Groundwater exfiltration pattern determination in the sub-arctic catchment using thermal imaging, stable water isotopes and fully-integrated groundwater-surface water modelling
暂无分享,去创建一个
A. Lohila | M. Aurela | H. Marttila | P. Ala‐aho | Anna-kaisa Ronkanen | P. Rossi | Björn Klöve | Pasi Korpelainen | Anna Autio | Timo Kumpula
[1] L. Bertalan,et al. UAV-based multispectral and thermal cameras to predict soil water content – A machine learning approach , 2022, Computers and Electronics in Agriculture.
[2] D. Rosenberry,et al. GW/SW‐MST: A Groundwater/Surface‐Water Method Selection Tool , 2022, Ground water.
[3] D. Hannah,et al. Looking to the Skies: Realising the Combined Potential of Drones and Thermal Infrared Imagery to Advance Hydrological Process Understanding in Headwaters , 2022, Water Resources Research.
[4] Andri E. Hanson,et al. Where groundwater seeps: Evaluating modeled groundwater discharge patterns with thermal infrared surveys at the river-network scale , 2021, Advances in Water Resources.
[5] J. Welker,et al. Subarctic catchment water storage and carbon cycling – Leading the way for future studies using integrated datasets at Pallas, Finland , 2021 .
[6] E. Sudicky,et al. Investigating groundwater-lake interactions in the Laurentian Great Lakes with a fully-integrated surface water-groundwater model , 2021 .
[7] T. Manninen,et al. Predicting catchment-scale methane fluxes with multi-source remote sensing , 2021, Landscape Ecology.
[8] Z. Kern,et al. Use of Water Isotopes in Hydrological Processes , 2020, Water.
[9] B. Kløve,et al. Implications of Peat Soil Conceptualization for Groundwater Exfiltration in Numerical Modeling: A Study on a Hypothetical Peatland Hillslope , 2020, Water Resources Research.
[10] J. Sykes,et al. Topography scale effects on groundwater-surface water exchange fluxes in a Canadian Shield setting , 2020, Journal of Hydrology.
[11] D. Ryu,et al. Unmanned Aerial Vehicle (UAV)-Based Thermal Infra-Red (TIR) and Optical Imagery Reveals Multi-Spatial Scale Controls of Cold-Water Areas Over a Groundwater-Dominated Riverscape , 2020, Frontiers in Environmental Science.
[12] J. Klaus,et al. Intra-catchment variability of surface saturation – insights from physically based simulations in comparison with biweekly thermal infrared image observations , 2020 .
[13] Finland , 2020, Quarterly National Accounts.
[14] S. Krause,et al. Groundwater–Surface Water Interactions: Recent Advances and Interdisciplinary Challenges , 2020, Water.
[15] B. Kløve,et al. A tracer-based method for classifying groundwater dependence in boreal headwater streams , 2019, Journal of Hydrology.
[16] K. Korkka-niemi,et al. Groundwater recharge/discharge patterns and groundwater–surface water interactions in a sedimentary aquifer along the River Kitinen in Sodankylä , 2019 .
[17] B. Kløve,et al. Parameterisation of an integrated groundwater-surface water model for hydrological analysis of boreal aapa mire wetlands , 2019, Journal of Hydrology.
[18] C. Davids,et al. Combining unmanned aerial vehicle-based remote sensing and stable water isotope analysis to monitor treatment peatlands of mining areas , 2019, Ecological Engineering.
[19] G. Davenport,et al. Evaluation of Stream and Wetland Restoration Using UAS-Based Thermal Infrared Mapping , 2019, Water.
[20] P. Brunner,et al. How Diverse Observations Improve Groundwater Models , 2019, Eos.
[21] B. Conant,et al. A framework for conceptualizing groundwater-surface water interactions and identifying potential impacts on water quality, water quantity, and ecosystems , 2019, Journal of Hydrology.
[22] Marco Chini,et al. Technical note: Mapping surface-saturation dynamics with thermal infrared imagery , 2018, Hydrology and Earth System Sciences.
[23] David Eschbach,et al. Assessing the effect of flood restoration on surface–subsurface interactions in Rohrschollen Island (Upper Rhine river – France) using integrated hydrological modeling and thermal infrared imaging , 2018, Hydrology and Earth System Sciences.
[24] W. Nowak,et al. Sensitivity of Simulated Hyporheic Exchange to River Bathymetry: The Steinlach River Test Site , 2018, Ground water.
[25] H. Laudon,et al. Groundwater-surface water interactions across scales in a boreal landscape investigated using a numerical modelling approach , 2018 .
