#Structural Simulation Using ABAQUS

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Join Our Structure Engineering Abaqus Tutorial | Abaqus Training

If you are a beginner looking for the upskill, then join our Structure Engineering Abaqus Tutorial Now!!. We will teach basics to advanced Abaqus Structure Analysis Software. Get the Certificate from experts

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Mastering Finite Element Analysis: A Comprehensive Guide for Do Your Abaqus Assignment

Finite Element Analysis (FEA) stands as a cornerstone in the realm of structural and mechanical engineering, enabling engineers to simulate and understand the behavior of complex structures under various conditions. Abaqus, a powerful FEA software, empowers users to conduct intricate simulations, but mastering its capabilities requires a thoughtful approach. In this comprehensive guide, we'll explore the intricacies of using Abaqus to simulate a dynamic loading scenario on a complex mechanical structure. For those seeking assistance with their Abaqus assignments, this guide serves as a valuable resource to navigate through the challenges.

Understanding the Task:

Imagine a scenario where a mechanical structure, comprising interconnected components with diverse material properties and geometric configurations, undergoes dynamic loading. The task to do your Abaqus assignment at hand is to simulate and analyze this complex system using Abaqus. The goal is to provide accurate results while considering computational efficiency, convergence, and the significance of selecting appropriate element types and integration schemes.

Section 1: Modeling Approach

1.1 Geometry and CAD Import

To kick off the simulation process, importing the CAD geometry accurately into Abaqus is crucial. This step ensures that the virtual model faithfully represents the physical system.

1.2 Meshing Strategy

Developing a meshing strategy involves finding the right balance between accuracy and computational efficiency. Areas of high stress or deformation may require mesh refinement, and selecting appropriate element types for each component is key to achieving reliable results.

1.3 Material Assignments

Accurate material assignments are paramount. Understanding the behavior of materials under dynamic loading conditions is essential for realistic simulations. Abaqus allows users to define material properties with precision, enhancing the fidelity of the analysis.

1.4 Boundary Conditions

Applying realistic boundary conditions is crucial to replicate the physical constraints of the structure accurately. This step ensures that the simulation mirrors the actual behavior of the system under the specified loading conditions.

Section 2: Simulation Challenges and Strategies

2.1 Convergence Issues

Convergence issues can arise during the simulation, affecting the accuracy and reliability of results. Monitoring the simulation for convergence problems and adjusting criteria and time increments are essential steps. Sub-stepping techniques can be employed to enhance stability.

2.2 Contact and Interaction

In a complex structure, components may interact and come into contact. Defining contact pairs, choosing appropriate contact algorithms, and validating contact behavior are crucial for a realistic simulation.

2.3 Solver Settings

Optimizing solver settings is vital for computational efficiency. Parallel processing and solution controls can be utilized to manage convergence and enhance the efficiency of the simulation process.

Section 3: Element Types and Integration Schemes

3.1 Element Selection

Choosing the right element types is fundamental for accurate representation. Tetrahedral, hexahedral, and shell elements, when strategically employed, contribute to a comprehensive simulation that captures the nuances of the structure's deformation.

3.2 Integration Schemes

The selection of integration schemes is a delicate balance between accuracy and computational cost. High-order integration schemes may offer more precise results but could increase computation time. Careful consideration is required to find the optimal trade-off.

Conclusion: Navigating the Abaqus Landscape

In the world of finite element analysis, mastering Abaqus is a journey that demands attention to detail and a strategic approach. Simulating a dynamic loading scenario on a complex mechanical structure involves a series of critical decisions, from modeling and meshing to addressing convergence issues and selecting the right element types.

For those seeking assistance with their Abaqus assignments, understanding the nuances of the software and the finite element analysis process is crucial. This guide serves as a roadmap to navigate through the challenges posed by complex simulations, ensuring that the virtual representation aligns with the physical reality.

In the words of simulation experts, tackling an Abaqus assignment involves not just running the software but orchestrating a symphony of decisions that shape the accuracy and reliability of the results. As the virtual world converges with the physical, the mastery of Abaqus becomes an art and science, providing engineers with the insights needed to design and optimize structures in the real world.

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Understanding Nonlinear Structural Analysis: A Key to Realistic Structural Behavior

In modern structural engineering, precision and safety are top priorities. Nonlinear Structural Analysis plays a crucial role in achieving these goals by going beyond the assumptions of traditional linear models. While linear analysis assumes a direct, proportional relationship between loads and structural responses, nonlinear analysis considers the actual, often complex behavior of materials and structures. This includes changes in stiffness, plastic deformations, large displacements, and even cracking or buckling under high stress. As a result, nonlinear analysis provides a more realistic and reliable understanding of how structures perform under extreme or unexpected conditions.

There are several types of nonlinearities that engineers must account for. Geometric nonlinearity involves large deformations that alter the structural configuration, while material nonlinearity considers the nonlinear stress-strain relationships in materials that may yield, harden, or soften. Additionally, boundary condition nonlinearity arises when supports or connections behave unpredictably under load, such as when joints slip or gaps open. Incorporating these nonlinearities into structural models is essential for analyzing complex structures like tall buildings, bridges, and industrial facilities—especially those located in seismic or high-wind zones.

