<resource xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" xmlns="http://datacite.org/schema/kernel-4" xsi:schemaLocation="http://datacite.org/schema/kernel-4 http://schema.datacite.org/meta/kernel-4.1/metadata.xsd"><identifier identifierType="DOI">10.26165/JUELICH-DATA/ZBLDIR</identifier><creators><creator><creatorName nameType="Personal">Ma, Yueling</creatorName><givenName>Yueling</givenName><familyName>Ma</familyName><nameIdentifier SchemeURI="https://orcid.org/" nameIdentifierScheme="ORCID"> 0000-0002-1869-7702</nameIdentifier><affiliation>Forschungszentrum Jülich</affiliation></creator><creator><creatorName nameType="Personal">Montzka, Carsten</creatorName><givenName>Carsten</givenName><familyName>Montzka</familyName><affiliation>Forschungszentrum Jülich</affiliation></creator><creator><creatorName nameType="Personal">Naz, Bibi</creatorName><givenName>Bibi</givenName><familyName>Naz</familyName><affiliation>Forschungszentrum Jülich</affiliation></creator><creator><creatorName nameType="Personal">Kollet, Stefan</creatorName><givenName>Stefan</givenName><familyName>Kollet</familyName><affiliation>Forschungszentrum Jülich</affiliation></creator></creators><titles><title>Advancing AI-based pan-European groundwater monitoring</title></titles><publisher>Jülich DATA</publisher><publicationYear>2021</publicationYear><subjects><subject>Earth and Environmental Sciences</subject><subject>Groundwater</subject><subject>Anomalies</subject><subject>LSTM-TL</subject><subject>Long Short-Term Memory (LSTM) networks</subject><subject>Transfer learning (TL)</subject><subject>Europe</subject></subjects><contributors><contributor contributorType="ContactPerson"><contributorName nameType="Organizational">Ma, Yueling</contributorName><affiliation>Forschungszentrum Jülich</affiliation></contributor></contributors><dates><date dateType="Submitted">2021-12-13</date><date dateType="Updated">2022-03-28</date></dates><resourceType resourceTypeGeneral="Dataset"/><sizes><size>206851420</size><size>343806812</size><size>338915548</size><size>338915548</size><size>83980</size><size>343806812</size><size>352191836</size><size>352191836</size><size>352191836</size><size>654052818</size><size>670822866</size><size>413682130</size><size>413682130</size><size>677810386</size><size>670822866</size><size>176105883</size><size>176105883</size></sizes><formats><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-ipynb+json</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format><format>application/x-netcdf</format></formats><version>2.0</version><rightsList><rights rightsURI="info:eu-repo/semantics/openAccess"/><rights rightsURI="https://creativecommons.org/publicdomain/zero/1.0/">CC0 Waiver</rights></rightsList><descriptions><description descriptionType="Abstract">This study proposes an AI-based methodology combining Long Short-Term Memory (LSTM) networks and transfer learning (TL) to estimate water table depth anomalies (wtd_a) at the European scale in the absence of consistent water table depth (wtd) observational data sets, which is named LSTM-TL. The data repository provides: i) data utilized for evaluating LSTM-TL performance, i.e., input averaged monthly precipitation and soil moisture anomalies from common observational data sets (pr_a,o and θ_a,o), wtd_a estimates obtained from LSTM-TL (wtd_a,lstm-tl), wtd_a estimates obtained from LSTM networks with modeling data as input (wtd_a,lstm(m)), and wtd_a estimates obtained from LSTM networks trained on observations (wtd_a,lstm(o)); ii) reconstructed European monthly wtd_a,lstm-tl data RD1-6 from the early 1980s to the near present and their input pr_a,o and θ_a,o data; and iii) a Jupyter Notebook showing an example about the implementation of LSTM-TL. All the data sets in the repository have a spatial resolution of 0.11 degrees (~12.5 km).</description></descriptions><geoLocations/></resource>