How do storm characteristics influence concentration-discharge hysteresis in a high-elevation tropical ecosystem?
暂无分享,去创建一个
C. Birkel | P. Crespo | G. Mosquera | Juan Pesántez | Viviana Arízaga-Idrovo | Pablo Peña | Enma Mora
[1] P. Crespo,et al. Effect of weir´s theoretical discharge coefficient on discharge measurements in small Andean streams , 2022, La Granja.
[2] A. Lintern,et al. Synthesizing the impacts of baseflow contribution on concentration–discharge (C–Q) relationships across Australia using a Bayesian hierarchical model , 2022, Hydrology and Earth System Sciences.
[3] J. Six,et al. Fluvial sediment export from pristine forested headwater catchments in the Congo Basin , 2021, Geomorphology.
[4] W. McDowell,et al. High‐frequency multi‐solute calibration using an in situ UV–visible sensor , 2021 .
[5] A. Alvarado,et al. Resistance Analysis of Morphologies in Headwater Mountain Streams , 2021, Water.
[6] Bingfang Wu,et al. Dryland ecosystem dynamic change and its drivers in Mediterranean region , 2021 .
[7] C. Tovar,et al. A concerted research effort to advance the hydrological understanding of tropical páramos , 2020, Hydrological Processes.
[8] J. Feyen,et al. Water transport and tracer mixing in volcanic ash soils at a tropical hillslope: A wet layered sloping sponge , 2020, Hydrological Processes.
[9] Yunmin Chen,et al. Quantitative characterization of solute transport in fractures with different surface roughness based on ten Barton profiles , 2020, Environmental Science and Pollution Research.
[10] J. Kirchner,et al. Concentration–discharge relationships vary among hydrological events, reflecting differences in event characteristics , 2020, Hydrology and Earth System Sciences.
[11] William H. McDowell,et al. Hysteretic Response of Solutes and Turbidity at the Event Scale Across Forested Tropical Montane Watersheds , 2019, Front. Earth Sci..
[12] S. Godsey,et al. Dynamic stream network intermittence explains emergent dissolved organic carbon chemostasis in headwaters , 2019, Hydrological Processes.
[13] J. McDonnell,et al. The role of vegetation, soils, and precipitation on water storage and hydrological services in Andean Páramo catchments , 2019, Journal of Hydrology.
[14] R. Célleri,et al. Moisture transport and seasonal variations in the stable isotopic composition of rainfall in Central American and Andean Páramo during El Niño conditions (2015–2016) , 2019, Hydrological Processes.
[15] J. Feyen,et al. Spatially distributed hydro-chemical data with temporally high-resolution is needed to adequately assess the hydrological functioning of headwater catchments. , 2019, The Science of the total environment.
[16] M. Rodríguez-Blanco,et al. Using hysteresis analysis to infer controls on sediment-associated and dissolved metals transport in a small humid temperate catchment , 2018, Journal of Hydrology.
[17] R. Célleri,et al. Impact of Rain Gauges Distribution on the Runoff Simulation of a Small Mountain Catchment in Southern Ecuador , 2018, Water.
[18] C. Soulsby,et al. Spatio-temporal diel DOC cycles in a wet, low energy, northern catchment: Highlighting and questioning the sub-daily rhythms of catchment functioning , 2018, Journal of Hydrology.
[19] L. Breuer,et al. Effect of land cover and hydro‐meteorological controls on soil water DOC concentrations in a high‐elevation tropical environment , 2018, Hydrological Processes.
[20] H. Fang,et al. Effects of roughness and permeability on solute transfer at the sediment water interface. , 2018, Water research.
[21] C. Hunsaker,et al. Concentration‐discharge relationships in headwater streams of the Sierra Nevada, California , 2017 .
[22] W. McDowell,et al. Critical zone structure controls concentration‐discharge relationships and solute generation in forested tropical montane watersheds , 2017 .
[23] J. Feyen,et al. Temporal dynamics in dominant runoff sources and flow paths in the Andean Páramo , 2017 .
[24] J. Hartmann,et al. Catchment chemostasis revisited: Water quality responds differently to variations in weather and climate , 2017, Hydrological Processes.
[25] Carmen Rosa Montes-Pulido,et al. Carbono almacenado en páramo andino , 2017 .
[26] C. Birkel,et al. Nonlinear and threshold‐dominated runoff generation controls DOC export in a small peat catchment , 2017 .
