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Study of hydrological processes by the combination of environmental tracing and hillslope measurements: application to the Haute-Menthue catchment.

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Study of hydrological processes by the combination of environmental tracing and hillslope measurements: application to the Haute-Menthue catchment. / Joerin, C.; Beven, Keith J.; Musy, A. et al.
In: Hydrological Processes, Vol. 19, No. 16, 30.10.2005, p. 3127-3145.

Research output: Contribution to Journal/MagazineJournal article

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Joerin C, Beven KJ, Musy A, Balin-Talamba D. Study of hydrological processes by the combination of environmental tracing and hillslope measurements: application to the Haute-Menthue catchment. Hydrological Processes. 2005 Oct 30;19(16):3127-3145. doi: 10.1002/hyp.5836

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Bibtex

@article{b970504464d04050ad434b07f63e805a,
title = "Study of hydrological processes by the combination of environmental tracing and hillslope measurements: application to the Haute-Menthue catchment.",
abstract = "The objective of this research is to improve the comprehension of the hydrological behaviour of natural catchments. The main originality of this work is to associate different types of measurement in order to obtain a better vision of hydrological processes responsible for streamflow generation. First, the hydrological behaviour is studied at the catchment scale by the application of environmental tracing. A three-component mixing model based on the silica and calcium concentrations of water allows one to distinguish the contributions of direct precipitation, soil water and groundwater during flood generation. Despite the different hydrological responses observed between the four subcatchments studied, a common behaviour is apparent. Soil contribution increases with a rise in the basin humidity. The subsurface water dominates the generation of major floods, which occur in wet conditions. In order to discover the processes responsible for the important soil water contributions, a large-scale time-domain reflectometry experiment (64 probes) was conducted. On the whole, this experiment indicates that the water flow in soil is spatially quite heterogeneous and depends on local properties. Macropore flows were clearly identified during a rainfall simulator experiment. Preferential flows may be responsible for the important contribution of soil water and the heterogeneity of the soil moisture. In order to test this hypothesis, a dye-tracing experiment was done. This new investigation confirms that an important part of soil water reaches the stream by preferential flows. So as to synthesize all these observations, a conceptual model is proposed. This model respects both the hydrochemical responses highlighted by the environmental tracing experiment and the observations done at the local scale. This conceptual model suggests that the important contribution of soil water is due to the extent of the hydrographic network and the role of preferential flows.",
keywords = "hydrological processes • association of measurements • hydrograph separation • time-domain reflectometry • rainfall simulator • dye tracing • preferential flows",
author = "C. Joerin and Beven, {Keith J.} and A. Musy and D. Balin-Talamba",
year = "2005",
month = oct,
day = "30",
doi = "10.1002/hyp.5836",
language = "English",
volume = "19",
pages = "3127--3145",
journal = "Hydrological Processes",
issn = "0885-6087",
publisher = "John Wiley and Sons Ltd",
number = "16",

}

RIS

TY - JOUR

T1 - Study of hydrological processes by the combination of environmental tracing and hillslope measurements: application to the Haute-Menthue catchment.

AU - Joerin, C.

AU - Beven, Keith J.

AU - Musy, A.

AU - Balin-Talamba, D.

PY - 2005/10/30

Y1 - 2005/10/30

N2 - The objective of this research is to improve the comprehension of the hydrological behaviour of natural catchments. The main originality of this work is to associate different types of measurement in order to obtain a better vision of hydrological processes responsible for streamflow generation. First, the hydrological behaviour is studied at the catchment scale by the application of environmental tracing. A three-component mixing model based on the silica and calcium concentrations of water allows one to distinguish the contributions of direct precipitation, soil water and groundwater during flood generation. Despite the different hydrological responses observed between the four subcatchments studied, a common behaviour is apparent. Soil contribution increases with a rise in the basin humidity. The subsurface water dominates the generation of major floods, which occur in wet conditions. In order to discover the processes responsible for the important soil water contributions, a large-scale time-domain reflectometry experiment (64 probes) was conducted. On the whole, this experiment indicates that the water flow in soil is spatially quite heterogeneous and depends on local properties. Macropore flows were clearly identified during a rainfall simulator experiment. Preferential flows may be responsible for the important contribution of soil water and the heterogeneity of the soil moisture. In order to test this hypothesis, a dye-tracing experiment was done. This new investigation confirms that an important part of soil water reaches the stream by preferential flows. So as to synthesize all these observations, a conceptual model is proposed. This model respects both the hydrochemical responses highlighted by the environmental tracing experiment and the observations done at the local scale. This conceptual model suggests that the important contribution of soil water is due to the extent of the hydrographic network and the role of preferential flows.

AB - The objective of this research is to improve the comprehension of the hydrological behaviour of natural catchments. The main originality of this work is to associate different types of measurement in order to obtain a better vision of hydrological processes responsible for streamflow generation. First, the hydrological behaviour is studied at the catchment scale by the application of environmental tracing. A three-component mixing model based on the silica and calcium concentrations of water allows one to distinguish the contributions of direct precipitation, soil water and groundwater during flood generation. Despite the different hydrological responses observed between the four subcatchments studied, a common behaviour is apparent. Soil contribution increases with a rise in the basin humidity. The subsurface water dominates the generation of major floods, which occur in wet conditions. In order to discover the processes responsible for the important soil water contributions, a large-scale time-domain reflectometry experiment (64 probes) was conducted. On the whole, this experiment indicates that the water flow in soil is spatially quite heterogeneous and depends on local properties. Macropore flows were clearly identified during a rainfall simulator experiment. Preferential flows may be responsible for the important contribution of soil water and the heterogeneity of the soil moisture. In order to test this hypothesis, a dye-tracing experiment was done. This new investigation confirms that an important part of soil water reaches the stream by preferential flows. So as to synthesize all these observations, a conceptual model is proposed. This model respects both the hydrochemical responses highlighted by the environmental tracing experiment and the observations done at the local scale. This conceptual model suggests that the important contribution of soil water is due to the extent of the hydrographic network and the role of preferential flows.

KW - hydrological processes • association of measurements • hydrograph separation • time-domain reflectometry • rainfall simulator • dye tracing • preferential flows

U2 - 10.1002/hyp.5836

DO - 10.1002/hyp.5836

M3 - Journal article

VL - 19

SP - 3127

EP - 3145

JO - Hydrological Processes

JF - Hydrological Processes

SN - 0885-6087

IS - 16

ER -