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Offshore Structure Platform Design using (OSPD) with SACS Level 1 & Level 2

$3450.00 $1550.00 exc VAT

Purpose

To develop the highly specialized skills and knowledge in the areas of Offshore Structure Platform Design using with SACS at Level 1 & Level 2 .

OSPD Level 1 & Level 2 gives a comprehensive understanding of offshore fixed platform with comprehensive analyses, including full non-linear, dynamic, and impact effects. Use integrated modules to model pile-soil interaction and apply wind, wave, seismic, ship impact, dropped object, and blast loads.​​

Training Mode: Online via Live Webinar

Category:

Description

Offshore platform engineering design with SACS (Structural Analysis Computer System) involves the use of advanced software tools to design and analyze the structural components of offshore platforms.

SACS is a software package specifically designed for offshore structures, and it is widely used in the oil and gas industry for the analysis and design of offshore structures. It provides advanced capabilities for finite element analysis, dynamic analysis, fatigue analysis, and other types of structural analysis.

The engineering design process with SACS typically involves several steps. The first step is to create a detailed model of the offshore platform, which includes all the structural components such as the platform deck, support legs, and other equipment. This model is then used to perform various types of analysis, such as static and dynamic load analysis, fatigue analysis, and other types of structural analysis.

The output of these analyses is used to optimize the design of the platform, ensuring that it is structurally sound and can withstand the harsh offshore environment. This includes considerations such as the impact of wind and waves, as well as the effects of corrosion and other environmental factors.

The overall objective is to provide participants with an understanding of the design and construction of fixed offshore platform using SACs software. It also include specifically:

  • The theory and process of such design
  • The use of current, applicable engineering methods in the design of fixed offshore platforms.

In addition to the traditional lecture delivery, the course delivery emphasizes the use of group discussions and actual design problems in order to ensure participants can put the newly learned concepts to use.

Course Outline

Introduction
Types of Offshore Structures
Fixed Platforms
Compliant Structures
Floating Structures
Subsea System
Fixed Platform Concepts

Module 1: Jacket Fixed Platforms Design Methodology

Design Stages
FEED
Basic Design
Detailed Design

Module 2: Loads on Jacket Fixed Platforms

Load Types
Gravity Loads
Environmental Loads
Mud Loads
Load Estimation and Distribution
Load Combinations

Module 3: Jacket Fixed Platforms Materials & Corrosion

Structural Steel
Structural Member Classification
Steel Grades
Manufacturing
Chemical Requirements
Carbon Equivalent (CE)
Mechanical Requirements
Notch Toughness Requirements
Supplementary Requirements
Corrosion
Seawater Corrosion
Factors influencing corrosion
Types of corrosion
Rates of corrosion
Corrosion Protection
Cathodic Protection
Sacrificial Anode System

Module 4: Jacket Fixed Platforms Simulation

Structure Geometry selection
Geometry Simulation
Axis System
Joints or Nodes
Members and properties
Offsets and Eccentricities
Wish-bone Connections
Dummy Structure Models
Foundation Simulation
Pile Modelling
Pile Group Effect
Load Simulation
Dead Loads
Equipment Loads
Fluid Loads
Drilling Loads
Live Loads
Wind, Wave and Current

Module 5: Jacket Fixed Platforms In-place Analyses

Principle
Geometry Simulation
Simplified Topside Model
Load Simulation
Topsides Load COG Shift Envelope
Minimum and Maximum Water Depth
Maximum Wave Loads
Allowable Stresses
Dynamic Analysis

Module 6: Jacket Fixed Platforms Dynamic Analysis

Principle
Geometry Simulation
Load Simulation
Computer Generated Mass
Direct Input Mass
Foundation Simulation
Solution
Dynamic Amplification factor

Module 7: Jacket Fixed Platforms Fatigue Analysis

Deterministic Fatigue Analysis
Wave Scatter Data
Spectral Fatigue Analysis
Wave Spectra
Wave Theory Selection
Wave Steepness
Transfer Functions
Selection of Frequencies
Stress Amplitudes
Fatigue Life Calculation
S-N Curves
Stress Concentration Factors
Foundation Linearisation

Module 8: Offshore Production Jacket Platform Structural Modeling & Simulation with SACS

Impact Vessels
Method of Computing Impact Energy Dissipation
Energy dissipation by member
Energy Dissipation by Overall jacket deflection
Structural Strength During Impact
Push Over Analysis

