Archief Prof. Ir. J.J. Peters

Over het archief

In 2012 verloren we Jean Jacques Peters, voormalig ingenieur van het Waterbouwkundig Laboratorium (1964 tot 1979) en internationaal expert in sedimenttransport, rivierhydraulica en -morfologie. Als eerbetoon aan hem hebben we potamology (http://www.potamology.com/) gecreëerd, een virtueel gedenkarchief dat als doel heeft om zijn manier van denken en morfologische aanpak van rivierproblemen in de wereld in stand te houden en te verspreiden.

Het merendeel van z’n werk hebben we toegankelijk gemaakt via onderstaande zoekinterface.

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one publication added to basket [252098]
Direct simulation and experimental study of zigzag maneuver of KCS in shallow water Carrica, P.; Mofidia, A.; Eloot, K.; Delefortrie, G. (2016). Direct simulation and experimental study of zigzag maneuver of KCS in shallow water. Ocean Eng. 112: 117-133. https://dx.doi.org/10.1016/j.oceaneng.2015.12.008 In: Ocean Engineering. Pergamon: Elmsford. ISSN 0029-8018; e-ISSN 1873-5258

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Beschikbaar in	Auteurs
Waterbouwkundig Laboratorium: Non-open access 282884 [ aanvragen ] VLIZ [ aanvragen ]

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Trefwoorden

Computational fluid dynamics Ship maneuvering Water > Shallow water

Author keywords

Experimental fluid dynamics (EFD)

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Auteurs		Top
Carrica, P. Mofidia, A. Eloot, K. Delefortrie, G.

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Abstract

The KCS container ship on a zigzag maneuver in shallow water is studied experimentally and numerically. The approach conditions are Fr=0.095 and H/T=1.2. Experiments were performed in the shallow water towing tank at Flanders Hydraulics Research for the workshop on verification and validation of ship maneuvering simulation methods (SIMMAN, 2014). CFD simulations were initially performed blind at the nominal rudder rate of 16.8°/s using direct discretization of moving rudder and propeller, including the tank bottom but neglecting walls. Grid studies were conducted for self-propulsion and the zigzag maneuver at the nominal rudder rate using grids of up to 71.3 million points. A simulation was then executed on the medium grid at the actual rudder experimental rate achieved (8.35°/s), and results analyzed. The grid study suggests that forces, moments and motions can be well predicted with coarser grids, and that medium grid results are very close to the fine grid, but flow details do not converge for the levels of refinement used. The verification results in large grid uncertainties, even though time evolutions of different variables show good grid convergence. CFD predictions match satisfactorily the experimental results for most variables, but under-predict yaw and yaw rate.

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