Thanks to advances in engineering software, performing Nonlinear Structural Analysis has become more efficient and accessible. Tools like ANSYS, ABAQUS, and ETABS allow engineers to simulate real-world conditions with a high degree of accuracy. By using these tools, professionals can optimize structural designs, reduce construction costs, and ensure that safety standards are met or exceeded. As architectural and engineering challenges become more demanding, embracing nonlinear analysis is not just a technical option—it’s a necessity for creating durable, resilient, and future-ready infrastructure.

Discover more on the topic by visiting our blog - https://medium.com/@extremeloadingnc/understanding-nonlinear-structural-analysis-a-key-to-realistic-structural-behavior-f45b9f582c9f

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FEA Structural Analysis Services: Linear, Nonlinear, Thermal, Implicit, and Explicit Explained

Introduction

What is FEA (Finite Element Analysis)?

Why FEA is Critical for Modern Engineering

Linear vs. Nonlinear Structural Analysis

Thermal Structural Analysis

Implicit vs. Explicit Solvers: What’s the Difference?

When to Use Each FEA Type

Common Applications in Industry

Key Benefits of FEA in Product Design

Choosing the Right FEA Partner

How We Deliver Accurate FEA Results

Cost vs. Accuracy in Simulation

Future Trends in Structural Simulation

FAQs

1. Introduction

In today’s fast-paced engineering environment, accuracy and speed can make or break a project. Finite Element Analysis (FEA) plays a key role in predicting structural behavior, reducing prototypes, and optimizing performance. Whether you’re dealing with heavy machinery, consumer electronics, or high-temperature components, FEA offers a path to precision.

2. What is FEA?

Finite Element Analysis is a computerized method for predicting how a part or assembly reacts to real-world forces, vibration, heat, fluid flow, and other physical effects. It subdivides a large system into smaller, simpler parts called elements. The resulting equations are then solved to simulate the physical behavior of the system.

3. Why FEA is Critical for Modern Engineering

FEA helps reduce physical prototyping, lowers development costs, shortens design cycles, and ensures product reliability. It’s used across industries—from aerospace and automotive to civil structures and biomedical devices.

4. Linear vs. Nonlinear Structural Analysis

Linear Analysis assumes small deformations, constant stiffness, and a direct proportionality between loads and responses. It’s fast, cost-effective, and useful for preliminary design.

Nonlinear Analysis accounts for:

Large deformations

Material nonlinearity (plasticity, hyperelasticity)

Contact and friction

This is crucial for realistic simulations where assumptions of linear behavior break down.

5. Thermal Structural Analysis

Thermal analysis evaluates how structures respond to temperature changes, heat generation, or thermal cycling. It’s especially useful in industries like power, aerospace, electronics, and metallurgy.

Coupled thermal-structural FEA helps assess:

Thermal stress

Thermal expansion

Fatigue due to temperature gradients

6. Implicit vs. Explicit Solvers: What’s the Difference?

Implicit Solvers

Good for static or quasi-static problems

Require fewer time steps

Stable for complex boundary conditions

Explicit Solvers

Ideal for high-speed events like impact, crash, explosions

Handle large deformations and contact easily

Time-consuming but essential for dynamic analysis

Choosing the right solver can drastically affect result accuracy and computation time.

7. When to Use Each FEA Type

Linear: Initial designs, small loads, rigid components

Nonlinear: Rubber parts, snap-fit components, crash scenarios

Thermal: Heat shields, electronic enclosures

Explicit: Drop tests, crash simulations

Implicit: Structural deflection, thermal loading, creep analysis

8. Common Applications in Industry

Aerospace: Wing structure stress, thermal fatigue

Automotive: Chassis impact analysis, engine heat dissipation

Power: Boiler tubes, pressure vessels

Consumer Goods: Drop simulation, packaging durability

Civil: Earthquake resistance, structural load bearing

9. Key Benefits of FEA in Product Design

Early failure prediction

Design optimization

Compliance with codes and standards

Reduced development time

Enhanced product reliability and safety

10. Choosing the Right FEA Partner

When outsourcing FEA, consider:

Industry-specific experience

Solver specialization (LS-DYNA, Abaqus, ANSYS, etc.)

Certification and QA process

Reporting transparency

Speed and communication

11. How We Deliver Accurate FEA Results

At Graphler Technology Solutions, we use solvers based on the particular requirement backed by domain expertise in:

Meshing optimization

Material modeling

Solver tuning

Post-processing for design insights

Our multi-domain experience ensures reliable simulation outcomes that align with physical reality.

12. Cost vs. Accuracy in Simulation

While budget constraints exist, compromising on simulation accuracy can lead to product recalls, safety risks, or compliance failures. Investing in robust FEA pays off in:

Lower lifetime cost

Fewer redesigns

Enhanced brand trust

13. Future Trends in Structural Simulation

AI-assisted simulation

Cloud-based solvers

Digital twins

Real-time feedback loops

Multiphysics coupling (electro-thermal-mechanical)

Staying ahead in FEA capabilities ensures product leadership and innovation.

14. FAQs

Q1: What software do you use for FEA?

We use industry-leading tools like ANSYS, Abaqus, COMSOL, and LS-DYNA, selected based on the application.

Q2: Can I get both linear and nonlinear analysis?

Absolutely. We offer tailored packages depending on project complexity and design maturity.

Q3: What industries do you serve?

We work with power, aerospace, manufacturing, automotive, and consumer goods sectors.

Q4: Do you provide consulting or end-to-end design validation?

Yes, we offer complete design-validation-reporting cycles, along with actionable insights.

