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Nirjhar Shah, M. Nachabe, M. Ross (2007)
Extinction Depth and Evapotranspiration from Ground Water under Selected Land CoversGroundwater, 45
O. Cerdan, V. Souchère, V. Lecomte, A. Couturier, Y. Bissonnais (2002)
Incorporating soil surface crusting processes in an expert-based runoff model: Sealing and Transfer by Runoff and Erosion related to Agricultural ManagementCatena, 46
Finkner Finkner, Nearing Nearing, Foster Foster, Gilley Gilley (1989)
A simplified equation for modeling sediment transport capacityTransactions of the American Society of Agricultural Engineering, 32
M. Kirkby (1999)
Landscape modelling at Regional to Continental scales, 78
J. Knijff, Robert Jones, L. Montanarella (2000)
Soil erosion risk assessment in Europe, 19044
(1995)
European Land Information Systems for Agro-environmental Monitoring. Office for Official Publications of the European Communities, Luxembourg, EUR 16232 EN
P. Llorens, R. Poch, J. Latron, F. Gallart (1997)
Rainfall interception by a Pinus sylvestris forest patch overgrown in a Mediterranean mountainous abandoned area I. Monitoring design and results down to the event scaleJournal of Hydrology, 199
K. Beven, M. Kirkby, N. Schofield, A. Tagg (1984)
Testing a physically-based flood forecasting model (TOPMODEL) for three U.K. catchmentsJournal of Hydrology, 69
J. Wainwright, A. Parsons (2002)
The effect of temporal variations in rainfall on scale dependency in runoff coefficientsWater Resources Research, 38
G. Jacks (1940)
Soil ConservationNature, 146
(2003)
PESERA-Third annual report
M. Kirkby, N. Cox (1995)
A climatic index for soil erosion potential (CSEP) including seasonal and vegetation factorsCatena, 25
(2007)
Daily Rainfall Variability at Point and Areal Scales: Evaluating Simulations of Present and Future Climate
Nearing Nearing, Foster Foster, Lane Lane, Finkner Finkner (1989)
A process‐based soil‐erosion model for USDA‐water erosion prediction project technologyTransactions of the American Society of Agricultural Engineers, 32
Xiaoyang Zhang, N. Drake, J. Wainwright (2002)
Scaling land surface parameters for global‐scale soil erosion estimationWater Resources Research, 38
M. Kirkby, K. Beven (1979)
A physically based, variable contributing area model of basin hydrology, 24
M. Kirkbya, Y. Bissonaisb, T. Coulthardc, J. Daroussinb, M. McMahona (2000)
The development of land quality indicators for soil degradation by water erosion
J. Orshoven, J. Terres, A. Willekens, J. Feyen (1999)
Transfer procedures for model-based agricultural monitoring
M. Nearing, G. Foster, L. Lane, S. Finkner (1989)
A Process-Based Soil Erosion Model for USDA-Water Erosion Prediction Project TechnologyTransactions of the ASABE, 32
Coulthard Coulthard, Lewin Lewin, Macklin Macklin (2005)
Modelling differential and complex catchment response to environmental changeGeomorphology, 69
W. Green
Studies in soil physics : I. The flow of air and water through soilsThe Journal of Agricultural Science, 4
Y. Yuan, J. Mitchell, M. Hirschi, R. Cooke (2001)
Modified SCS curve number method for predicting subsurface drainage flowTransactions of the ASABE, 44
Y. Bissonnais, C. Montier, M. Jamagne, J. Daroussin, D. King (2002)
Mapping erosion risk for cultivated soil in FranceCatena, 46
Roger Smith, D. Goodrich, J. Quinton (1995)
Dynamic, Distributed Simulation of Watershed Erosion - the Kineros2 and Eurosem Models.Journal of Soil and Water Conservation, 50
F. Darboux, C. Gascuel-Odoux, P. Davy (2002)
Effects of surface water storage by soil roughness on overland‐flow generationEarth Surface Processes and Landforms, 27
K. Renard, G. Foster, G. Weesies, Jeffrey Porter (1991)
RUSLE: Revised universal soil loss equationJournal of Soil and Water Conservation, 46
(1935)
Effect of cover on surface runoff and erosion in the Loessial uplands of Mississippi
(2008)
The Authors Journal compilation
R. Morgan, J. Quinton, R. Rickson (1994)
Modelling Methodology for Soil Erosion Assessment and Soil Conservation Design: The EUROSEM ApproachOutlook on Agriculture, 23
M. Kirkby, A. Imeson, Ger Bergkamp, L. Cammeraat (1996)
Scaling up processes and models from the field plot to the watershed and regional areas.Journal of Soil and Water Conservation, 51
R. Wiltshire (1983)
Periodic heat conduction in a non-uniform soilEarth Surface Processes and Landforms, 8
W. Wischmeier, D. Smith (1958)
Rainfall energy and its relationship to soil lossEos, Transactions American Geophysical Union, 39
M. Kirkby, L. Bracken, J. Shannon (2005)
The influence of rainfall distribution and morphological factors on runoff delivery from dryland catchments in SE SpainCatena, 62
R. Brazier, J. Rowan, S. Anthony, P. Quinn (2001)
“MIRSED” towards an MIR approach to modelling hillslope soil erosion at the national scaleCatena, 42
S. Finkner, M. Hearing, G. Foster, J. Gilley (1989)
A Simplified Equation for Modeling Sediment Transport CapacityTransactions of the ASABE, 32
