta JV (2008) Impervious surface impacts to runoff and sediment discharge under laboratory rainfall simulation. Catena 72:146–152CrossRefGoogle Scholar
  38. Pôças I, Cunha M, Pereira LS, Allen RG (2013) Using remote sensing energy balance and evapotranspiration to characterize montane landscape vegetation with focus on grass and pasture lands. Int J Appl Earth Obs Geoinf 21:159–172CrossRefGoogle Scholar
  39. Ramos AF, Santos FL (2009) Water use, transpiration, and crop coefficients for olives (cv. Cordovil), grown in orchards in Southern Portugal. Biosystems Eng I02:321–333CrossRefGoogle Scholar
  40. Rose S, Peters NE (2001) Effects of urbanization on streamflow in the Atlanta area (Georgia, USA): a comparative hydrological approach. Hydrol Process 15:1441–1457CrossRefGoogle Scholar
  41. Schellekens J, Bruijnzell LA, Scatena FN, Bink NJ, Hlwerda F (2000) Evaporation from a tropical rain forest, Luquillo Experimental Forest. Eastern Puerto Rico. Water Resour Res 36:2183–2196CrossRefGoogle Scholar
  42. Shuster WD, Bonta J, Thurston H, Warnemuende E, Smith DR (2005) Impacts of impervious surface on watershed hydrology: a review. Urban Water J 2(4):263–275CrossRefGoogle Scholar
  43. Sillanpää N, Koivusalo H (2015) Impacts of urban development on runoff event characteristics and unit hydrographs across warm and cold seasons in high latitudes. J Hydrol 521:328–340CrossRefGoogle Scholar
  44. Tavares AO, Pato RL, Magalhães MC (2012) Spatial and temporal land use change and occupation over the last half century in a peri-urban area. Appl Geogr 34:432–444CrossRefGoogle Scholar
  45. United Nations (UN) (2014) World Urbanization Prospects: The 2014 Revision. Department of Economic and Social Affairs, ST/ESA/SER.A/352, New York. http://esa.un.org/unpd/wup/Highlights/WUP2014-Highlights.pdf
  46. White MD, Greer KA (2006) The effects of watershed urbanization on the stream hydrology and riparian vegetation of Los Penasquitos Creek, California. Landscape Urban Plan 74:125–138CrossRefGoogle Scholar
  47. World Reference Base (WRB) for Soil Resources (2006) A framework for international classification, correlation and communication. FAO, 145 ppGoogle Scholar
  48. Ying C, Youpeng X, Yixing Y (2009) Impacts of land use change scenarios on storm-runoff generation in Xitiaoxi basin, China. Quat Int 28(1–2):121–128Google Scholar
  49. Zhang Y, Shuster W (2014) Impacts of spatial distribution of impervious areas on runoff response of hillslope catchments: simulation study. J Hydrol Eng 19(6):1089–1100CrossRefGoogle Scholar

Copyright information

© Springer-Verlag Berlin Heidelberg 2016

Authors and Affiliations

  • Carla Sofia Santos Ferreira
    • 1
    • 2
  • Rory Peter Dominic Walsh
    • 3
  • João Pedro Carvalho Nunes
    • 1
  • Tammo S. Steenhuis
    • 4
  • Manuel Nunes
    • 2
  • João Luís Mendes Pedroso de Lima
    • 5
  • Celeste Oliveira Alves Coelho
    • 1
  • António José Dinis Ferreira
    • 2
  1. 1.Centre for Environment and Marine Studies (CESAM), Department of Environment and PlanningUniversity of AveiroAveiroPortugal
  2. 2.Research Centre for Natural Resources, Environment and Society (CERNAS), College of AgriculturePolytechnic Institute of CoimbraCoimbraPortugal
  3. 3.Department of Geography, College of ScienceSwansea UniversitySwanseaUK
  4. 4.Department of Biological and Environmental EngineeringCornell UniversityIthacaUSA
  5. 5.Institute for Marine Research (IMAR), Marine and Environmental Research Centre (MARE), Department of Civil Engineering of the Faculty of Science and Technology of the University of CoimbraCoimbraPortugal

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