ENIGMA White Paper – jeux de données hydrogéologiques 4D

Caractérisation et suivi du système hydrogéologique multidimensionnel

Une liste de jeux de données pour le suivi et la caractérisation du système hydrogéologique multidimensionnel est donnée dans le tableau ci-dessous avec les liens vers les jeux de données correspondants.

Elle est publiée dans Hydrology and Earth System Sciences par Hermans et al (2023):

T. Hermans, P. Goderniaux, D. Jougnot, J. Fleckenstein, P. Brunner, F. Nguyen, N. Linde, J. A. Huisman, O. Bour, J. Lopez-Alvis, R. Hoffmann, A. Palacios, A-K. Cooke, Á.Pardo-Álvarez, L. Blazevic, B. Pouladi, P. Haruzi, M. Kenshilikova, P. Davy, and T. Le Borgne. Advancing measurements and representations of subsurface heterogeneity and dynamic processes: towards 4D hydrogeology. Hydrology and Earth System Sciences, 27, 255–287, 2023. [ DOI ]

Les données peuvent être téléchargées à partir des liens indiqués dans le tableau ci-dessous en créant un compte dans la base de données H+ à l’adresse https://hplus.ore.fr/en/database/acces-database.

Si vous souhaitez contribuer à ces jeux de données avec de nouvelles données pertinentes, pour toute question, merci de contacter :

DimensionJeu de donnéesSiteLien vers le jeu de donnéesPublications
A. 3D + timeA.1 Time-lapse geophysical monitoring of heat transport: 2D time-lapse ERT cross-sections + 3D multiple nested wells data during heat tracer testHermalle, Belgiumhttps://hplus.ore.fr/en/associated-sites/enigma/data-hermalleHermans et al. (2015b, 2018) Hoffmann et al. (2019)
 A.2 Time-lapse geophysical monitoring of hyporheic zone processes: 2D surface Electromagnetic Inuction + 2D time-lapse ERT (section)Theis site, Ohio, USAhttps://doi.org/10.4211/hs.69204f1ee49c4176a8aab5f4832c7b76McGarr et al. (2021)
B. 2D + timeB.1 Time-lapse geophysical monitoring of water infiltration in the vadose zone: 2D time-lapse ERT and seismic cross-sections + TDR monitoring of water content during irrigationPloemeur, Francehttps://hplus.ore.fr/en/blazevic-et-al-2020-water-dataBlazevic et al. (2020)
 B.2 GPR imaging of fracture opening during hydraulic test: Borehole and surface GPR+ optical televiewer + core logging during high pressure injection testAspö hard rock laboratory, Swedenhttps://hplus.ore.fr/en/molron-et-al-2021-eg-data https://hplus.ore.fr/en/molron-et-al-2020-eg-dataMolron et al. (2020, 2021)
 B.3 GPR imaging of  tracer transport in fractured media: Borehole GPR + conductivity and fluorescence monitoring during tracer testPloemeur, Francehttps://hplus.ore.fr/en/shakas-et-al-2017-grl-dataShakas et al. (2016, 2017)
 B.4 Use of Vp/Vs ratio to monitor subsurface water content: 2D time-lapse seismic cross-sections P-  and  surface-wave  survey, SH-wave refraction acquisition, travel-time tomographyPloemeur, Francehttps://hplus.ore.fr/en/pasquet-et-al-2015-nsg-dataPasquet et al. (2015)
Dangeard et al. (2018)
 B.5 Time-lapse geophysical monitoring of water infiltration in karstic environment: 2D time-lapse ERT cross-sections during rainfall eventsLSBB, Francehttps://hplus.ore.fr/en/carriere-et-al-2022-dib-dataCarrière et al. (2015, 2022)
 B.6 Time-lapse geophysical monitoring of seawater intrusion: 2D time-lapse cross-hole ERT in coastal aquiferArgentona, Spainhttps://hplus.ore.fr/en/palacios-et-al-2020-HESS-dataPalacios et al. (2020)
C. 1D + timeC.1 Magnetic resonance sounding monitoring of water in a headwater catchments: Time-lapse magnetic resonance soundingStrengbach, Francehttps://hplus.ore.fr/en/lesparre-et-al-2020-joh-dataLesparre et al. (2020)
 C.2 Fiber optic DTS monitoring for estimating thermal conductivity and groundwater flux in porous media: Fiber optic DTS and heat tracer experiments in a sand tankPoitiers, Francehttps://hplus.ore.fr/en/simon-et-al-2020-wrr-data
 
