activity
20092018
most citedA Numerical Formulation for Simulating Free-Surface Hydrodynamics

23 citations · 143 across the 18 of their papers we have counts for

collaborators

18 papers

physics.flu-dyn2018★ 2 cited

Spray Formation during the Impact of a Flat Plate on a Water Surface

An Wang, Shizhao Wang, Elias Balaras +3

In naval hydrodynamics most the reseach on the impact of the hull of a vesel to the water surface has focused primarily on mapping the forces on the hull and much less to the forma…

physics.flu-dyn2017

The Impact of a Deep-Water Plunging Breaker on a Partially Submerged Cube

An Wang, Christine M. Ikeda, David A. Drazen +3

The impact of a plunging breaker on a partially submerged cube is explored experimentally in a wave tank equipped with a programable wave maker. The experiments are conducted with…

physics.flu-dyn2014★ 4 cited

The Numerical Simulation of Ship Waves using Cartesian Grid Methods

Mark Sussman, Douglas G. Dommermuth

Two different cartesian-grid methods are used to simulate the flow around the DDG 5415. The first technique uses a "coupled level-set and volume-of-fluid" (CLS) technique to model…

physics.flu-dyn2014★ 23 cited

A Numerical Formulation for Simulating Free-Surface Hydrodynamics

Thomas T. O'Shea, Kyle A. Brucker, Douglas G. Dommermuth +1

Cartesian-grid methods in combination with immersed-body and volume-of-fluid methods are ideally suited for simulating breaking waves around ships. A surface panelization of the sh…

physics.flu-dyn2014★ 4 cited

Numerical Simulation of Wakes in a Weakly Stratified Fluid

James W. Rottman, Douglas G. Dommermuth, George E. Innis +2

This paper describes some preliminary numerical studies using large eddy simulation of full-scale submarine wakes. Submarine wakes are a combination of the wake generated by a smoo…

physics.flu-dyn2014★ 18 cited

The Numerical Simulation of Ship Waves Using Cartesian Grid Methods with Adaptive Mesh Refinement

Douglas G. Dommermuth, Mark Sussman, Robert F. Beck +4

Cartesian-grid methods with Adaptive Mesh Refinement (AMR) are ideally suited for simulating the breaking of waves, the formation of spray, and the entrainment of air around ships.…