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Virtual Simulation to Drive Product Designs for Wellbore Construction

This paper summarizes how Baker Hughes uses FEA based virtual simulations using Abaqus to drive the product designs for wellbore constructions tools used in oil and gas industry in the early design phase. Next generation wellbore constructions tools such as expandable liner hangers, packers, solid expandables and setting tools designs in multiple sizes are driven using virtual simulations to meet the desired performance requirements. Virtual simulation is tightly integrated in all the PDM phases of design and development from feasibility study to product launch. Using virtual simulations in the front end of the design cycle during feasibility studies or concept development helped to capture most of the design failure modes and design limitations with improved product performance before building costly prototypes.

Customer Papers

Virtual Simulation to Drive Product Designs for Wellbore Construction
Using Abaqus to Enable Accurate Stress Predictions of a Multi-Body System with Sliding Contact

This paper explores the problem of a multi-body articulating mannequin carried on a flexible linear motion base stage with sliding contact to examine the benefits of a single all-FEM approach. The sliding contact in the linear stage cannot be well represented by a modal body but has been modeled in Abaqus to simulate the response of this complex dynamic system. A detailed description of the model is included, along with specific design recommendations to enable this modeling approach to work in a highly dynamic design environment.

Customer Papers

Using Abaqus to Enable Accurate Stress Predictions of a Multi-Body System with Sliding Contact
On-going Project on Simulation Lifecycle Management at Ebara

Fluid Machinery & Systems Company, Ebara Corporation, is a turbomachinery manufacturing business group dealing with various types of pumps, compressors and turbines. The mission of our division is the development of fundamental technologies and the engineering support works for planning/developing/designing our products by using a wide variety of simulation applications such as computational fluid dynamics, structural analysis, vibration analysis, numerical optimization, etc... The engineering staffs had been performing their simulation works with their own way and the simulation & engineering know-how had not been fully shared.

Customer Papers

On-going Project on Simulation Lifecycle Management at Ebara
Fluid Structure Interaction simulation of wind turbine blade using 3DEXPERIENCE platform

Numerical prediction of wind turbine pose number of challenges such as the flow is fully turbulent, presence of fluid boundary layer and long and slender blade with complex distribution of composite material properties. Fluid Structure Interaction (FSI) simulations are essential for accurate prediction of structural forces. 3 dimensional single blade composite models is designed using CATIA Composite Design workbench. Simulation is carried out using fully coupled FSI procedure from SIMULIA Fluid Scenario Creation workbench to predict safety of composite blade for two load cases. This study demonstrates the effectiveness of 3DEXPERIENCE platform to carry out integrated flow and composite structural simulations for wind turbine blade application.

Customer Papers

Fluid Structure Interaction simulation of wind turbine blade using 3DEXPERIENCE platform
Jumping the Iteration Train: Using Isight to Advance Downhole Seal Design

In the oilfield, market segments are driven by the next profound “unreachable” payzone. In the last few decades, we have gone through various design levels attempting to reach the operators latest requests. The common term to designate these extreme conditions is High Pressure/High Temperature (HP/HT). Under the HP moniker, there are multiple Tiers: Tier 1 up to 15,000 psi, Tier 2 up to 20,000 psi, Tier 3 up to 30,000 psi, and Tier 4 beyond 35,000 psi. BHI currently has a Liner Top Packer that covers Tier 1 rated for 15,000 psi. This paper will show the path we took with Isight and Abaqus to conceptually achieve higher Tiers for a Liner Top Packer, and will show how we “jumped the iteration train” with surprising results.

Customer Papers

Jumping the Iteration Train: Using Isight to Advance Downhole Seal Design
Large Scale Prototyping in the Oil & Gas Industry: The Use of FEA in the Structural Capacity Rating of a Deep Sea Pipeline Clamping System

Freudenberg Oil & Gas Technologies (FO>) in Port Talbot, UK, provides complex metal to metal sealing solutions for the oil & gas and energy industries. FO> is supplying two of its largest Optima subsea connectors for use just inside the Arctic Circle. These will be the deepest of their kind anywhere in the world. The FEA simulation results of the Optima will be used to support experimental test data obtained during factory trials, prequalifying these components to the most extreme subsea loading conditions.

