Turbulence in River and Maritime Hydraulics

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Michele Mossa, Donatella Termini, Peter A. Davies
MDPI, Mar 8, 2019 - Technology & Engineering - 296 pages

 Understanding of the role of turbulence in controlling transport processes is of paramount importance for the preservation and protection of aquatic ecosystems, the minimization of the deleterious consequences of anthropogenic activity, and the successful sustainable development of river and maritime areas. In this context, the present Special Issue collects 15 papers which provide a representation of the present understanding of turbulent processes and their effects in river and maritime environments. The presented collection of papers is not exhaustive, but it highlights the key priority areas and knowledge gaps in this field of research.

The published papers present the state-of-the-art knowledge of complex environmental flows which are useful for researchers and practitioners. The paper contents are an overview of some recent topics of research and an exposure of the current and future challenges associated with these topics.

 

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About the author (2019)

 Michele Mossa is Professor of Hydraulics at the Polytechnic University of Bari (Italy). He is chief scientist of the Coastal Engineering Laboratory—LIC and a member of the board of directors of the National Consortium of Universities for Marine Sciences (CoNISMa) for the Polytechnic University of Bari. The main topics of his research are related to environmental and maritime hydraulics. Donatella Termini is Professor of Hydraulics at the University of Palermo (Italy). Her research activity mainly regards fluvial processes and water distribution network models. Her present research efforts include the prediction of river morphological evolution, both through experimental investigations and by the development of numerical simulation codes. Peter A. Davies is Professor of Fluid Dynamics at the University of Dundee (UK), where he works in environmental and geophysical fluid mechanics, including buoyancy-driven flows, rotating flows, turbulent mixing, internal waves, and wastewater disposal.

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