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 / Seafloor Engineering and Characterization / Submarine Slope Stability Forecasting and Back Analyses in Deep Water / B93

B93

Abstract ID#:
B93

 

Report Title:
Submarine Slope Stability Forecasting and Back Analyses in Deep Water

 

Authors:
Eric Liedtke, University of Texas at Austin

 

Report Date:
December, 1997

Deep water presents special problems in determining shear strengths, stratigraphy and topography. Slope stability analyses can be used to back calculate shear strengths, however, there is greater uncertainty than on dry land because there is greater uncertainty in the topography. The purpose of this thesis is to determine uncertainty in submarine slope stability and back calculated shear strengths in deep water. In addition, a methodology for dealing with nonlinear envelopes when back calculating shear strengths is explored. A series of parametric studies were performed in which the influence of stratigraphy on stability was investigated. Both circular and noncircular shear surfaces were assumed in the stability analyses. A study also was performed to investigate the effects of topography on the stability of a deep water submerged slope. In particular, the effects of uncertainty in the topography on the evaluation of slope stability were examined. In these studies, shear strengths were characterized assuming both drained cases in which c = 0 and undrained cases in which f = 0.

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