Groundwater–surface water interaction in Denmark
Metadatos
Afficher la notice complèteEditorial
Wiley
Materia
Climate change Groundwater discharge Groundwater-dependent ecosystems Interdisciplinary research Nutrient issues
Date
2023-06Referencia bibliográfica
Duque, C., Nilsson, B., & Engesgaard, P. (2023). Groundwater–surface water interaction in Denmark. Wiley Interdisciplinary Reviews: Water, e1664.[DOI: 10.1002/wat2.1664]
Patrocinador
Next-Generation EU funding; Programa Maria Zambrano Sénior (REF: MZSA03)Résumé
The study of groundwater–surface water interaction has attracted growing interest
among researchers in recent years due to its wide range of implications from
the perspectives of water management, ecology and contamination. Many of the
studies shed light on conditions on a local scale only, without exploring a regional
angle. To provide a broad and historical overview of groundwater–surface water
interaction, a review of research carried out in Denmark was undertaken due to
the high density of studies conducted in the country. The extent to which this
topic has been investigated is related to Denmark's physiography and climate, the
presence of numerous streams and lakes combined with shallow groundwater,
and historical, funding, and administrative decisions. Study topics comprise
groundwater detection techniques, numerical modeling, and contaminant issues
including nutrients, ranging from point studies all the way to studies at national
scale. The increase in studies in recent decades corresponds with the need to
maintain the good status of groundwater-dependent ecosystems and protect
groundwater resources. This review of three decades of research revealed that
problems such as the difference in scales between numerical models and field
observations, interdisciplinary research integrating hydrological and biological
methods, and the effect of local processes in regional systems remain persistent
challenges. Technical progress in the use of unmanned aerial vehicles, distributed
temperature sensing, and new cost-effective methods for detecting groundwater
discharge as well as the increasing computing capacity of numerical models
emerge as opportunities for dealing with complex natural systems that are subject
to modifications in future triggered by climate change.