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Proceedings Papers
In This Volume
Volume 9: Offshore Geotechnics; Torgeir Moan Honoring Symposium
Offshore Geotechnics
Anchors and Pipelines
Effect of Drainage on Upheaval Buckling Susceptibility of Buried Pipelines
OMAE 2017; V009T10A001https://doi.org/10.1115/OMAE2017-61046
Topics:
Buckling
,
Drainage
,
Pipelines
,
Soil
,
Critical points (Physics)
,
Failure
,
Flow (Dynamics)
,
Friction
Key Techniques in Simulating Comprehensive Anchor Behaviors by Large Deformation Finite Element Analysis
OMAE 2017; V009T10A002https://doi.org/10.1115/OMAE2017-61348
Topics:
Deformation
,
Finite element analysis
,
Soil
,
Mooring
,
Gravity (Force)
,
Construction
,
Drag (Fluid dynamics)
,
Friction
,
Numerical analysis
,
Probes
Numerical Simulation on the Dynamic Installation of the OMNI-Max Anchors in Clay Using a Fluid Dynamic Approach
OMAE 2017; V009T10A003https://doi.org/10.1115/OMAE2017-61570
Topics:
Computer simulation
,
Fluids
,
Computational fluid dynamics
,
Shear (Mechanics)
,
Mooring
,
Ocean engineering
,
Shear strength
,
Simulation
,
Water
Buckets, Suction Caissons and Skirted Foundations
Advanced Approaches for Coupled Deformation-Seepage-Analyses of Suction Caisson Installation
OMAE 2017; V009T10A004https://doi.org/10.1115/OMAE2017-61378
Topics:
Caissons
,
Deformation
,
Seepage (Hydrology)
,
Suction
,
Ocean engineering
,
Simulation
,
Stress
,
Computer simulation
,
Finite element methods
,
Modeling
Geotechnical Design of Vertically Loaded Hybrid Suction-Gravity Anchors
OMAE 2017; V009T10A005https://doi.org/10.1115/OMAE2017-61503
Topics:
Design
,
Gravity (Force)
,
Suction
,
Pipeline risers
,
Risers (Casting)
,
FPSO
,
Soil
,
Water
,
Finite element model
,
Mooring
Reliability Based Stiffness Analysis for Application During Installation of Suction Caissons
OMAE 2017; V009T10A006https://doi.org/10.1115/OMAE2017-62043
Topics:
Caissons
,
Reliability
,
Stiffness
,
Suction
,
Design
,
Soil
,
Engineering standards
,
Feedback
,
Ocean engineering
,
Offshore wind turbines
Fluid-Soil-Structure Interaction
Effects of the Initial Consolidation on the 3D Wave-Induced Seabed Response Around a Pile
OMAE 2017; V009T10A007https://doi.org/10.1115/OMAE2017-61263
Topics:
Seabed
,
Waves
,
Computer simulation
,
Stress
,
Design
,
Dynamic response
,
Pilings (Building)
,
Simulation
,
Soil
,
Stability
Wave-Induced Oscillatory Soil Response Around Circular Rubble-Mound Breakwater Head
OMAE 2017; V009T10A008https://doi.org/10.1115/OMAE2017-61416
Topics:
Breakwaters
,
Soil
,
Waves
,
Seabed
,
Failure
,
Liquefaction
,
Pressure
,
Turbulence
,
Wave motion
A 3D Wave-Structure-Seabed Interaction Analysis of a Gravity-Based Wind Turbine Foundation
OMAE 2017; V009T10A009https://doi.org/10.1115/OMAE2017-61640
Topics:
Gravity (Force)
,
Seabed
,
Waves
,
Wind turbines
,
Soil
,
Anisotropy
,
Pressure
,
Flow (Dynamics)
,
Permeability
,
Shear stress
Soil Structure Interaction Analysis of a Berthing Structure Under Lateral Loading-By Numerical Approach
OMAE 2017; V009T10A010https://doi.org/10.1115/OMAE2017-62484
Topics:
Soil
,
Wedges
,
Stress
,
American Petroleum Institute
,
Dredging
,
Currents
,
Displacement
,
Earthquakes
,
Elastic constants
,
Equilibrium (Physics)
Pile Foundations
Experimental Evaluation of the Natural Frequency of an Offshore Wind Turbine’s Scaled Model