Conclusion

FEA structural analysis is more than a simulation—it’s a vital engineering decision-making tool. From early concept designs to safety-critical validation, our team helps you unlock better performance, lower risk, and faster market entry.

Graphler Technology Solution provides  Finite Element Analysis Services India which includes stress analysis services and  structural design services , we have a experienced team with 10 yrs of experience in industrial knowledge. Partnering up with the best structural analysis services provider or top product design companies will help you to discover new ideas.  

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Top CFD, FEM, CAE, and Fluid Dynamics Courses in the UK with FlowThermoLab

The UK is a global leader in engineering education, offering high-quality, industry-relevant technical training for students and professionals. For mechanical engineers looking to specialize in simulation and design, advanced training in CFD, CAE, FEM, and fluid dynamics is essential. Whether you’re a university student or a working professional, enrolling in a course that offers practical skills and real-world applications can set you apart. FlowThermoLab, a trusted name in engineering training, offers top-rated online and in-person courses tailored for engineers in the UK and beyond.

CFD Course in UKA CFD course in the UK equips learners with the ability to simulate and analyze fluid flow, heat transfer, and related phenomena using computational tools. FlowThermoLab offers specialized CFD training in the UK using industry-standard software such as ANSYS Fluent and STAR-CCM+. Their hands-on approach ensures you don’t just learn the theory but also gain practical experience solving engineering problems from industries like automotive, aerospace, HVAC, and energy.

CAE Courses for Mechanical Engineering in UKCAE courses for mechanical engineering in the UK provide training in Computer-Aided Engineering tools that are vital for product design, testing, and optimization. FlowThermoLab’s CAE courses cover structural, thermal, and dynamic simulations using platforms like ANSYS, HyperMesh, and Abaqus. These programs are ideal for engineers looking to boost their design and analysis skills, making them job-ready for high-demand roles in R&D and product development.

FEM Course in UKThe Finite Element Method (FEM) is a cornerstone of structural analysis. A well-structured FEM course in the UK from FlowThermoLab teaches students how to model and simulate real-world engineering problems using FEM-based software. Topics include meshing strategies, material modeling, boundary conditions, and post-processing techniques. These skills are especially valuable for engineers in mechanical, civil, and aerospace industries.

Fluid Dynamics in UKUnderstanding fluid dynamics is crucial for mechanical engineers working with systems involving gases and liquids. UK-based courses, including those from FlowThermoLab, offer a blend of theoretical and practical learning. Students explore key concepts such as laminar and turbulent flow, compressible vs. incompressible flow, and heat transfer mechanisms. Integrated CFD software applications help bridge the gap between theory and practice.

CFD Training in UKComprehensive CFD training in the UK with FlowThermoLab offers flexibility and depth. Their programs include online and weekend classes, making it convenient for both students and working professionals. With real-world projects, certification, and expert mentorship, their CFD training is designed to meet global industry standards.

STAR-CCM+ Course in UKFor advanced CFD simulations, FlowThermoLab offers a dedicated STAR-CCM+ course in the UK. This course is ideal for engineers working on complex, multi-physics problems across automotive, marine, and energy sectors. The training covers geometry setup, meshing, solver settings, and post-processing techniques to prepare you for real-world simulation challenges.

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Unlock Engineering Excellence with NX CAE: Advanced Simulation for Real-World Success

In today’s competitive engineering landscape, speed, accuracy, and innovation are non-negotiable. Whether you are designing automotive parts, aerospace structures, or complex industrial machinery, simulation plays a pivotal role in achieving design perfection. NX CAE, a powerful solution from Siemens Digital Industries Software, is redefining the way engineers perform structural, thermal, flow, and multiphysics simulations.

What Is NX CAE?

NX CAE (Computer-Aided Engineering) is a comprehensive simulation platform built within the Siemens NX suite. Unlike traditional CAE tools, NX CAE integrates seamlessly with CAD and other PLM environments to reduce translation errors, shorten the design-to-validation cycle, and enhance collaboration between design and simulation teams.

Key Applications of NX CAE

Structural Analysis: Evaluate strength, stiffness, and durability of components.

Thermal Analysis: Understand heat flow and temperature distribution.

Computational Fluid Dynamics (CFD): Simulate airflow, pressure, and fluid behavior.

Motion Simulation: Analyze moving parts, mechanisms, and dynamic responses.

Multiphysics Analysis: Combine different physical domains like thermal-structural and fluid-thermal simulations.

Optimization: Run parametric and topology optimization for weight, cost, and performance enhancements.

Features of NX CAE

Integrated CAD-CAE environment

Automated meshing and geometry healing tools

Built-in solvers and support for external solvers (e.g., Nastran, Abaqus)

Simulation data management with Teamcenter integration

Interactive post-processing and reporting tools

Support for advanced materials and non-linear simulations

Topology and design optimization workflows

Multiphysics coupling within a unified interface

Benefits of Using NX CAE

✅ Faster Time to Market: Eliminate delays caused by simulation rework and physical testing.

✅ Reduced Costs: Minimize expensive prototype development through accurate virtual testing.

✅ Improved Accuracy: Analyze real-world performance with high-fidelity simulations.

✅ Collaborative Workflow: Seamlessly integrate simulation into your PLM environment.

✅ Higher Product Quality: Detect and resolve performance issues early in the design cycle.

✅ Enhanced Innovation: Explore more design iterations and optimize without compromising timelines.