Workshop 1: Starting SACS Executive and Setting up Working Environment
Workshop 2: Structural Modeling of Jacket, Pile and Conductor via Definition Wizard
Workshop 3: Offshore Production Jacket Platform Structural Modeling of Horizontal Frames
Workshop 4: Offshore Production Jacket Platform Structural Modeling of Deck Frames – Cellar & Main Decks
Workshop 5: Offshore Production Jacket Platform Structural Modeling of Joint Connection Design
Workshop 6: Offshore Production Jacket Platform Topside Design Theory Based On API-RP2
Workshop 7: Offshore Production Jacket Platform Environmental Load Analysis with SACS
Workshop 8: Offshore Production Jacket Platform In Place Analysis Theory Based On API-RP2
Workshop 9: Offshore Production Jacket Platform Gravity Load / Weight Analysis Theory based on API RP 2A
Workshop 10: Offshore Production Jacket Platform Gravity Load / Weight Analysis with SACS
Workshop 11: Offshore Production Jacket Platform Static Analysis with Non Linear Foundation with SACS
Workshop 12: Offshore Production Jacket Platform Basic Static Analysis
Workshop 13: Offshore Jacket Single Pile Analysis
Workshop 14: Offshore Jacket Ship Impact Analysis

Module 1: Loads on Offshore Structures

Lecture 1.0: Loads on Offshore Structures
Lecture 1.1: Loads on Offshore Structures
Lecture 1.2: Loads on Offshore Structures
Lecture 1.3: Loads on Offshore Structures
Lecture 1.4: Loads on Offshore Structures
Lecture 1.5: Loads on Offshore Structures
Lecture 1.6: Loads on Offshore Structures

Module 2: Concepts of Fixed Offshore Platform Deck and Jacket

Lecture 2.0: Concepts of Fixed Offshore Platform Deck and Jacket
Lecture 2.1: Concepts of Fixed Offshore Platform Deck and Jacket
Lecture 2.2: Concepts of Fixed Offshore Platform Deck and Jacket
Lecture 2.3: Concepts of Fixed Offshore Platform Deck and Jacket
Lecture 2.4: Concepts of Fixed Offshore Platform Deck and Jacket

Module 3: Steel Tubular Member Design

Lecture 3.0: Steel Tubular Member Design
Lecture 3.1: Steel Tubular Member Design
Lecture 3.2: Steel Tubular Member Design
Lecture 3.3: Steel Tubular Member Design
Lecture 3.4: Steel Tubular Member Design

Module 4: Tubular Joint Design for Static & Cyclic Loads

Lecture 4.0: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.1: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.2: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.3: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.4: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.5: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.6: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.7: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.8: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.9: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.10: Tubular Joint Design for Static & Cyclic Loads
Lecture 4.11: Tubular Joint Design for Static & Cyclic Loads

Module 5: Tubular Joint Design for Static & Cyclic Loads

Lecture 5.0: Jackup Rigs Analysis & Design
Lecture 5.1: Jackup Rigs Analysis & Design
Lecture 5.2: Jackup Rigs Analysis & Design
Lecture 5.3: Jackup Rigs Analysis & Design
Lecture 5.4: Jackup Rigs Analysis & Design
Lecture 6.0: Design Against Accidental Loads
Lecture 6.1: Design Against Accidental Loads
Lecture 6.2: Design Against Accidental Loads
Lecture 6.3: Design Against Accidental Loads
Lecture 6.4: Design Against Accidental Loads
Lecture 6.5: Design Against Accidental Loads
Lecture 6.6: Design Against Accidental Loads
Lecture 6.7: Design Against Accidental Loads

Technical Support References

Ref 1: Jacket Fixed Platforms Design Methodology
Ref 2: Loads on Jacket Fixed Platforms
Ref 3: Jacket Fixed Platforms Materials & Corrosion
Ref 4: Jacket Fixed Platforms Inspection
Ref 5: Jacket Fixed Platforms Maintenance
Ref 6: Jacket Fixed Platforms Repair
Ref 7: Jacket Fixed Platforms Simulation with SACS
Ref 8: Jacket Fixed Platforms In-place Analyses with SACS
Ref 9: Jacket Fixed Platforms Dynamic Analysis with SACS
Ref 10: Jacket Fixed Platforms Fatigue Analysis with SACS
Ref 11: Jacket Fixed Platforms Push Over Analysis with SACS

Assessment

Participant underpinning knowledge of Fixed Offshore Platforms & Suction Piles Structural Design & Simulation with SACs at Level 1 to Level 2 will be accessed with on the job fixed production platform design case studies to be presented towards end of course.

Professional Certificate

Issued directly by Chess Subsea Engineering Europe.

How to Register

Click here to download registeration booklet on msword and email completed booklet to info@chesssubseaengineering.org directly.

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