Laura Kerner, Selim Benfeddoul, Jean-Claude Dupla, Gwendal Cumunel, Jean Canou, Jean-Michel Pereira, Pierre Argoul
OMAE 2017; V009T10A011https://doi.org/10.1115/OMAE2017-61423
Topics:
Dynamics (Mechanics)
,
Errors
,
Finite element model
,
Ocean engineering
,
Offshore wind turbines
,
Resonance
,
Soil
,
Springs
,
Stiffness
,
Stress
A Web Based Application for the Lateral Analysis of Pile (LAP) Foundations
OMAE 2017; V009T10A012https://doi.org/10.1115/OMAE2017-61600
Topics:
Algorithms
,
Civil engineering
,
Computer software
,
Nonlinear systems
,
Soil
,
Springs
,
Stress
,
Web services
An Automated Approach for Designing Monopiles Subjected to Lateral Loads
OMAE 2017; V009T10A013https://doi.org/10.1115/OMAE2017-61603
Topics:
Design
,
Stress
,
Algorithms
,
Maintainability
,
Optimization
,
Finite element analysis
,
Performance
,
Weight (Mass)
Supporting the Engineering Analysis of Offshore Wind Turbines Through Advanced Soil-Structure 3D Modelling
OMAE 2017; V009T10A015https://doi.org/10.1115/OMAE2017-62469
Topics:
Offshore wind turbines
,
Soil
,
Three-dimensional modeling
,
Dynamic analysis
,
Modeling
,
Stress
,
Transients (Dynamics)
,
Design
,
Finite element analysis
,
Springs
Seabed Processes
Analysis of Failure Mechanisms in Silica and Carbonate Sands Beneath a Strip Foundation Under Vertical Loading
OMAE 2017; V009T10A016https://doi.org/10.1115/OMAE2017-61130
Topics:
Failure analysis
,
Sands
,
Strips
,
Stress
,
Deformation
,
Failure mechanisms
,
Particulate matter
,
Bearings
,
Displacement
,
Earth resistance
Finite Element Analysis of Offshore Pipelines Overlying Active Reverse Fault Rupture
OMAE 2017; V009T10A018https://doi.org/10.1115/OMAE2017-61496
Topics:
Finite element analysis
,
Rupture
,
Underwater pipelines
,
Pipelines
,
Soil
,
Displacement
,
Boundary-value problems
,
Buckling
,
Constitutive equations
,
Coulombs
Seabed Properties
Predicting the Changing Soil Response for Vertical Pipe-Seabed Interaction Accounting for Remoulding, Reconsolidation and Maintained Load
OMAE 2017; V009T10A020https://doi.org/10.1115/OMAE2017-61695
Topics:
Accounting
,
Pipes
,
Seabed
,
Soil
,
Stress
,
Stiffness
,
Earth resistance
,
Fatigue
,
Critical points (Physics)
,
Cycles
On the Axial Holding Capacity of Torpedo Bases in Clay
José Renato M. de Sousa, Rachel G. B. C. Genzani, Elisabeth C. Porto, Alexandre T. Borges, Emmanuel F. Nogueira, Gilberto B. Ellwanger
OMAE 2017; V009T10A022https://doi.org/10.1115/OMAE2017-62517
Topics:
Design
,
Drilling
,
Drillships
,
Finite element analysis
,
Fins
,
Geometry
,
Seabed
,
Shear (Mechanics)
,
Soil
,
Stress
Torgeir Moan Honoring Symposium
Design Codes for Planning of Marine Operations
Numerical Study of a Moored Structure in Moving Broken Ice Driven by Current and Wave
OMAE 2017; V009T12A001https://doi.org/10.1115/OMAE2017-61252
Topics:
Ice
,
Mooring
,
Waves
,
Computer simulation
,
Cables
,
Degrees of freedom
,
Dynamic response
,
Floating structures
,
Fluid-dynamic forces
,
Ice-structure interaction
Experimental Verification of ABS Concrete Design Methodology Applied to the Design of the First Commercial Scale Floating Offshore Wind Turbine in the United States
OMAE 2017; V009T12A004https://doi.org/10.1115/OMAE2017-62461
Topics:
Concretes
,
Design
,
Design methodology
,
Offshore wind turbines
,
Hull
,
Ocean engineering
,
Testing
,
Shorelines
,
Wind
,
Wind turbines
Development of Fatigue Design Standards for Marine Structures
