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Fractured and porous aquifer recharge in semiarid regions and the relevance of soil covers: A review for Caetité area, Bahia, Brazil

Walczuk, André, Campos, José Eloi Guimarães, and Azevedo, Júlio Henrichs de, 2025. Fractured and porous aquifer recharge in semiarid regions and the relevance of soil covers: A review for Caetité area, Bahia, Brazil. Journal of South American Earth Sciences, 159:105525, doi:10.1016/j.jsames.2025.105525.

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@ARTICLE{2025JSAES.15905525W,
       author = {{Walczuk}, Andr{\'e} and {Campos}, Jos{\'e} Eloi Guimar{\~a}es and {Azevedo}, J{\'u}lio Henrichs de},
        title = "{Fractured and porous aquifer recharge in semiarid regions and the relevance of soil covers: A review for Caetit{\'e} area, Bahia, Brazil}",
      journal = {Journal of South American Earth Sciences},
     keywords = {Semiarid climate, Fractured aquifer, Soil, GRACE},
         year = 2025,
        month = jun,
       volume = {159},
          eid = {105525},
        pages = {105525},
     abstract = "{Groundwater is a valuable natural resource in areas susceptible to arid
        and semiarid climates. In this research, the phreatic surface
        dynamics of shallow fractured and porous aquifers of
        Caetit{\'e}, state of Bahia, Central Brazil, was investigated.
        Water level position was assessed by GRACE satellite data and 28
        monitoring wells for the period from 2003 to 2024. Phreatic
        surface trends for all datasets are coherent to rainfall
        patterns described by precipitation moving averages and the
        Standardized Precipitation Index (SPI), respectively. The use of
        GRACE, however, is best applicable to soil hosted aquifers
        rather than to fractured systems. Recharge estimations
        considered the Water Table Fluctuation RISE methodology and vary
        depending on aquifer type. The annual storage variations
        obtained based on satellite and instruments installed in porous
        media (weathered rock and soil) suggests that 19{\textendash}27
        \% of the year rainfall (130{\textendash}177 mm/year) are
        annually converted into effective recharge. In systems composed
        solely of fresh fractured rocks rates drop to 3 \% (24 mm/year).
        A relevant finding is the two-way effects of soil thickness in
        the recharge process. While pedon favors recharge on wetter
        conditions, it may diminish or equate annual storage variations
        to settings where no or thin soil covers are present. Data
        corroborates that aquifer recharge under semiarid conditions are
        sensitive to minor precipitation variations. Finally, it is
        proposed that geological setting must be considered when
        evaluating climate change impacts on groundwater, as
        infiltration is impacted by precipitation, evapotranspiration,
        and physiographical properties (relief pattern, geology, soil
        type and climate).}",
          doi = {10.1016/j.jsames.2025.105525},
       adsurl = {https://ui.adsabs.harvard.edu/abs/2025JSAES.15905525W},
      adsnote = {Provided by the SAO/NASA Astrophysics Data System}
}

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