✅ Streamlined Data Management: Secure, traceable, and version-controlled simulation files.

NX CAE empowers engineering teams to innovate with confidence, reduce design risks, and bring high-performance products to market faster. Whether you're designing complex automotive parts, consumer electronics, or industrial machinery, NX CAE helps you simulate reality, drive optimization, and stay competitive in a digital-first world.

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Servotech FEA Services for Smarter Engineering

In today’s competitive engineering landscape, staying ahead means designing smarter, safer, and more efficient products—faster than ever before. Servotech, a leader in simulation and digital engineering, delivers top-tier Finite Element Analysis (FEA) services to empower engineers, manufacturers, and innovators to make better design decisions early in the product development cycle. With cutting-edge tools and a deep understanding of structural mechanics, Servotech is revolutionizing how companies approach complex engineering challenges.

What is FEA and Why It Matters

Finite Element Analysis (FEA) is a computer-based simulation technique used to predict how products will react to real-world forces like heat, vibration, stress, and motion. By creating a virtual model and breaking it down into small finite elements, engineers can evaluate structural performance and identify weak points without the cost or time of building physical prototypes.

FEA plays a critical role in industries such as:

Automotive and aerospace

Electronics and consumer products

Energy and utilities

Heavy machinery and industrial equipment

Biomedical and healthcare devices

For companies seeking reliability, safety, and regulatory compliance, FEA is not just a tool—it’s an essential part of modern engineering.

Why Choose Servotech for FEA?

Servotech brings more than just simulation software to the table. Their FEA services combine technical precision, industry experience, and engineering intelligence to deliver results that matter.

1. Expertise Across Multiple Domains

Servotech’s team of certified FEA engineers have experience across mechanical, thermal, structural, and dynamic analysis. Whether it's crash simulation for an automobile or thermal stress in electronics, Servotech delivers multi-physics solutions that integrate seamlessly into your workflow.

2. Customized Simulation Solutions

No two projects are the same. Servotech tailors its FEA services to meet the unique demands of your product, industry, and design constraints. From linear static analysis to non-linear and dynamic simulations, the team adapts the modeling techniques and software tools to provide actionable insights specific to your needs.

3. Advanced Software Capabilities

Servotech utilizes industry-standard FEA software tools such as:

ANSYS

Abaqus

HyperMesh

SolidWorks Simulation

COMSOL Multiphysics

These tools allow them to offer high-fidelity simulation, mesh optimization, and fast computation, resulting in more accurate and reliable predictions.

4. Focus on Design Optimization

FEA isn’t just about identifying problems—it’s about solving them. Servotech’s engineers work collaboratively with your design team to recommend geometry improvements, material selection, and load optimization strategies that enhance performance while minimizing cost and weight.

5. Accelerated Time to Market

By integrating FEA early in the product development lifecycle, Servotech helps clients reduce prototyping cycles, prevent late-stage design changes, and accelerate time to market. This early detection of issues leads to significant cost savings and improved product reliability.

Key FEA Services Offered by Servotech

Structural Analysis

This includes static, dynamic, and non-linear stress analysis for components and assemblies. Servotech helps clients determine deformation, fatigue, failure risk, and load distribution across materials and structures.

Thermal Analysis

Heat management is crucial, especially in electronics, automotive, and aerospace applications. Servotech performs steady-state and transient thermal analysis to understand how temperature affects structural integrity and material behavior.

Modal and Vibration Analysis

Servotech simulates natural frequencies, mode shapes, and harmonic response to evaluate how components behave under dynamic loading. This is vital for rotating machinery, engines, and structural components prone to vibration.

Buckling and Stability

For slender structures under compressive loads, Servotech conducts buckling analysis to determine critical loads and ensure structural stability in columns, panels, and frameworks.

Fatigue and Lifecycle Prediction

Using industry-standard fatigue models, Servotech estimates product lifespan under cyclic loading and recommends design modifications to enhance durability and longevity.

Multi-Physics Simulations

Combining FEA with other domains like CFD (Computational Fluid Dynamics) and electromagnetics, Servotech performs multi-physics analysis for advanced applications such as battery systems, thermal-fluid systems, and smart electronics.

Industries Benefiting from Servotech’s FEA Expertise

Automotive

From chassis design to crashworthiness analysis, Servotech assists automotive OEMs and suppliers in designing vehicles that are lighter, safer, and more efficient.

Aerospace

In a field where weight optimization and safety are paramount, Servotech offers structural, thermal, and vibration analysis for aircraft components and space systems.

Consumer Electronics

With the miniaturization of electronics, thermal and structural integrity becomes critical. Servotech helps design heat-resistant and robust enclosures, PCBs, and connectors.

Medical Devices

For surgical tools, implants, and diagnostic equipment, Servotech ensures mechanical safety and regulatory compliance through simulation-backed development.

Energy and Utilities

Whether it's stress testing of wind turbine blades or thermal analysis of power distribution systems, Servotech supports the renewable and conventional energy sectors in designing more reliable systems.

The Servotech Advantage: Smarter Engineering, Delivered

Choosing Servotech means you’re not just outsourcing a simulation—you’re gaining a partner who understands the end goal: better performance, lower costs, and faster innovation. Their collaborative approach ensures that simulation insights directly inform design improvements and product strategy.