[27] R. Maxwell,et al. Snowmelt controls on concentration‐discharge relationships and the balance of oxidative and acid‐base weathering fluxes in an alpine catchment, East River, Colorado , 2017 .
[28] B. Abbott,et al. Elemental properties, hydrology, and biology interact to shape concentration‐discharge curves for carbon, nutrients, sediment, and major ions , 2017 .
[29] J. Feyen,et al. Continuous versus event‐based sampling: how many samples are required for deriving general hydrological understanding on Ecuador's páramo region? , 2016 .
[30] J. Hartmann,et al. Differential weathering of basaltic and granitic catchments from concentration–discharge relationships , 2016 .
[31] Marco Borga,et al. A versatile index to characterize hysteresis between hydrological variables at the runoff event timescale , 2016 .
[32] Jim E Freer,et al. Technical Note: Testing an improved index for analysing storm discharge–concentration hysteresis , 2016 .
[33] J. Freer,et al. Using hysteresis analysis of high-resolution water quality monitoring data, including uncertainty, to infer controls on nutrient and sediment transfer in catchments. , 2016, The Science of the total environment.
[34] M. Xenopoulos,et al. Human activities cause distinct dissolved organic matter composition across freshwater ecosystems , 2016, Global change biology.
[35] Luiz Eduardo Moschini,et al. Influence of watershed land use and riparian characteristics on biological indicators of stream water quality in southeastern Brazil , 2016 .
[36] P. Sullivan,et al. Landscape heterogeneity drives contrasting concentration–discharge relationships in shale headwater catchments , 2015 .
[37] J. McDonnell,et al. Water's Way at Sleepers River watershed – revisiting flow generation in a post‐glacial landscape, Vermont USA , 2015 .
[38] R. Célleri,et al. Rainfall in the Andean Páramo: New Insights from High-Resolution Monitoring in Southern Ecuador , 2015 .
[39] A. Heathwaite,et al. Seasonal variation in phosphorus concentration–discharge hysteresis inferred from high-frequency in situ monitoring , 2015 .
[40] H. Laudon,et al. The river as a chemostat: fresh perspectives on dissolved organic matter flowing down the river continuum , 2015 .
[41] A. Wade,et al. Characterising phosphorus and nitrate inputs to a rural river using high-frequency concentration-flow relationships. , 2015, The Science of the total environment.
[42] R. Célleri,et al. Runoff from tropical alpine grasslands increases with areal extent of wetlands , 2015 .
[43] R. Stallard,et al. A Unified Assessment of Hydrologic and Biogeochemical Responses in Research Watersheds in Eastern Puerto Rico Using Runoff–Concentration Relations , 2014, Aquatic Geochemistry.
[44] G. Hornberger,et al. Concentration–discharge relationships in the coal mined region of the New River basin and Indian Fork sub‐basin, Tennessee, USA , 2014 .
[45] J. McDonnell,et al. The hydrology of the humid tropics , 2012 .
[46] JM Quinn,et al. Land use influences on suspended sediment yields and event sediment dynamics within two headwater catchments, Waikato, New Zealand , 2012 .
[47] Kate Maher,et al. The role of fluid residence time and topographic scales in determining chemical fluxes from landscapes , 2011 .
[48] N. Basu,et al. Hydrologic and biogeochemical functioning of intensively managed catchments: A synthesis of top‐down analyses , 2011 .
[49] J. Feyen,et al. Identifying controls of the rainfall–runoff response of small catchments in the tropical Andes (Ecuador) , 2011 .
[50] David K. Stevens,et al. Surrogate Measures for Providing High Frequency Estimates of Total Suspended Solids and Total Phosphorus Concentrations 1 , 2011 .
[51] A. Rinaldo,et al. Nutrient loads exported from managed catchments reveal emergent biogeochemical stationarity , 2010 .
[52] Christopher Spence,et al. A Paradigm Shift in Hydrology: Storage Thresholds Across Scales Influence Catchment Runoff Generation , 2010 .
[53] R. Hatano,et al. Hydrological process controls on nitrogen export during storm events in an agricultural watershed , 2010 .
[54] M. Mast,et al. Mechanisms for chemostatic behavior in catchments: Implications for CO2 consumption by mineral weathering , 2010 .
[55] C. Neal,et al. The value of high-resolution nutrient monitoring: A case study of the River Frome, Dorset, UK , 2009 .
[56] W. McDowell,et al. Salinization of urbanizing New Hampshire streams and groundwater: effects of road salt and hydrologic variability , 2009, Journal of the North American Benthological Society.