R. Hock (2003)
Temperature index melt modelling in mountain areasJournal of Hydrology, 282
J. White, G. Hoogenboom, L. Hunt (2005)
A structured procedure for assessing how crop models respond to temperatureAgronomy Journal, 97
(1995)
European Land Information Systems for Agro-environmental Monitoring
M. Kirkby, L. Bull, J. Poesen, J. Nachtergaele, L. Vandekerckhove (2003)
Observed and modelled distributions of channel and gully heads—with examples from SE Spain and BelgiumCatena, 50
A. Roo, C. Wesseling, C. Ritsema (1996)
LISEM: a single-event physically based hydrological and soil erosion model for drainage basins; I: theory, input and outputHydrological Processes, 10
(1959)
Erosion Research. Henderson Research Station, Report of progress 1958-9
G. Tucker, S. Lancaster, N. Gasparini, R. Bras (2001)
The Channel-Hillslope Integrated Landscape Development Model (CHILD)
Yuan Yuan, Mitchell Mitchell, Hirschi Hirschi, Cooke Cooke (2001)
Modified SCS curve number method for predicting subsurface drainage flowTransactions of the American Society of Civil Engineers, 44
(2006)
Proposal for a Directive of the European Parliament and of the Council Establishing a Framework for the Protection of Soil and Amending
J. Philip (1958)
The Theory of InfiltrationSoil Science, 84
D. King, J. Daroussin, R. Tavernier (1994)
Development of a soil geographic database from the Soil Map of the European CommunitiesCatena, 21
Y. Bissonnais, O. Cerdan, V. Lecomte, H. Benkhadra, V. Souchère, P. Martin (2005)
Variability of soil surface characteristics influencing runoff and interrill erosionCatena, 62
T. Coulthard, J. Lewin, M. Macklin (2005)
Modelling differential catchment response to environmental changeGeomorphology, 69
Gerard Govers (1987)
Spatial and temporal variability in rill development processes at the Huldenberg experimental siteCatena
(2005)
Pan-European soil crusting and erodibility assessment from the European soil geographical database using pedotransfer rules
(2003)
PESERA-Third annual report. In: The Nature and Extent of Soil Erosion in Europe
J. Philip (1957)
THE THEORY OF INFILTRATION: 4. SORPTIVITY AND ALGEBRAIC INFILTRATION EQUATIONSSoil Science, 84
M. Seely, H. Wöhl (2004)
Connecting Research to Combating DesertificationEnvironmental Monitoring and Assessment, 99
D. Haboudane, F. Bonn, A. Royer, S. Sommer, W. Mehl (2002)
Land degradation and erosion risk mapping by fusion of spectrally-based information and digital geomorphometric attributesInternational Journal of Remote Sensing, 23
J. Ploey, M. Kirkby, F. Ahnert (1991)
Hillslope erosion by rainstorms–a magnitude‐frequency analysisEarth Surface Processes and Landforms, 16
Beven Beven, Kirkby Kirkby (1979)
Towards a simple, physically based, variable contributing area model of catchment hydrologyInternational Association of Hydrological Science Bulletin, 24
(1947)
Quantitative evaluation of factors in water erosion
S. Trimble (1981)
Changes in Sediment Storage in the Coon Creek Basin, Driftless Area, Wisconsin, 1853 to 1975Science, 214
W. Wischmeier, D. Smith (1978)
Predicting rainfall erosion losses : a guide to conservation planning, 537
(1987)
A soil erosion model incorporating seasonal factors
Robert Jones, P. Zdruli, L. Montanarella (2000)
THE ESTIMATION OF DROUGHT RISK IN EUROPE FROM SOIL AND CLIMATIC DATA
Anne Gobin, Robert Jones, M. Kirkby, P. Campling, Gerard Govers, C. Kosmas, A. Gentile (2004)
Indicators for pan-European assessment and monitoring of soil erosion by waterEnvironmental Science & Policy, 7
Summary The principles and theoretical background are presented for a new process‐based model (PESERA) that is designed to estimate long‐term average erosion rates at 1 km resolution and has, to date, been applied to most of Europe. The model is built around a partition of precipitation into components for overland flow (infiltration excess, saturation excess and snowmelt), evapo‐transpiration and changes in soil moisture storage. Transpiration is used to drive a generic plant growth model for biomass, constrained as necessary by land use decisions, primarily on a monthly time step. Leaf fall, with corrections for cropping, grazing, etc., also drives a simple model for soil organic matter. The runoff threshold for infiltration excess overland flow depends dynamically on vegetation cover, organic matter and soil properties, varying over the year. The distribution of daily rainfall totals has been fitted to a Gamma distribution for each month, and drives overland flow and sediment transport (proportional to the sum of overland flow squared) by summing over this distribution. Total erosion is driven by erodibility, derived from soil properties, squared overland flow discharge and gradient; it is assessed at the slope base to estimate total loss from the land, and delivered to stream channels.
European Journal of Soil Science – Wiley
Published: Dec 1, 2008
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