Key differentiators include:

In-house expertise and fast turnaround

Cross-disciplinary engineering support

Proven track record across diverse industries

Confidential, secure handling of proprietary data

Transparent reporting and clear interpretation of simulation results

Client Success Stories

Case Study 1: Automotive Suspension Design Servotech helped a leading auto parts supplier reduce component weight by 15% without compromising safety by using dynamic and fatigue FEA to optimize geometry and material.

Case Study 2: Medical Device Durability A medical device startup collaborated with Servotech to validate a new surgical tool design. Using non-linear FEA, Servotech identified potential fracture points, allowing the client to redesign for longer lifespan and pass FDA testing faster.

Conclusion

In a world driven by innovation and efficiency, Servotech’s FEA services are redefining what’s possible in engineering. By integrating high-fidelity simulation with engineering know-how, they help businesses transform bold ideas into high-performance products.

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Servotech’s FEA CAD Expertise for Superior Engineering

In today’s fast-paced world of engineering, precision, accuracy, and efficiency are the keys to developing superior products. The integration of advanced simulation and design tools into the product development cycle is paramount to staying ahead of the competition. One such powerful tool is Finite Element Analysis (FEA), an essential part of Computer-Aided Design (CAD) that helps engineers predict how products will behave under various conditions. Servotech, a leader in the field of engineering solutions, stands out for its exceptional FEA CAD expertise, ensuring superior engineering outcomes. This article will explore how Servotech’s proficiency in FEA and CAD is revolutionizing the engineering industry, enhancing product design, and delivering innovative solutions.

What is FEA and CAD?

Before diving into Servotech’s FEA CAD expertise, it is important to understand what FEA and CAD are and how they contribute to superior engineering.

Finite Element Analysis (FEA)

Finite Element Analysis (FEA) is a computational technique used to predict how a product or material will react to forces, temperature changes, and other physical effects. It breaks down complex structures into smaller, simpler parts called "elements." These elements are analyzed for various physical attributes, such as stress, strain, and deformation, to understand how the entire structure will behave. FEA is widely used in industries such as aerospace, automotive, civil engineering, and more, to optimize designs and avoid costly failures.

Computer-Aided Design (CAD)

Computer-Aided Design (CAD) involves the use of software to create precise drawings and models of physical objects. CAD allows engineers to visualize and modify their designs digitally before manufacturing. CAD software enables engineers to simulate how products will interact with their environment, ensuring that the design meets all functional and aesthetic requirements. FEA is often integrated into CAD systems, allowing engineers to run simulations directly within their design environment, making the process more efficient and streamlined.

Servotech's Approach to FEA and CAD Integration

Servotech’s commitment to excellence is reflected in its seamless integration of FEA into CAD workflows. This fusion enhances design processes by providing a virtual testing ground for products, reducing the risk of errors and improving the overall design quality.

Advanced Simulation Tools

Servotech utilizes the latest FEA and CAD software tools to create highly accurate simulations. These tools enable the engineers to model complex geometries and perform simulations with a high degree of precision. The use of advanced tools like ANSYS, Abaqus, and Autodesk Inventor, coupled with Servotech’s expertise, allows for more detailed simulations of real-world conditions, which is critical for ensuring that designs meet all requirements for functionality and safety.

Multidisciplinary Expertise

Servotech’s team comprises multidisciplinary engineers with extensive experience across various industries. This broad expertise allows Servotech to approach engineering challenges from multiple perspectives. Whether the challenge lies in the automotive, aerospace, or industrial equipment sectors, Servotech’s engineers leverage FEA and CAD to ensure that designs are not only structurally sound but also optimized for performance, efficiency, and cost-effectiveness.

Customized Solutions

One of the key benefits of Servotech’s approach is its ability to provide tailored solutions for each client. Servotech understands that every project is unique, and therefore, they offer customized FEA and CAD simulations that cater to the specific needs of each client. By collaborating closely with clients, Servotech ensures that every detail is accounted for, delivering engineering solutions that meet the highest standards of quality and performance.

Benefits of Servotech’s FEA CAD Expertise

1. Enhanced Design Accuracy

The integration of FEA into the CAD workflow significantly improves design accuracy. Engineers can visualize how their products will behave under real-world conditions, allowing them to make adjustments before manufacturing. This reduces the likelihood of costly design errors and ensures that the final product meets or exceeds performance expectations.

2. Reduced Development Time

FEA and CAD integration accelerates the product development process by allowing engineers to test multiple design iterations in a virtual environment. Instead of building physical prototypes for every iteration, engineers can simulate the effects of different design choices and optimize the product based on the results. This leads to faster decision-making and reduced time-to-market.

3. Cost Savings

By utilizing FEA simulations, Servotech helps clients reduce development costs. Virtual testing allows for early identification of potential issues, which means that costly design modifications during later stages of production can be avoided. Additionally, optimizing designs through FEA can lead to more efficient use of materials, reducing manufacturing costs and waste.

4. Improved Product Performance

FEA helps engineers optimize product designs for maximum performance. By analyzing factors like stress, strain, vibration, and thermal effects, engineers can fine-tune their designs to ensure that products perform optimally under all expected conditions. Whether it is a high-performance automotive component or a critical aerospace part, FEA ensures that products meet the highest standards of reliability and durability.

5. Risk Mitigation

Through the use of FEA, Servotech can identify potential failure points early in the design process. This enables engineers to take corrective actions before the product reaches the manufacturing stage, significantly reducing the risk of product failures. Early detection of design flaws helps prevent costly recalls, reputational damage, and potential safety hazards.

