Irvine, Joshua LelemiaKim, Albert S.2022-12-022022-12-022019-03Irvine, J. L., & Kim, A. S. (2019). Hydraulic design perspectives of bioswale vegetation layers: a meta-research theory. Desalination and Water Treatment, 143, 137–147. https://doi.org/10.5004/dwt.2019.23589http://hdl.handle.net/10790/7297Optimized bioswale-design requires a fundamental understanding of mass and momentum transfer through a bioswale vegetation layer (BVL) on top of the porous soil zone. Conventional theories of canopy flows are applicable to structuring BVL in a planning phase. Plants in the BVL can be modeled as an embedded collection of cylindrical rods characterized by using (mean) diameter and height. The number density and spatial periodicity of the plants determine the structural and hydraulic characteristics of the BVL. The current paper stands as what we are calling meta-research or “research of research” consisting of an in-depth literature review followed by our own theoretical development and its application. A design equation for an emergent BVL is developed, which suggests the minimum length-to-width ratio of a bioswale as a function of runoff hydraulic characteristics. We calculate a proper bioswale length near which the viscous force fully supersedes the inertial force along the BVL. Moreover, a supplementary graphical method is developed within this study as a simple tool with which to design bioswale dimensions.1 pageen-USAttribution-NonCommercial-NoDerivs 3.0 United StatesBioswale vegetation layerBioswale design equationsCanopy-flow theoryRunoffReynolds numberStormwater managementHydraulic design perspectives of bioswale vegetation layers: a meta-research theoryAbstract10.5004/dwt.2019.23589