Hull-propeller-rudder interaction of the JBC ship model

The hull-propeller-rudder interaction of the JBC ship model sailing at the design speed in calm water at the ship point condition is predicted using CFO. Numerical simulations are performed using the viscous flow solver ISIS- CFO of the commercial software FineTM/Marine based on a 3-D fully discreti...

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Hauptverfasser: Bekhit, Adham S., Pacuraru, Florin, Pacuraru, Sandita
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Pacuraru, Florin
Pacuraru, Sandita
description The hull-propeller-rudder interaction of the JBC ship model sailing at the design speed in calm water at the ship point condition is predicted using CFO. Numerical simulations are performed using the viscous flow solver ISIS- CFO of the commercial software FineTM/Marine based on a 3-D fully discretized propeller model using the sliding grid technique to simulate the propeller rotation. The unsteady Reynolds-averaged Navier-Stokes equation is numerically solved and the closure to turbulence is achieved by making use of the k-ω SST model. A special focus on the wake flow for the ship with and without rudder is brought into attention, all aimed at studying the hull-propeller and the hull- pro- peller-rudder interaction, respectively. First, the ship without rudder is simulated and compared to the experimental data from the Tokyo 2015 Workshop on CFO in Ship Hydrodynamics. Second, the hull-propeller-rudder interaction is intro- duced through a direct comparison with the first case without rudder. The validation process shows a reasonable agree- ment with the EFO data with a slightly over predicted resistance and thrust forces. This study stand as a primary step for a future planned investigation of the hull-propeller-rudder interaction at different rudder angles.
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subjects Computational fluid dynamics
Fluid flow
Hydrodynamics
Mathematical models
Reynolds averaged Navier-Stokes method
Rudders
Sailing
Ship hulls
Simulation
Three dimensional models
Thrust
Viscous flow
title Hull-propeller-rudder interaction of the JBC ship model
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