OMAE 2017; V009T12A005https://doi.org/10.1115/OMAE2017-62516
Topics:
Fatigue design
,
Marine structures
,
Fatigue
,
Design
,
North Sea
,
Offshore structures
,
Ships
,
Stress
,
Tension-leg platforms
,
Wind turbines
Fatigue Analysis
Time Domain Fatigue Analysis of the Pin for Offshore Bridges Considering the Nonlinear Effect of Sliding Connections
OMAE 2017; V009T12A006https://doi.org/10.1115/OMAE2017-61811
Topics:
Bridges (Structures)
,
Fatigue analysis
,
Ocean engineering
,
Fatigue
,
Friction
,
Fatigue life
,
Springs
,
Fatigue damage
,
Inspection
,
North Sea
Innovative Marine Structures or Installation Procedures
Dynamic Response of a Combined Mono-Pile Wind Turbine and Heave-Type Wave Energy Converter System
OMAE 2017; V009T12A008https://doi.org/10.1115/OMAE2017-62292
Topics:
Dynamic response
,
Wave energy converters
,
Wind turbines
,
Stress
,
Waves
,
Boundary element methods
,
Computer simulation
,
Couplings
,
Damping
,
Design
On Tower Top Axial Acceleration and Drivetrain Responses in a Spar-Type Floating Wind Turbine
OMAE 2017; V009T12A009https://doi.org/10.1115/OMAE2017-62314
Topics:
Floating wind turbines
,
Spar platforms
,
Wing spars
,
Bearings
,
Stress
,
Design
,
Fatigue damage
,
North Sea
,
Safety
,
Servomechanisms
Wave-Energy Conversion Avoiding Destructive Wave Interference
OMAE 2017; V009T12A011https://doi.org/10.1115/OMAE2017-62617
Topics:
Wave energy
,
Wave interference
,
Waves
,
Hull
,
Climate
,
Dipoles (Electromagnetism)
,
North Atlantic Ocean
,
Radiation (Physics)
,
Surges
Technical Challenge on VLFS in Japan After Mega-Float Project
OMAE 2017; V009T12A013https://doi.org/10.1115/OMAE2017-62663
Topics:
Coal
,
Industrial research
,
Magnetic resonance imaging
,
Ocean engineering
,
Oil fields
,
Storage
,
Water
Hydroelastic Responses of VLFS Deployed Near Islands and Reefs
OMAE 2017; V009T12A014https://doi.org/10.1115/OMAE2017-62680
Topics:
Bridges (Structures)
,
China
,
Conceptual design
,
Construction
,
Design
,
Dimensions
,
Economics
,
Emergencies
,
Floating structures
,
Fuels
Multi-Purpose Offshore-Platforms: Past, Present and Future Research and Developments
OMAE 2017; V009T12A015https://doi.org/10.1115/OMAE2017-62691
Topics:
Offshore platforms
,
Ocean engineering
,
Design
,
Economics
,
Maintenance
,
Ocean energy
,
Optimization
,
Wind
,
Wind farms
Hydrodynamical Aspects of Pontoon Optimization for a Side-Anchored Floating Bridge
Arnt G. Fredriksen, Mads F. Heiervang, Per N. Larsen, Pål G. Sandnes, Bernt Sørby, Basile Bonnemaire, Anders Nesteby, Øyvind Nedrebø
OMAE 2017; V009T12A016https://doi.org/10.1115/OMAE2017-62698
Topics:
Bridges (Structures)
,
Optimization
,
Girders
,
Design
,
Excitation
,
Flanges
,
Waves
,
Wind
Simulating Large-Scale Fatigue Test Specimens for Offshore Wind Monopiles
OMAE 2017; V009T12A017https://doi.org/10.1115/OMAE2017-62711
Topics:
Fatigue testing
,
Ocean engineering
,
Wind
,
Accounting
,
Stress
,
Testing
Overview of Floating Bridge Projects in Norway
OMAE 2017; V009T12A018https://doi.org/10.1115/OMAE2017-62714
Topics:
Bridges (Structures)
,
Design
,
Shorelines
,
Engineers
,
Offshore technology
,
Traffic
Hydrodynamic Analysis of Multiple Floating Pontoons With Different Joint Gaps to Waves in Different Water Depth
OMAE 2017; V009T12A020https://doi.org/10.1115/OMAE2017-62719
Topics:
Water
,
Waves
,
Boundary element methods
,
Bridges (Structures)
,
