Offshore Technology Research Center - A World Leader in Offshore Technology, Research, Education and Testing

  • Home
  • About Us
    • Mission Statement
    • Contact Us
  • Research
    • Capabilities
    • Current Projects
    • Publications
      • Floating Structures
      • Risers and Moorings
      • Mechanics of Materials
      • Seafloor Engineering and Characterization
      • Subsea Systems
      • Risk/Reliability Assessment and Management
  • Wave Basin
    • Specifications
  • People
    • Staff
    • Researchers
  • Partners
    • Research Sponsors
    • Clients
  • Calendar
  • Search
You are here: Home / Research / Publications / Floating Structures / Inviscid and Viscous 2D Unsteady Flow Solvers Applied to FPSO Hull Roll Motions / Abstract B125

Abstract B125

Abstract ID#:
B125

 

Report Title:
Inviscid and Viscous 2D Unsteady Flow Solvers Applied to FPSO Hull Roll Motions

 

Authors:
Bharani Kacham, University of Texas at Austin

 

Report Date:
December, 2004

The roll dynamics of a Floating, Production, Storage and Offloading (FPSO) hull are of special interest in the present offshore industry. The FPSOs, while on duty need to be stationary for long periods of time in order to enable smooth drilling and oil transfer to the shuttle tankers. The present research is aimed at providing insights into the effectiveness of using anti-roll appendages, like bilge keels, in mitigating roll motion of FPSOs operating in mid-seas. Numerical modeling is a tool that can be extensively used to simulate and investigate real ship motions. The present work details a 2D unsteady Boundary Element Method and Navier-Stokes solver based on Finite Volume Method and their application to modeling roll motions of an FPSO hull. The Navier Stokes solver is a viscous solver and is advantageous when compared to the traditional potential flow solvers due to its ability to capture the effects of viscosity and separation past the bilge keel on the motion of the hull.The method could be applied to three dimensional hulls by using either strip theory or by including the third dimension in the formulation.

Request Full Report

To obtain a copy of this report, fill out the form below.

 

Texas A&M Engineering Experiment Station
Texas A&M University
University of Texas Cockrell School of Engineering

Offshore Technology Research Center
1200 Mariner Drive
Texas A&M Research Park
College Station, TX 77845

Phone: (979) 845-6000

 

About Texas A&M Engineering Experiment Station
Privacy Policy
Web Accessibility
Website Feedback

Copyright © 2023 · Texas A&M Engineering Experiment Station · All Rights Reserved