[26] K. Schilling,et al. Investigating Hydrologic Connectivity of a Drained Prairie Pothole Region Wetland Complex using a Fully Integrated, Physically-Based Model , 2018, Wetlands.
[27] Gabrielle J. M. De Lannoy,et al. Inferring Water Table Depth Dynamics from ENVISAT-ASAR C-Band Backscatter over a Range of Peatlands from Deeply-Drained to Natural Conditions , 2018, Remote. Sens..
[28] J. F. Devlin,et al. Application of new point measurement device to quantify groundwater-surface water interactions. , 2018, Journal of contaminant hydrology.
[29] N. Eyles,et al. High-resolution LiDAR mapping of glacial landforms and ice stream lobes in Finland , 2017 .
[30] A. Binley,et al. Geophysical characterisation of the groundwater–surface water interface , 2017 .
[31] J. F. Devlin,et al. Validation of a new device to quantify groundwater-surface water exchange. , 2017, Journal of contaminant hydrology.
[32] D. Tetzlaff,et al. Soil water stable isotopes reveal evaporation dynamics at the soil–plant–atmosphere interface of the critical zone , 2017 .
[33] G. Davenport,et al. Hydrogeological controls on spatial patterns of groundwater discharge in peatlands , 2017 .
[34] P. Ala‐aho,et al. Integrated surface-subsurface model to investigate the role of groundwater in headwater catchment runoff generation: A minimalist approach to parameterisation , 2017 .
[35] Laurent Pfister,et al. Ecohydrological interfaces as hot spots of ecosystem processes , 2017 .
[36] B. Kløve,et al. Quantifying spatial groundwater dependence in peatlands through a distributed isotope mass balance approach , 2017 .
[37] D. Tetzlaff,et al. Evaporation fractionation in a peatland drainage network affects stream water isotope composition , 2017 .
[38] Laurent Pfister,et al. On the value of surface saturated area dynamics mapped with thermal infrared imagery for modeling the hillslope‐riparian‐stream continuum , 2016 .
[39] Zeno F. Levy,et al. Peat porewaters have contrasting geochemical fingerprints for groundwater recharge and discharge due to matrix diffusion in a large, northern bog-fen complex , 2016 .
[40] Glorianna Davenport,et al. Thermal infrared video details multiscale groundwater discharge to surface water through macropores and peat pipes , 2016 .
[41] Mary C. Hill,et al. Parameterization, sensitivity analysis, and inversion: an investigation using groundwater modeling of the surface-mined Tivoli-Guidonia basin (Metropolitan City of Rome, Italy) , 2016, Hydrogeology Journal.
[42] Stephen J. Dugdale,et al. A practitioner's guide to thermal infrared remote sensing of rivers and streams: recent advances, precautions and considerations , 2016 .
[43] D. Rosenberry,et al. A comparison of thermal infrared to fiber-optic distributed temperature sensing for evaluation of groundwater discharge to surface water. , 2015 .
[44] J. Fleckenstein,et al. An exploration of coupled surface–subsurface solute transport in a fully integrated catchment model , 2015 .
[45] Keith Beven,et al. Barriers to progress in distributed hydrological modelling , 2015 .
[46] K. Korkka-niemi,et al. Chemical and isotopic tracers indicating groundwater/surface-water interaction within a boreal lake catchment in Finland , 2015 .
[47] B. Kløve,et al. Fully integrated surface–subsurface flow modelling of groundwater–lake interaction in an esker aquifer: Model verification with stable isotopes and airborne thermal imaging , 2015 .
[48] John Doherty,et al. Using tree ring data as a proxy for transpiration to reduce predictive uncertainty of a model simulating groundwater-surface water-vegetation interactions , 2014 .
[49] D. W. Stewart,et al. Spatial, seasonal, and source variability in the stable oxygen and hydrogen isotopic composition of tap waters throughout the USA , 2014 .
[50] Zeno F. Levy,et al. Stable isotopes of water show deep seasonal recharge in northern bogs and fens , 2014 .
[51] B. Kløve,et al. Quantifying groundwater dependence of a sub-polar lake cluster in Finland using an isotope mass balance approach , 2014 .
[52] B. Kløve,et al. Estimation of temporal and spatial variations in groundwater recharge in unconfined sand aquifers using Scots pine inventories , 2014 .
[53] S. Brouyère,et al. Assessing the effects of spatial discretization on large-scale flow model performance and prediction uncertainty , 2014 .
[54] Sven Frei,et al. Representing effects of micro-topography on runoff generation and sub-surface flow patterns by using superficial rill/depression storage height variations , 2014, Environ. Model. Softw..