Simon et al. (2020, 2022)
 C.3 Fiber-optic monitoring of heat transfer in fractured media: Fiber optic-DTS monitoring during thermal and solute tracer testsPloemeur, Francehttps://hplus.ore.fr/en/delabernardie-et-al-2018-wrr-data
 
De La Bernardie et al. (2018)
 C.4 Use of gravimeter time series for hydrological model calibration in a karst aquifer: Ten years gravimetry time series using iGrav superconducting gravimeterLarzac, Francehttps://hplus.ore.fr/en/igrav-gravity-datasetFores et al. (2018, 2017)
 C.5 Time-lapse absolute quantum gravity measurements to monitor water storage in karstic environments: Gravimeter time seriesLarzac, Francehttps://zenodo.org/record/4279110#.YicgCpbjJPZ
 
Cooke et al. (2021)
 C.6 Self-potential monitoring of natural rainfall and saline tracer infiltrations at the agricultural test site (HOBE network): Self-potential, time seriesVoulund, Denmarkhttps://data.mendeley.com/datasets/6r8898657w/1 Hu et al. (2020)
 C.7 Fiber-optic and borehole temperature monitoring of heat transfer in stream valleys: Fiber optic-DTS and borehole temperature monitoring of naturally occurring temperature fluctuations in groundwater upwelling areas in wetlandsHoltum stream lowlands, Denmarkhttps://hplus.ore.fr/en/associated-sites/enigma/data-evi-1 https://water.columbia.edu/people/upmanu-lall Tirado-Conde et al. (2019)
D. High resolution imaging of heterogeneity combined with tracer testsD.1 3D Seismic imaging of a karstic aquifer combined with multiple cross borehole tracer tests: 3D seismic bloc and tracer testsPoitiers, Francehttps://hplus.ore.fr/en/mari-et-al-2009-ogst-data https://hplus.ore.fr/en/poitiers/data-poitiers
 
Mari et al. (2009)
 D.2 GPR Imaging of sand layered aquifer with multiple 2D profiles and tracer tests: Crosshole GPR and tracer testsKrauthausen, Germanyhttps://teodoor.icg.kfa-juelich.de/geonetwork/srv/fre/login.formGueting et al. (2015, 2017)
E. Multiple tracer experimentsE.1 Solute and heat tracer tests for characterizing heat transfer in fractured granite: Convergent and push-pull tests with injection of hot water, cold water and saltChoutuppal, Indiahttps://hplus.ore.fr/en/hoffmann-et-al-2021-groundwater-dataHoffmann et al. (2021b)
 E.2 Solute and dissolved gaz tracer tests for characterizing transport in Chalk: Convergent and push-pull tests with heat, helium, argon, xenon and uranineMons, Belgiumhttps://hplus.ore.fr/en/hoffmann-et-al-2020-hydrogeology-of-the-chalk-data https://hplus.ore.fr/en/hoffmann-et-al-2020-grl-dataHoffmann et al. (2020, 2021a)
 E.3 Salt and dissolved oxygen tracer tests for characterizing transport and transit-times in a riparian zone: Time-series of EC, dissolved oxygen, and water temperature and stageSelke River, Falkenstein, Germanyhttps://www.hydroshare.org/resource/51b3933c4987427e94e51e3339237755/ https://www.hydroshare.org/resource/476a188d9f894a77a3ed404949680cab/Nogueira et al. (2021a, 2021b)

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