Hydrodynamics of Semi-Submersible Vehicle Hulls with Variable Height-Width Ratio in Deep and Shallow Water
Konstantin I. Matveev

TL;DR
This study computationally investigates the hydrodynamic performance of semi-submersible hulls with different height-width ratios in deep and shallow water, revealing how hull shape affects drag and stability.
Contribution
It introduces a detailed computational analysis of semi-submersible hull variations, validated with experimental data, highlighting the impact of hull geometry on hydrodynamic performance.
Findings
Narrow hulls perform better in deep water with lower drag.
Shallow-water narrow hulls experience higher resistance due to proximity to seabed.
Hydrodynamic characteristics vary significantly with hull shape and water depth.
Abstract
Semi-submersible vehicles keep most of their hulls underwater while maintaining a small platform above the water surface. These craft can find use for both naval operations and civil transportation due to special properties, including the low above-water hull profile, reduced wave drag in some speed regimes, and potentially better seaworthiness. However, hydrodynamics of these marine craft is not well studied. In this work, computational modeling is undertaken to explore steady hydrodynamic characteristics of several semi-submersible hull variations in a range of speeds in deep-water and finite-depth conditions. The validation and verification study is conducted using experimental data obtained with a Suboff model in a near-surface regime. Parametric simulations are performed for this hull and two others generated by modifying the original Suboff geometry to produce narrow and wide hull…
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Taxonomy
TopicsShip Hydrodynamics and Maneuverability · Fluid Dynamics Simulations and Interactions · Spacecraft and Cryogenic Technologies