[55] D. Rosenberry,et al. Seasonal changes in peatland surface elevation recorded at GPS stations in the Red Lake Peatlands, northern Minnesota, USA , 2013 .
[56] Jeffrey J. McDonnell,et al. Hydrograph separation using stable isotopes: Review and evaluation , 2013 .
[57] B. Kløve,et al. Interaction of esker groundwater with headwater lakes and streams , 2013 .
[58] J. Doherty,et al. Uncertainty assessment and implications for data acquisition in support of integrated hydrologic models , 2012 .
[59] B. Kløve,et al. Groundwater–surface water interaction between an esker aquifer and a drained fen , 2012 .
[60] C. Simmons,et al. Influence of the first-order exchange coefficient on simulation of coupled surface–subsurface flow , 2012 .
[61] L. R. Belyea,et al. Ecohydrological feedbacks in peatland development: a theoretical modelling study , 2011 .
[62] Holger R. Maier,et al. A hydraulic mixing-cell method to quantify the groundwater component of streamflow within spatially distributed fully integrated surface water-groundwater flow models , 2011, Environ. Model. Softw..
[63] M. Pedersen,et al. Effect of groundwater abstraction on fen ecosystems , 2011 .
[64] R. Millot,et al. Lithium isotopes as tracers of groundwater circulation in a peat land , 2010 .
[65] Dante Fratta,et al. Ground penetrating radar and spring formation in a groundwater dominated peat wetland , 2009 .
[66] D. Rosenberry. A seepage meter designed for use in flowing water , 2008 .
[67] J. Holden,et al. Overland flow velocity and roughness properties in peatlands , 2008 .
[68] Brian D. Smerdon,et al. Simulations of fully coupled lake‐groundwater exchange in a subhumid climate with an integrated hydrologic model , 2007 .
[69] K. Schwärzel,et al. Estimation of the Unsaturated Hydraulic Conductivity of Peat Soils: Laboratory versus Field Data , 2006 .
[70] R. Hunt,et al. The importance of diverse data types to calibrate a watershed model of the Trout Lake Basin, Northern Wisconsin, USA , 2006 .
[71] D. Rosenberry,et al. Flow path oscillations in transient ground-water simulations of large peatland systems , 2006 .
[72] A. Heathwaite,et al. Anisotropy and depth‐related heterogeneity of hydraulic conductivity in a bog peat. I: laboratory measurements , 2003 .
[73] D. Siegel,et al. Climate-driven flushing of pore water in peatlands , 1995, Nature.
[74] L. Jones,et al. Modeling pumping tests in weathered glacial till , 1993 .
[75] D. Siegel,et al. HYDRAULIC CONDUCTIVITY AND RELATED PHYSICAL PROPERTIES OF PEAT, LOST RIVER PEATLAND, NORTHERN MINNESOTA , 1986 .
[76] Van Genuchten,et al. A closed-form equation for predicting the hydraulic conductivity of unsaturated soils , 1980 .
[77] L. A. Richards. Capillary conduction of liquids through porous mediums , 1931 .
[78] T. Manninen,et al. Very High Spatial Resolution Soil Moisture Observation of Heterogeneous Subarctic Catchment Using Nonlocal Averaging and Multitemporal SAR Data , 2021, IEEE Transactions on Geoscience and Remote Sensing.
[79] P. Marmonier,et al. Do thermal infrared (TIR) remote sensing and direct hyporheic measurements (DHM) similarly detect river-groundwater exchanges? Study along a 40 km-section of the Ain River (France). , 2019, The Science of the total environment.
[80] D. Hannah,et al. University of Birmingham Assessing the potential of drone-based thermal infrared imagery for quantifying river temperature heterogeneity , 2019 .
[81] T. Laurila,et al. Preface to the special issue on integrated research of atmosphere, ecosystems and environment at Pallas , 2015 .
[82] Stefan Banzhaf,et al. Groundwater and Surface Water Interaction at the Regional-scale – A Review with Focus on Regional Integrated Models , 2015, Water Resources Management.
[83] Timo Penttilä,et al. Carbon dioxide and energy flux measurements in four northern-boreal ecosystems at Pallas , 2015 .
[84] K. Korkka-niemi,et al. Characterization of groundwater-lake water interactions at Pyhajarvi, a lake in SW Finland , 2011 .
[85] George Z. Gertner,et al. Understanding and comparisons of different sampling approaches for the Fourier Amplitudes Sensitivity Test (FAST) , 2011, Comput. Stat. Data Anal..