6. Seamless Collaboration

FEA CAD integration facilitates better collaboration between design, engineering, and manufacturing teams. Engineers can share 3D models, simulations, and results with stakeholders in real-time, ensuring everyone is on the same page. This leads to smoother workflows, faster decision-making, and greater overall efficiency.

Servotech's FEA CAD Expertise in Practice

Servotech’s FEA CAD expertise has been proven across a wide range of industries, with notable examples of successful implementations.

Automotive Industry

In the automotive industry, Servotech’s FEA and CAD expertise plays a crucial role in designing high-performance components that must meet strict safety and durability standards. By utilizing FEA simulations, Servotech helps automotive manufacturers optimize parts like chassis, suspension systems, and body structures to withstand extreme conditions while ensuring minimal weight and maximum fuel efficiency.

Aerospace Sector

For the aerospace industry, where precision and safety are paramount, Servotech’s FEA CAD solutions are invaluable. The ability to simulate stress, fatigue, and thermal effects on critical aerospace components allows engineers to design parts that meet strict regulatory standards while also optimizing for weight and performance.

Industrial Equipment

Servotech also works with manufacturers of industrial equipment, helping them optimize designs for everything from pumps and turbines to heavy machinery. FEA simulations allow for detailed analysis of load distribution and material strength, ensuring that the final product is both robust and cost-effective.

Conclusion

Servotech’s FEA CAD expertise is a game-changer for engineers looking to optimize their product designs. By integrating FEA simulations into the CAD workflow, Servotech helps businesses reduce development time, minimize costs, and improve product performance. Their multidisciplinary expertise, advanced simulation tools, and customized solutions ensure that clients receive high-quality engineering outcomes that exceed expectations. As the demand for more advanced and reliable products grows, Servotech remains at the forefront of innovation, driving superior engineering solutions through the power of FEA and CAD integration.

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Master Abaqus CDP Learn Structural Analysis with Abaqus Online Training

As in most engineering disciplines, it is crucial with structural engineering to have the correct tools to optimise the design. Today, one of the most popular FEA software among engineers is Abaqus, primarily known for its important features like structural analysis. Abaqus CDP (Concrete Damage Plasticity) is a powerful feature of the software that helps engineers predict the behaviour of concrete under stress, including cracking, plasticity, and failure. If you want to improve your skills in structural analysis and finite element analysis (FEA), Abaqus training online can help you to increase your expertise to the next level.

Why Abaqus is Vital to Structural Analysis 

Abaqus is used in Structural Analysis to determine how structures behave under different loads such as static, dynamic and temperature loads. With Abaqus CDP, engineers can simulate concrete behaviour in structures like buildings and bridges, ensuring they remain safe and strong. The Abaqus CDP model helps accurately simulate concrete cracking and failure, which is important when designing stronger concrete beams and prestressed concrete columns. This makes wiser decisions, helps engineers avoid mistakes, and enhances project performance.

Many of the capabilities of the Abaqus software exceed the functionality of classical engineering applications. They found that it offers practical uses in structural analysis because it allows one to perform a finite element analysis of material behaviour. This training will equip you with useful knowledge if you are interested in learning how to go about with Abaqus for structural analysis.

What Will You Learn in Abaqus Structural Analysis Training?

By enrolling in the Abaqus structural analysis training program, you'll gain real-world hands-on experience using this online software. Here's what you can expect from the program:

Material Behavior Simulation: Learn how to experiment and do an analysis that reveals elastic and plastic deformation under the stress of different materials.

Concrete Damage Plasticity (CDP) Model: Learn ways of modelling concrete cracking, damage and failure under varying loading conditions in Abaqus CDP.

Modeling Concrete Structures: Read more on stronger concrete and prestressed concrete structures and the design of beams and columns.

Mesh Convergence: Learn how to enhance the consistency of your results by making more precise mesh concepts in the Abaqus software.

Static and Dynamic Load Analysis: Control the forces for structures of static and dynamic loadings in correlation with Abaqus for structural analysis.

In this course, you will explore live online classes, professional trainer support, and practical assignments to master the best practices in Abaqus software.

Why Should Abaqus Be Learned by Structural Engineers?

Comprehensive Knowledge of Abaqus: Learn how to simulate material behaviour in your designs using Mastering Abaqus CDP.

Real-World Application: Learn the practical application of Abaqus for conducting structural analysis in structures based on real-life projects particularly the analysis of stronger concrete and prestressed concrete structures.

Career Advancement: Abaqus training is possible online, and doing this will equip you with tools essential in the highly demanding structural engineering sector.

Cost-Effective Designs: It was deduced that the utilization of the Abaqus enables engineers to arrive at superior decisions in actual structural Analysis design projects, especially in relation to the conservation of unnecessary material usage and overall project cost.

Start Learning with Pigso Learning and Boost Your Career

At Pigso Learning, we have developed the Abaqus CDP training resources that are suitable for practising engineers who want to learn the next level of structural analysis. Beginners or those who already have some knowledge, we provide the best Abaqus online courses to enhance your knowledge.

In our courses, our instructors have industry experience to provide you with quality training information in Abaqus software. More than that, at the end of the course, with positive results, you will be awarded a certificate in this field, enhancing your chances of getting promotions at work.

Ready to take your career to the next level? Enroll in our Abaqus Structural Analysis Training Today!

