Subsea Pipeline Design, Analysis, and Installation

<p>PART I: MECHANICAL DESIGN</p> <ul> <li>Introduction</li> <li>Wall-thickness and Material Grade Selection</li> <li>Buckling/Collapse of Deepwater Metallic Pipes</li> <li>Limit-State Based Strength Design</li></ul> <p>PART II: PIPELINE DESIGN</p> <ul> <li>Hydraulic Analysis of Subsea Pipelines </li> <li>Soil and Pipe Interaction</li> <li>Hydrodynamics around Pipes</li> <li>Finite Element Analysis of In-situ Behavior</li> <li>Thermal Expansion Design</li> <li>Lateral Buckling and Pipeline Walking</li> <li>Upheaval Buckling</li> <li>Fatigue and ECA</li> <li>On-Bottom Stability</li> <li>Pipeline Spans and VIV Fatigue</li> <li>Force Model and Wave Fatigue</li> <li>Trawl Impact, Pullover and Drop Objects</li> <li>Pipe-in-Pipe and Bundle Systems</li> <li>Seismic Design</li> <li>Corrosion Prevention and Advanced CP Design</li> <li>Arctic Pipelines</li> <li>Subsea Survey and Positioning</li> <li>Route Optimization, Shore Approach, Tie-in and Protection</li> <li>Asgard Flowlines Design Examples</li></ul> <p>PART III: FLEXIBLE AND RTP PIPELINES</p> <ul> <li>Flexible Pipeline</li> <li>Cross-Sectional and Dynamic Analysis of Flexible Pipes</li> <li>Tensile/Compressive Strength of RTP Pipeline</li> <li>Burst Strength of RTP Pipeline</li> <li>Collapse of RTP Pipeline</li> <li>Offshore Installation of RTP Pipeline</li> <li>On-bottom Stability of RTP Pipeline</li></ul> <p>PART IV: STEEL LINEPIPE, WELDING AND INSTALLATION</p> <ul> <li>Use of High Strength Steel</li> <li>Welding and Defect Acceptance</li> <li>Installation</li> <li>Pipeline Commissioning, Operations and Maintenance</li></ul> <ol> <p> </ol>