Diffraction
,
Flow (Dynamics)
,
Fluids
,
Radiation (Physics)
,
Seas
,
Significant wave heights
Ship Collision Analysis of a Floating Bridge in Ferry-Free E39 Project
OMAE 2017; V009T12A021https://doi.org/10.1115/OMAE2017-62720
Topics:
Bridges (Structures)
,
Collisions (Physics)
,
Ships
,
Stress
,
Tunnels
,
Damage
,
Deformation
,
Design
,
Displacement
,
Finite element model
Time Domain Modelling of Frequency Dependent Wind and Wave Forces on a Three-Span Suspension Bridge With Two Floating Pylons Using State Space Models
OMAE 2017; V009T12A022https://doi.org/10.1115/OMAE2017-62721
Topics:
Modeling
,
Suspension bridges
,
Wave forces
,
Wind
,
Tension-leg platforms
,
Arches
,
Computer software
,
Concretes
,
Damping
,
Dynamic analysis
Inspection, Monitoring, Maintenance and Repair
Analytical Solutions of Bimodal Gaussian Processes’ Fatigue Damages
OMAE 2017; V009T12A023https://doi.org/10.1115/OMAE2017-61467
Topics:
Fatigue damage
,
Flow (Dynamics)
,
Damage
,
Cycles
,
Stress
,
Numerical analysis
Corrosion Prognosis: Maritime Structural Performances in Service Environments
OMAE 2017; V009T12A026https://doi.org/10.1115/OMAE2017-62425
Topics:
Corrosion
,
Resilience
,
Damage
,
Design
,
Experimental methods
,
Finite element model
,
Maintenance
,
Materials degradation
,
Performance
,
Physics
Modelling and Analysis of Marine Operations
Modeling and Control of Crane Overload Protection During Marine Lifting Operation Based on Model Predictive Control
OMAE 2017; V009T12A027https://doi.org/10.1115/OMAE2017-62003
Topics:
Control modeling
,
Cranes
,
Predictive control
,
Wire
,
Control equipment
,
Stress
,
Degrees of freedom
,
Engineering simulation
,
Feedback
,
Matlab
A Numerical Study on a Flopper Stopper for Leg Positioning of a Jack-Up Barge
OMAE 2017; V009T12A028https://doi.org/10.1115/OMAE2017-62034
Topics:
Jack-up drilling rigs
,
Ocean engineering
,
Waves
,
Wind
,
Cantilever beams
,
Damage
,
Dynamic analysis
,
Geometry
,
Ropes
,
Seabed
Design Parameters for Increased Operability of Offshore Crane Vessels
OMAE 2017; V009T12A029https://doi.org/10.1115/OMAE2017-62307
Topics:
Crane barges
,
Design
,
Ocean engineering
,
Vessels
,
Ships
,
Decision making
,
Innovation
,
Inspection
,
Maintenance
,
Offshore structures
Numerical Study for a Catamaran Gripper-Monopile Mechanism of a Novel Offshore Wind Turbine Assembly Installation Procedure
OMAE 2017; V009T12A030https://doi.org/10.1115/OMAE2017-62342
Topics:
Grippers
,
Manufacturing
,
Offshore wind turbines
,
Wind turbines
,
Turbines
,
Computer simulation
,
Vessels
,
Design
,
Ocean engineering
,
Rolling contact
Hydrodynamic Coefficients for Suction Anchors During Installation Operations
OMAE 2017; V009T12A031https://doi.org/10.1115/OMAE2017-62447
Topics:
Suction
,
Ocean engineering
,
Vessels
,
Computer simulation
,
Engineering simulation
,
Seas
,
Simulation
,
Cranes
,
Damping
,
Economics
Dynamic Forces and Limiting Sea States for Installation of GRP Protection Covers
OMAE 2017; V009T12A032https://doi.org/10.1115/OMAE2017-62499
Topics:
Seas
,
Damping
,
Simulation
,
Uncertainty
,
Computational fluid dynamics
,
Computer simulation
,
Fluid-dynamic forces
,
Gears
,
Glass fibers
,
Modeling
The Consequence Method: An Approach for Estimating Roll Damping in Transportation Fatigue Analyses
OMAE 2017; V009T12A033https://doi.org/10.1115/OMAE2017-62649
Topics:
Damping
,
Fatigue analysis
,
