Dynamics of dissolved organic carbon during drought and flood events: A phase-by-stages perspective.
暂无分享,去创建一个
[1] H. Yao,et al. Dynamics of DOC concentration and flux in different propagation stages of hydrological drought: patterns and drivers , 2022, Journal of Hydrology.
[2] Guoyin Wang,et al. Propagation Characteristics of Hydrological Drought Based on Variable and Fixed Threshold Methods in Snowmelt and Rainfall Driven Catchments , 2022, Water.
[3] H. Yao,et al. Simulating dissolved organic carbon during dryness/wetness periods based on hydrological characteristics under multiple timescales , 2022, Journal of Hydrology.
[4] Fengjing Liu,et al. Controls on decadal, annual, and seasonal concentration‐discharge relationships in the Sleepers River Research Watershed, Vermont, northeastern United States , 2022, Hydrological Processes.
[5] H. Yao,et al. Dissolved organic carbon response to hydrological drought characteristics: Based on long-term measurements of headwater streams. , 2022, Water research.
[6] H. Yao,et al. The DESC catchments: Long‐term monitoring of inland Precambrian shield catchment streamflow and water chemistry in Central Ontario, Canada , 2022, Hydrological Processes.
[7] S. Higgins,et al. Spring coherence in dissolved organic carbon export dominates total coherence in Boreal Shield forested catchments , 2021, Environmental Research Letters.
[8] B. Zhu,et al. Responses of soil microbial biomass carbon and dissolved organic carbon to drying-rewetting cycles: A meta-analysis , 2021 .
[9] P. Raymond,et al. Evaluating Streamwater Dissolved Organic Carbon Dynamics in Context of Variable Flowpath Contributions With a Tracer‐Based Mixing Model , 2021, Water Resources Research.
[10] J. Fleckenstein,et al. Low hydrological connectivity after summer drought inhibits DOC export in a forested headwater catchment , 2021, Hydrology and Earth System Sciences.
[11] Sidong Zeng,et al. Automatic procedure for selecting flood events and identifying flood characteristics from daily streamflow data , 2021, Environ. Model. Softw..
[12] C. Schwalm,et al. Patterns of post‐drought recovery are strongly influenced by drought duration, frequency, post‐drought wetness, and bioclimatic setting , 2021, Global change biology.
[13] Xing Yuan,et al. The interactions between hydrological drought evolution and precipitation-streamflow relationship , 2021, Journal of Hydrology.
[14] M. Clark,et al. Challenges in modeling and predicting floods and droughts: A review , 2021, WIREs Water.
[15] Xing-wei Chen,et al. Determination of water required to recover from hydrological drought: Perspective from drought propagation and non-standardized indices , 2020, Journal of Hydrology.
[16] A. James,et al. Contrasting long-term trends of chloride levels in remote and human-disturbed lakes in south-central Ontario, Canada , 2020 .
[17] Y. Xu,et al. On how wetlands can provide flood resilience in a large river basin: A case study in Nenjiang river Basin, China , 2020 .
[18] H. Yao,et al. Dissolved organic carbon in eastern Canadian lakes: Novel patterns and relationships with regional and global factors. , 2020, The Science of the total environment.
[19] A. James,et al. Modifying SWAT-CS for simulating chloride dynamics in a Boreal Shield headwater catchment in south-central Ontario, Canada. , 2020, The Science of the total environment.
[20] H. Laudon,et al. Changing Source‐Transport Dynamics Drive Differential Browning Trends in a Boreal Stream Network , 2020, Water Resources Research.
[21] J. Holden,et al. Increased Dissolved Organic Carbon Concentrations in Peat‐Fed UK Water Supplies Under Future Climate and Sulfate Deposition Scenarios , 2020, Water Resources Research.
[22] H. V. Van Lanen,et al. Moving from drought hazard to impact forecasts , 2019, Nature Communications.
[23] T. Vogel,et al. Modelling multiseasonal preferential transport of dissolved organic carbon in a shallow forest soil: Equilibrium versus kinetic sorption , 2019, Hydrological Processes.
[24] Qiang Huang,et al. Copulas-based bivariate socioeconomic drought dynamic risk assessment in a changing environment , 2019, Journal of Hydrology.
[25] H. Laudon,et al. Contrasting responses in dissolved organic carbon to extreme climate events from adjacent boreal landscapes in Northern Sweden , 2019, Environmental Research Letters.
[26] J. Lapierre,et al. Global Meta‐Analysis on the Relationship Between Mercury and Dissolved Organic Carbon in Freshwater Environments , 2019, Journal of Geophysical Research: Biogeosciences.
[27] J. Saros,et al. Variable responses of dissolved organic carbon to precipitation events in boreal drinking water lakes. , 2019, Water research.
[28] H. Moradkhani,et al. Hydrological drought persistence and recovery over the CONUS: A multi-stage framework considering water quantity and quality. , 2019, Water research.