If you have had an opportunity to attend Pigso Learning courses and you are ready, then you are set to become an expert in Abaqus CDP and structural analysis. By registering with our Abaqus courses online you will acquire practical skills and knowledge to solve various engineering problems. 

Follow this to learn more about Abaqus Structural Analysis Training and step-by-step guide on a path of being an expert in Structural Analysis using Abaqus software.

[simutechgroup]

Understanding Structural Analysis: Ensuring Safety and Stability in Engineering

Structural analysis is a critical component of engineering, assessing how forces, loads, and environmental factors impact structures such as buildings, bridges, vehicles, and even aircraft. It allows engineers to predict how a structure will respond under various conditions and identify any potential weak points. This analysis is essential to design structures that are not only functional and efficient but also safe and resilient. This blog explores the fundamentals of structural analysis, its importance, methods, and key applications in modern engineering.

What is Structural Analysis?

At its core, structural analysis involves evaluating how structures will respond to various stresses, including loads, forces, and environmental impacts such as wind or temperature changes. The goal is to ensure that structures can safely withstand these stresses without failing or collapsing. Engineers use mathematical models, material science principles, and physics to analyze structural performance, ultimately guiding them in designing safe, efficient structures.

There are two main types of structural analysis: static and dynamic. Static analysis examines forces that remain constant over time, such as the weight of materials or permanent fixtures, while dynamic analysis considers time-varying forces, such as wind gusts or seismic activity. By applying these methods, engineers can accurately predict how a structure will behave under both regular and extreme conditions.

Importance of Structural Analysis

Structural analysis is crucial because it helps prevent catastrophic failures that could lead to property damage, injuries, or even loss of life. Inadequate structural integrity has led to numerous structural failures in history, underscoring the importance of careful analysis in engineering. Through rigorous structural analysis, engineers can identify weaknesses in the design phase and make necessary adjustments to reinforce stability and strength, ultimately reducing maintenance costs and extending the lifespan of the structure.

Moreover, structural analysis is key to meeting regulatory standards. Many countries have strict building codes that require structures to meet specific safety standards. Structural analysis helps ensure compliance with these regulations, avoiding legal issues and potential liabilities.

Methods of Structural Analysis

Several methods are used in structural analysis, each with distinct approaches to calculating stresses, deformations, and potential failure points:

Finite Element Analysis (FEA): FEA analysis is one of the most popular and precise methods used in modern structural analysis. By breaking down a complex structure into smaller, manageable sections (finite elements), FEA enables detailed simulation of how each part responds to loads and stresses. FEA is especially useful for analyzing complex shapes and materials, such as those used in aerospace and automotive industries.

Analytical Methods: These are traditional approaches involving mathematical equations and formulas to calculate stresses, loads, and deflections. Though useful for simpler structures, analytical methods can be limited in complexity and accuracy compared to FEA.

Matrix Methods: Matrix methods are computational techniques that allow for efficient analysis of multi-component structures, such as trusses or frameworks. These methods are highly useful for large structures with repetitive elements, providing a balance of accuracy and efficiency.

Computer-Aided Structural Analysis: With advancements in technology, computer software has become an essential tool in structural analysis. Programs such as ANSYS, SAP2000, and Abaqus offer engineers robust simulation environments where they can test structural responses under various load conditions quickly and accurately.

Applications of Structural Analysis

Structural analysis finds applications across numerous fields, from civil and mechanical engineering to aerospace and automotive design:

Buildings and Bridges: Engineers use structural analysis to ensure the safety and durability of buildings and bridges. It helps determine the correct materials and designs to withstand expected loads, such as the weight of occupants and environmental forces like earthquakes or heavy winds.

Aerospace and Automotive Industries: In aerospace and automotive engineering, structural analysis is used to create lightweight, strong materials and designs that can withstand high-speed impacts, pressure changes, and extreme temperatures.

Energy Sector: Offshore oil rigs, wind turbines, and solar panel installations rely on structural analysis to withstand harsh weather, wave forces, and fluctuating loads, ensuring reliable operation in challenging environments.

Conclusion: The Foundation of Safe Design

Structural analysis plays a vital role in modern engineering, providing the insights needed to design safe, reliable, and efficient structures. By applying rigorous analysis methods, engineers can foresee potential issues and optimize designs to prevent failure. As technology continues to advance, structural analysis will become even more precise, further enhancing safety and innovation across various industries.

[education3244]

Top Geotechnical Software Tools You Should Know

In geotechnical engineering, using the right software is very important. These tools help engineers analyze soil, tunnels, slopes, and foundations more accurately and quickly. This infographic shows some of the top geotechnical software tools used today, like PLAXIS, ABAQUS, FLAC, and more.

If you're a student, researcher, or working professional, learning how to use these tools can improve your skills and open up new opportunities. Visit PIGSO LEARNING to explore expert-led courses and industry-relevant resources.

📘 Learn With Us:

Join our PLAXIS 2D/3D Training Course Online to understand soil-structure interaction and real-world analysis.

Take our Abaqus Training Course Online to learn advanced simulations and FEA methods.