Transportation systems
,
Seas
,
Fatigue damage
,
Electromagnetic scattering
,
Vessels
,
Damage
,
Errors
,
Inertia (Mechanics)
Torsion in Flexible Pipes, Umbilicals and Cables Under Loadout to Installation Vessels
OMAE 2017; V009T12A034https://doi.org/10.1115/OMAE2017-62716
Topics:
Cables
,
Pipes
,
Torsion
,
Vessels
,
Armor
,
Damage
,
Design
,
Failure mechanisms
,
Internal friction
Reliability Analysis of Marine Structures and Operations
Safety of Marine Operations Involving Dynamically Positioned Vessels
OMAE 2017; V009T12A036https://doi.org/10.1115/OMAE2017-62708
Topics:
Safety
,
Vessels
,
Ocean engineering
,
Risk
,
Risk analysis
,
Gas industry
,
Mobile offshore drilling units
,
Risk assessment
,
Tankers
Safety Barriers in Structural and Marine Engineering
OMAE 2017; V009T12A038https://doi.org/10.1115/OMAE2017-62712
Topics:
Marine engineering
,
Safety
,
Collapse
,
Petroleum industry
,
Regulations
,
Risk analysis
,
Stress
Reliability Analysis and Risk-Based Methods for Planning of Operation and Maintenance of Offshore Wind Turbines
OMAE 2017; V009T12A039https://doi.org/10.1115/OMAE2017-62713
Topics:
Event history analysis
,
Maintenance
,
Offshore wind turbines
,
Risk
,
Reliability
,
Wind turbines
,
Calibration
,
Design
,
Safety
,
Structural elements (Construction)
On the Application of Structural Reliability Analysis
OMAE 2017; V009T12A041https://doi.org/10.1115/OMAE2017-62717
Topics:
Event history analysis
,
Uncertainty
,
Design
,
Calibration
,
Ocean engineering
,
Probability
,
Structural engineering
,
Decision making
,
Failure
,
Fatigue
Stochastic Dynamic Response Analysis of Marine Structures
Offshore Wind Turbine Nonlinear Wave Loads and Their Statistics
OMAE 2017; V009T12A042https://doi.org/10.1115/OMAE2017-61184
Topics:
Nonlinear waves
,
Offshore wind turbines
,
Statistics
,
Stress
,
Algorithms
,
Design
,
Drag (Fluid dynamics)
,
Fluids
,
Impulse (Physics)
,
Inertia (Mechanics)
Initial Design of a Double Curved Floating Bridge and Global Hydrodynamic Responses Under Environmental Conditions
OMAE 2017; V009T12A045https://doi.org/10.1115/OMAE2017-61802
Topics:
Bridges (Structures)
,
Design
,
Arches
,
Computer simulation
,
Buoyancy
,
Compression
,
Drag (Fluid dynamics)
,
Dynamic response
,
Engineering simulation
,
Roads
Numerical Investigation Into Uncertainty of Wave-Induced Vibration of Large Container Ships due to Ship Operation
OMAE 2017; V009T12A046https://doi.org/10.1115/OMAE2017-62336
Topics:
Containers
,
Ships
,
Uncertainty
,
Vibration
,
Waves
,
Stress
,
Time series
,
Accounting
,
Engineering simulation
,
Seas
Coupled Analysis of Offloading System in West Africa Sea
OMAE 2017; V009T12A047https://doi.org/10.1115/OMAE2017-62467
Topics:
Seas
,
Buoys
,
Mooring
,
Waves
,
Computer simulation
,
Diffraction
,
Disks
,
Drag (Fluid dynamics)
,
Flexible structures
,
Numerical analysis
Numerical Modelling and Analysis of a Hybrid-Spar Floating Wind Turbine
OMAE 2017; V009T12A049https://doi.org/10.1115/OMAE2017-62578
Topics:
Floating wind turbines
,
Modeling
,
Spar platforms
,
Wing spars
,
Design
,
Numerical analysis
,
Ocean engineering
,
Prestressed concrete
,
Steel
,
Stress
Validation of Simulation Models
Ship Handling Model Validation Using In-Service Measurements
OMAE 2017; V009T12A052https://doi.org/10.1115/OMAE2017-62598
Topics:
Model validation
,
Ships
,
Vessels
,
Seas
,
Simulation
,
Simulation results