Stormwater mitigation efficiency of bioretention systems relies for a large part on their
capacity to infiltrate rapidly received runoff. Within this context, the primary aim of this …

This systematic review article provides a comprehensive overview of the application of
nature-based solutions, specifically rain gardens, as compensatory techniques for …

Urban stormwater represents a substantial source of nutrients and sediment to aquatic
ecosystems. Green infrastructure (GI), including bioretention and permeable pavement, is an …

Low impact development (LID) is a sustainable land use and planning strategy that aims to
minimize the environmental impacts of development. A community can enhance their water …

Stormwater rapidly moves trace organic contaminants (TrOCs) from the built environment to
the aquatic environment. Bioretention cells reduce loadings of some TrOCs, but they …

The expansion of impervious areas in the context of climate change leads to an increase in
stormwater runoff. Runoff from roads, petrol stations, and service stations is the most …

The demand for phosphorus (P), fueled by the need for fertilizers to increase food production
due to the ever-increasing population, is increasing P in the environment and diminishing …

The sand and gravel fillers used in traditional bioretention cells are expensive and
becoming increasingly scarce, and their performance is unstable. It is important to find a …

Recently, increasing attention has been paid to antibiotic resistance genes (ARGs) in
stormwater runoff. However, there is still no available literature about ARGs removals …

Bioretention is a widely used countermeasure to address stormwater runoff issues and
restore the urban water balance. This review investigated the variety of designs and local …