[29] D. Hannah,et al. An observation-based method to quantify the human influence on hydrological drought: upstream–downstream comparison , 2019, Hydrological Sciences Journal.
[30] Kaifeng Chen,et al. Coincidence Risk Analysis of Floods Using Multivariate Copulas: Case Study of Jinsha River and Min River, China , 2019, Journal of Hydrologic Engineering.
[31] T. Lan,et al. A Clustering Preprocessing Framework for the Subannual Calibration of a Hydrological Model Considering Climate‐Land Surface Variations , 2018, Water Resources Research.
[32] Xiaohong Chen,et al. Hydrological Drought Instantaneous Propagation Speed Based on the Variable Motion Relationship of Speed‐Time Process , 2018, Water Resources Research.
[33] R. Furrer,et al. Identification of Flood Reactivity Regions via the Functional Clustering of Hydrographs , 2018 .
[34] G. Baldassarre,et al. Hydrological change: Towards a consistent approach to assess changes on both floods and droughts , 2018 .
[35] S. Bao,et al. Extreme flooding mobilized dissolved organic matter from coastal forested wetlands , 2017, Biogeochemistry.
[36] C. Birkel,et al. Nonlinear and threshold‐dominated runoff generation controls DOC export in a small peat catchment , 2017 .
[37] Simon Parry,et al. Drought termination , 2016 .
[38] P. O'Gorman,et al. More extreme precipitation in the world’s dry and wet regions , 2016 .
[39] A. James,et al. Relative contributions of stream concentration, stream discharge and shoreline load to base cation trends in Red Chalk and Harp lakes, south‐central Ontario, Canada , 2016 .
[40] P. Durand,et al. Dry‐season length and runoff control annual variability in stream DOC dynamics in a small, shallow groundwater‐dominated agricultural watershed , 2015 .
[41] Huaxia Yao,et al. Trends of ice breakup date in south‐central Ontario , 2015 .
[42] A. V. Loon. Hydrological drought explained , 2015 .
[43] Xing-wei Chen,et al. Improved calibration scheme of SWAT by separating wet and dry seasons , 2015 .
[44] J. Poesen,et al. Controls on dissolved organic carbon export through surface runoff from loamy agricultural soils , 2014 .
[45] Donald C. Pierson,et al. Comparing ice and temperature simulations by four dynamic lake models in Harp Lake: past performance and future predictions , 2014 .
[46] C. Birkel,et al. Integrating parsimonious models of hydrological connectivity and soil biogeochemistry to simulate stream DOC dynamics , 2014 .
[47] Huaxia Yao,et al. SWAT-CS: Revision and testing of SWAT for Canadian Shield catchments , 2014 .
[48] A. Helton,et al. Interannual drought length governs dissolved organic carbon dynamics in blackwater rivers of the western upper Suwannee River basin , 2013 .
[49] Sergio M. Vicente-Serrano,et al. Accurate Computation of a Streamflow Drought Index , 2012 .
[50] V. Singh,et al. A review of drought concepts , 2010 .
[51] H. Laudon,et al. Cold winter soils enhance dissolved organic carbon concentrations in soil and stream water , 2010 .
[52] H. Laudon,et al. Linking soil- and stream-water chemistry based on a Riparian Flow-Concentration Integration Model , 2009 .
[53] Markus Reichstein,et al. Consequences of More Extreme Precipitation Regimes for Terrestrial Ecosystems , 2008 .
[54] Don Monteith,et al. Alternative explanations for rising dissolved organic carbon export from organic soils , 2006 .
[55] S. Kanae,et al. Global Hydrological Cycles and World Water Resources , 2006, Science.
[56] M. Billett,et al. Connecting organic carbon in stream water and soils in a peatland catchment , 2006 .
[57] Joanna M. Clark,et al. Suppression of dissolved organic carbon by sulfate induced acidification during simulated droughts. , 2006, Environmental science & technology.
[58] T. Filley,et al. Flood pulse influences on terrestrial organic matter export from an agricultural watershed , 2005 .
[59] D. Moyer,et al. BIOGEOCHEMICAL AND METABOLIC RESPONSES TO THE FLOOD PULSE IN A SEMIARID FLOODPLAIN , 2005 .
[60] D. J. Dowrick,et al. Export of dissolved organic carbon from peatlands under elevated carbon dioxide levels , 2004, Nature.
[61] S. Carpenter,et al. Whole-lake carbon-13 additions reveal terrestrial support of aquatic food webs , 2004, Nature.
[62] Bernard Bobée,et al. Towards operational guidelines for over-threshold modeling , 1999 .
[63] Chris D. Evans,et al. Causes of concentration/discharge hysteresis and its potential as a tool for analysis of episode hydrochemistry , 1998 .
[64] Stephen J. Burges,et al. An analysis of the influence of river channel properties on flood frequency , 1994 .
[65] W. Langbein. Annual floods and the partial‐duration flood series , 1949 .