Fusion of Remotely Sensed Data with Monitoring Well Measurements for Groundwater Level Management

In the realm of hydrological engineering, integrating extensive geospatial raster data from remote sensing (Big Data) with sparse field measurements offers a promising approach to improve prediction accuracy in groundwater studies. In this study, we integrated multisource data by applying the LMC to...

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Main Authors: César de Oliveira Ferreira Silva, Rodrigo Lilla Manzione, Epitácio Pedro da Silva Neto, Ulisses Alencar Bezerra, John Elton Cunha
Format: Article
Language:English
Published: MDPI AG 2025-01-01
Series:AgriEngineering
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Online Access:https://www.mdpi.com/2624-7402/7/1/14
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author César de Oliveira Ferreira Silva
Rodrigo Lilla Manzione
Epitácio Pedro da Silva Neto
Ulisses Alencar Bezerra
John Elton Cunha
author_facet César de Oliveira Ferreira Silva
Rodrigo Lilla Manzione
Epitácio Pedro da Silva Neto
Ulisses Alencar Bezerra
John Elton Cunha
author_sort César de Oliveira Ferreira Silva
collection DOAJ
description In the realm of hydrological engineering, integrating extensive geospatial raster data from remote sensing (Big Data) with sparse field measurements offers a promising approach to improve prediction accuracy in groundwater studies. In this study, we integrated multisource data by applying the LMC to model the spatial relationships of variables and then utilized block support regularization with collocated block cokriging (CBCK) to enhance our predictions. A critical engineering challenge addressed in this study is support homogenization, where we adjusted punctual variances to block variances and ensure consistency in spatial predictions. Our case study focused on mapping groundwater table depth to improve water management and planning in a mixed land use area in Southeast Brazil that is occupied by sugarcane crops, silviculture (Eucalyptus), regenerating fields, and natural vegetation. We utilized the 90 m resolution TanDEM-X digital surface model and STEEP (Seasonal Tropical Ecosystem Energy Partitioning) data with a 500 m resolution to support the spatial interpolation of groundwater table depth measurements collected from 56 locations during the hydrological year 2015–16. Ordinary block kriging (OBK) and CBCK methods were employed. The CBCK method provided more reliable and accurate spatial predictions of groundwater depth levels (<i>RMSE</i> = 0.49 m), outperforming the OBK method (<i>RMSE</i> = 2.89 m). An OBK-based map concentrated deeper measurements near their wells and gave shallow depths for most of the points during estimation. The CBCK-based map shows more deeper predicted points due to its relationship with the covariates. Using covariates improved the groundwater table depth mapping by detecting the interconnection of varied land uses, supporting the water management for agronomic planning connected with ecosystem sustainability.
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spelling doaj-art-f53d6fbc96604bbdab4c292a9702810b2025-01-24T13:16:14ZengMDPI AGAgriEngineering2624-74022025-01-01711410.3390/agriengineering7010014Fusion of Remotely Sensed Data with Monitoring Well Measurements for Groundwater Level ManagementCésar de Oliveira Ferreira Silva0Rodrigo Lilla Manzione1Epitácio Pedro da Silva Neto2Ulisses Alencar Bezerra3John Elton Cunha4StormGeo, São Paulo 05319-000, BrazilSchool of Science, Technology and Education, São Paulo State University (UNESP), Ourinhos 19903-302, BrazilCentre for Natural Resources and Technology, Federal University of Campina Grande, Campina Grande 58429-900, BrazilCentre for Natural Resources and Technology, Federal University of Campina Grande, Campina Grande 58429-900, BrazilCentre for Natural Resources and Technology, Federal University of Campina Grande, Campina Grande 58429-900, BrazilIn the realm of hydrological engineering, integrating extensive geospatial raster data from remote sensing (Big Data) with sparse field measurements offers a promising approach to improve prediction accuracy in groundwater studies. In this study, we integrated multisource data by applying the LMC to model the spatial relationships of variables and then utilized block support regularization with collocated block cokriging (CBCK) to enhance our predictions. A critical engineering challenge addressed in this study is support homogenization, where we adjusted punctual variances to block variances and ensure consistency in spatial predictions. Our case study focused on mapping groundwater table depth to improve water management and planning in a mixed land use area in Southeast Brazil that is occupied by sugarcane crops, silviculture (Eucalyptus), regenerating fields, and natural vegetation. We utilized the 90 m resolution TanDEM-X digital surface model and STEEP (Seasonal Tropical Ecosystem Energy Partitioning) data with a 500 m resolution to support the spatial interpolation of groundwater table depth measurements collected from 56 locations during the hydrological year 2015–16. Ordinary block kriging (OBK) and CBCK methods were employed. The CBCK method provided more reliable and accurate spatial predictions of groundwater depth levels (<i>RMSE</i> = 0.49 m), outperforming the OBK method (<i>RMSE</i> = 2.89 m). An OBK-based map concentrated deeper measurements near their wells and gave shallow depths for most of the points during estimation. The CBCK-based map shows more deeper predicted points due to its relationship with the covariates. Using covariates improved the groundwater table depth mapping by detecting the interconnection of varied land uses, supporting the water management for agronomic planning connected with ecosystem sustainability.https://www.mdpi.com/2624-7402/7/1/14digital mappingsupport correctionmultivariate geostatisticswater management
spellingShingle César de Oliveira Ferreira Silva
Rodrigo Lilla Manzione
Epitácio Pedro da Silva Neto
Ulisses Alencar Bezerra
John Elton Cunha
Fusion of Remotely Sensed Data with Monitoring Well Measurements for Groundwater Level Management
AgriEngineering
digital mapping
support correction
multivariate geostatistics
water management
title Fusion of Remotely Sensed Data with Monitoring Well Measurements for Groundwater Level Management
title_full Fusion of Remotely Sensed Data with Monitoring Well Measurements for Groundwater Level Management
title_fullStr Fusion of Remotely Sensed Data with Monitoring Well Measurements for Groundwater Level Management
title_full_unstemmed Fusion of Remotely Sensed Data with Monitoring Well Measurements for Groundwater Level Management
title_short Fusion of Remotely Sensed Data with Monitoring Well Measurements for Groundwater Level Management
title_sort fusion of remotely sensed data with monitoring well measurements for groundwater level management
topic digital mapping
support correction
multivariate geostatistics
water management
url https://www.mdpi.com/2624-7402/7/1/14
work_keys_str_mv AT cesardeoliveiraferreirasilva fusionofremotelysenseddatawithmonitoringwellmeasurementsforgroundwaterlevelmanagement
AT rodrigolillamanzione fusionofremotelysenseddatawithmonitoringwellmeasurementsforgroundwaterlevelmanagement
AT epitaciopedrodasilvaneto fusionofremotelysenseddatawithmonitoringwellmeasurementsforgroundwaterlevelmanagement
AT ulissesalencarbezerra fusionofremotelysenseddatawithmonitoringwellmeasurementsforgroundwaterlevelmanagement
AT johneltoncunha fusionofremotelysenseddatawithmonitoringwellmeasurementsforgroundwaterlevelmanagement