[57] Hugh G. Smith,et al. Interpreting sediment delivery processes using suspended sediment‐discharge hysteresis patterns from nested upland catchments, south‐eastern Australia , 2009 .
[58] J. Kirchner,et al. Concentration–discharge relationships reflect chemostatic characteristics of US catchments , 2009 .
[59] A. Butturini,et al. Diversity and temporal sequences of forms of DOC and NO3-discharge responses in an intermittent stream : Predictable or random succession? , 2008 .
[60] Yolanda Madrid,et al. Water sampling : Traditional methods and new approaches in water sampling strategy , 2007 .
[61] G. Petts,et al. Turbidity dynamics during spring storm events in an urban headwater river system: the Upper Tame, West Midlands, UK. , 2006, The Science of the total environment.
[62] Y. Lucas,et al. Transfer of nutrients and labile metals from the continent to the sea by a small Mediterranean river. , 2006, Chemosphere.
[63] Dale W. Johnson,et al. Suspended sediment dynamics associated with snowmelt runoff in a small mountain stream of Lake Tahoe (Nevada) , 2005 .
[64] P. Johnes,et al. Physico-chemical controls on phosphorus cycling in two lowland streams. Part 2--the sediment phase. , 2004, The Science of the total environment.
[65] James W. Kirchner,et al. The fine structure of water‐quality dynamics: the (high‐frequency) wave of the future , 2004 .
[66] Y. Tardy,et al. Geochemistry applied to the watershed survey: hydrograph separation, erosion and soil dynamics. A case study: the basin of the Niger River, Africa , 2004 .
[67] William H. McDowell,et al. Biogeochemical Hot Spots and Hot Moments at the Interface of Terrestrial and Aquatic Ecosystems , 2003, Ecosystems.
[68] Jonathan D. Phillips,et al. Sources of nonlinearity and complexity in geomorphic systems , 2003 .
[69] P. Podwojewski,et al. Runoff and soil erosion under rainfall simulation of Andisols from the Ecuadorian Páramo: effect of tillage and burning , 2001 .
[70] G. Hornberger,et al. Modelling transport of dissolved silica in a forested headwater catchment: the effect of hydrological and chemical time scales on hysteresis in the concentration–discharge relationship , 2001 .
[71] Keith Richards,et al. Turbidity and suspended sediment dynamics in small catchments in the Nepal Middle Hills , 2000 .
[72] C. D. Ollier,et al. Geomorphic and tectonic evolution of the Ecuadorian Andes , 2000 .
[73] Bernard Bobée,et al. Towards operational guidelines for over-threshold modeling , 1999 .
[74] Pascale M. Biron,et al. The effects of antecedent moisture conditions on the relationship of hydrology to hydrochemistry in a small forested watershed , 1999 .
[75] P. Sklenář,et al. Distribution patterns of páramo plants in Ecuador , 1999 .
[76] Chris D. Evans,et al. Causes of concentration/discharge hysteresis and its potential as a tool for analysis of episode hydrochemistry , 1998 .
[77] P. Ramsay,et al. The growth form composition of plant communities in the ecuadorian páramos , 1997, Plant Ecology.
[78] J. Syvitski,et al. Geomorphic/Tectonic Control of Sediment Discharge to the Ocean: The Importance of Small Mountainous Rivers , 1992, The Journal of Geology.
[79] A. Robson,et al. Towards predicting future episodic changes in stream chemistry , 1991 .
[80] P. Wood,et al. Controls of variation in suspended sediment concentration in the River Rother, West Sussex, England , 1977 .
[81] H. J. Walker,et al. Suspended Load in the Colville River, Alaska, 1962 , 1967 .
[82] C. A. Barboza,et al. Influence of land cover, catchment morphometry and rainfall on water quality and material transport of headwaters and low-order streams of a tropical mountainous watershed , 2022, CATENA.
[83] R. D. Moore. Introduction to Salt Dilution Gauging for Streamflow Measurement Part 2 : Constant-rate Injection , 2008 .
[84] J. O'kane. Hysteresis in hydrology , 2005 .
[85] Michael Steinmann,et al. Neogene stratigraphy and Andean geodynamics of southern Ecuador , 2002 .
[86] W. McDowell,et al. Export of carbon, nitrogen, and major ions from three tropical montane watersheds , 1994 .
[87] G. Williams. Sediment concentration versus water discharge during single hydrologic events in rivers , 1989 .
[88] Yang Wu,et al. Hydrological characteristics of the Changjiang and its relation to sediment transport to the sea , 1985 .