Customer Papers

Large Scale Prototyping in the Oil & Gas Industry: The Use of FEA in the Structural Capacity Rating of a Deep Sea Pipeline Clamping System
Innovative High Pressure Vessel Seal design and Optimisation

A detailed Finite Element Analysis (FEA) was carried out to evaluate the seal and the initial conclusion was that it required complete re-design. In this work, analysis and interpretation was used to establish the modelling method for the seal. The FEA model that was developed for seal optimisation contained elasto-plastic material response, frictional contact modelling, advanced pressure field application and thermal modelling. To maintain sealing contact pressure, the seal has to overcome differential radial movement between the vessel and the end cap during pressure loading. The optimisation process developed a novel profiled seal contact that reduced contact stresses by 48%, eliminating seat damage occurring during pressure loadings.

Customer Papers

Innovative High Pressure Vessel Seal design and Optimisation
Design Knowledge Exploration for the Conceptual Design of Tire Contours

The importance of the rule of simulation at a conceptual design stage is pointed out recently. The methodology using multi-objective design optimization and data mining, which is called MODE (Multi-Objective Design Exploration), is helpful to find out design knowledge. In this study, we show that the design knowledge found by MODE is fruitful for decision making at a conceptual design stage of real world example i.e. contour design of a fuel efficient tire. Our procedure of MODE consists of nonlinear FEA to predict tire performance, evolutional computation to get desirable solutions including Pareto solution, and data mining to find out design knowledge. SOM (Self-Organizing Map) and decision tree are used to obtain appropriate design variables and their threshold.

Customer Papers

Design Knowledge Exploration for the Conceptual Design of Tire Contours
Application of Fracture Mechanics for Evaluation and Improvement of Downhole Perforating Tools

At times, oil and gas wells require workover operations to repair or replace corroded downhole equipment. During these maintenance operations, a single hole may be required to allow kill fluids to be circulated to maintain well control. Traditionally, the hole would be made via explosives and mechanical hole-punching methods, which frequently fail to perforate. To improve these operations, slickline-deployed electro-mechanical downhole power unit perforating tools were developed by a major oilfield engineering company and successfully applied in the field for perforating 41⁄2-in. size, J-55 grade steel tubing.

Customer Papers

Application of Fracture Mechanics for Evaluation and Improvement of Downhole Perforating Tools
Integrated Workflow for Analyzing Composite Gas Turbine Components

Advanced composite materials are being used in an increasing number of gas turbine engine products where their unique combination of properties such as low density, high strength and fatigue resistance help to increase performance. High temperature composites are currently being investigated in many components of gas turbines where load and high temperature capability are critical. Development of efficient, accurate modeling methodologies is critical. This presentation focuses on two methods to create a plylevel finite element model using the integrated Dassault Systèmes (DS) product suite. This includes CATIA Composites Part Design, Composites Link, and Composites Modeler for Abaqus and Abaqus.

Customer Papers

Integrated Workflow for Analyzing Composite Gas Turbine Components
Load Path Optimization for Hydroforming Process Using 3DEXPERIENCE Platform

In tube hydroforming process, the load path which is the relation between axial feed and internal pressure plays a major role in deciding the quality of hydro formed components. This study demonstrates how to arrive at optimal load path curve to achieve maximum bulge height keeping thickness reduction within limit and ensuring that the component does not get tear off during the manufacturing process. The hydroforming process is simulated using explicit dynamic procedure in structural simulation application. The DOE process is defined using simulation process modeling, to identify optimum load path. 3DEXPERIENCE platform works as an effective integration and automation platform for such studies.

Customer Papers

Load Path Optimization for Hydroforming Process Using 3DEXPERIENCE Platform
Using Explicit Finite Element Analysis to Simulate Blast Loading on Hazardous Chemical Storage Tanks

Accurately simulating the blast wave associated with an accidental explosion is extremely valuable in assessing the structural response and potential failure modes of critical process equipment such as storage tanks, piping, or pressure vessels in chemical and petrochemical facilities. Furthermore, assessing the potential damage from a blast wave can provide valuable information about protecting structures from external explosions and developing designs that improve blast damage mitigation. This paper discusses the underlying theory and examines the practical application of multiple finite element based explicit computational techniques for simulating the load acting on a structure due to a chemical explosion.

Customer Papers

Using Explicit Finite Element Analysis to Simulate Blast Loading on Hazardous Chemical Storage Tanks
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