... their numerical results. heave rudder deflection upstream oil & gas separation variation canoe body maskew fn 0 configuration resistance grid prediction transition reservoir characterization calculation free surface heel 15 heel 25 wide light project crest flosim A Comparative...

... the expected time needed to complete the race. risk management node optimization problem optimal strategy opponent knowledge machine learning neural network correspond computation upwind leg wind forecast probability sailing match race grid artificial intelligence tack yacht skipper...

... with the hydrodynamic forces calculated by the flow code and solving the resulting imbalance in the equations of motion in the RANSE solver. The paper discusses implementation steps for the inclusion of sail forces and body motion into the flow code as well as calculation and grid setup. Results of the method...

... are transferred to a coupled structures Source value (m/sec) module that uses a network grid of tension cords in each Doublet value (m2/sec) sail membrane, each cord representing a collection of fiber W Doublet value on a Wake point (m2/sec) strings . The solution of a structural equilibrium matrix n Unit...

..., the method P~K allows to predict transitional flow in a fully 3D- modified production term of k equation environment using unstructured grids and massive P 1 parallelization. Reynolds number of the flow around the P 2 production term of transition sources appendages of sailing yachts is of an order where Pt...

... airspace around a boat. This can be quite time RANS. consuming, and traditional approaches often require months for geometries as complex as America's Cup INTRODUCTION Class boats. In order to circumvent this bottleneck a technique known as "overset gridding" is used. The America's Cup racing has long...