Read our blog to learn more: Finite Element Analysis in Geotechnical Engineering

[educationtech]

Top 20 Business Ideas for Mechanical Engineers in India - ACEIT

There are many colleges but Arya College of Engineering & I.T. is The Best Mechanical Engineering college in Jaipur. Here are some of the most promising and profitable business ideas for mechanical engineers looking to start their own company: Solar Panel Design and Installation The solar panel installation business is rapidly growing due to the increasing need for renewable energy sources. As a mechanical engineer, you have the knowledge and expertise to design, analyze, install, commission, maintain and repair solar systems. You can provide valuable services such as site assessments, energy efficiency evaluations, and detailed feasibility analyses. Develop customized solar panel designs based on the customer's needs and budget to maximize their return on investment. Start by outsourcing solar panel products and offering supply and installation services. Work with developers and installers to bring renewable energy projects to life. The initial startup cost for a small solar company is around $10,000, and you can make an estimated $5,000 to $10,000 per installation. Computer-Aided Design (CAD) Services CAD service businesses are becoming increasingly popular in the engineering and construction industries. Starting a CAD business requires a basic understanding of computer-aided design software and related tools. The minimum startup costs would be around $2,000, and you could make approximately $8,000 per month, depending on the complexity of the projects. You'll need a computer, monitor, printer, scanner, drafting table, chair, and CAD software like AutoCAD or SolidWorks. You may also need other components to help view 3D models or 3D printing. To run a successful CAD business, you must stay on top of the latest trends & advancements in computer-aided design technology, be familiar with established industry standards, and have excellent communication skills to understand client requirements. Finite Element Analysis (FEA) Consulting Starting an FEA consulting business can be an excellent way to provide expert services. FEA is a computer-based method of simulating real-world behavior that engineers use to solve complex problems related to structural design, product testing, and manufacturing processes. You'll need to be knowledgeable about various types of FEA software, such as ANSYS, ABAQUS, or NASTRAN. Establish a portfolio of successful projects, build a strong network, and market your services to potential clients in industries like automotive, aerospace, and consumer products. Mechanical Design Consultancy

As a mechanical design consultant, you can offer your expertise to help clients develop new products or improve existing ones. Provide services such as conceptual design, detailed design, prototyping, and testing. Stay up-to-date with the latest design software, manufacturing processes, and industry standards. Build a strong portfolio showcasing your design skills and experience. Market your services to startups, small businesses, and larger companies looking for outsourced design support. Product Design for Private Labelers

Private labeling is a growing trend in e-commerce, where companies sell products under their brand name but outsource the manufacturing. As a mechanical engineer, you can provide product design services to private labelers. Help them develop innovative and cost-effective products that meet market demands. Offer services such as concept development, 3D modeling, prototyping, and design for manufacturability. Build relationships with manufacturers and private labelers to secure ongoing design projects 3D Printing Services 3D printing, also known as additive manufacturing, is revolutionizing the way products are designed and manufactured. As a mechanical engineer, you can start a 3D printing service bureau to help clients create prototypes, custom parts, and small-batch production runs. Invest in high-quality 3D printers, such as FDM or SLA machines, and offer a range of materials like PLA, ABS, or resin. Provide design assistance, file preparation, and post-processing services. Market your services to product designers, engineers, and small businesses looking for fast and affordable 3D printing solutions. CNC Machining Services CNC (Computer Numerical Control) machining is a manufacturing process that uses computer-controlled machine tools to create precise parts and components. As a mechanical engineer, you can start a CNC machining business to serve clients in various industries. Invest in CNC mills, lathes, and other specialized equipment. Offer services such as prototyping, short-run production, and custom machining. Build relationships with designers, engineers, and procurement managers to secure projects. Stay up-to-date with the latest CNC technologies and programming techniques to remain competitive. HVAC Services Heating, ventilation, and air conditioning (HVAC) systems are essential for maintaining comfortable indoor environments. As a mechanical engineer, you can start an HVAC services business to design, install, and maintain these systems for residential, commercial, and industrial clients. Offer services such as load calculations, system design, ductwork fabrication, and preventive maintenance. Obtain the necessary licenses and certifications, and invest in tools and equipment. Build a team of skilled technicians and market your services to property managers, facility owners, and construction companies. AC Repair Business Air conditioning repair is a service-oriented business that can be profitable for mechanical engineers. Offer repair and maintenance services for residential and commercial AC units. Invest in tools, equipment, and diagnostic software. Obtain the necessary licenses and certifications, and stay up-to-date with the latest AC technologies. Build a team of skilled technicians and market your services through online directories, local advertising, and word- of-mouth referrals. Nuts and Bolts Supplier Nuts and bolts are essential industrial fasteners used in machines, structures, and products. Starting a nuts and bolts manufacturing or supply business can be a profitable venture for mechanical Engineers. Invest in the necessary machinery and equipment, and build relationships with manufacturers and distributors. Offer a wide range of sizes, materials, and finishes to cater to various industries. Market your products to small and medium-sized enterprises looking for reliable suppliers. These are just a few examples of the many profitable business ideas available for mechanical engineers. The key is to leverage your technical expertise, identify market needs, and develop a solid business plan. Seek advice from experienced entrepreneurs, attend industry events, and continuously learn and adapt to succeed in your chosen venture.

[extremeloading]

Understanding Nonlinear Structural Analysis: A Modern Engineering Necessity

Nonlinear Structural Analysis is a crucial technique in modern structural engineering, offering a more realistic understanding of how buildings and infrastructure behave under complex loading conditions. Unlike linear analysis, which assumes that structural responses are directly proportional to the applied loads, nonlinear analysis considers the actual behavior of materials and structures, which often involves yielding, cracking, and large deformations. This method allows engineers to capture the true performance of structures, especially under extreme conditions such as earthquakes, high winds, or heavy dynamic loads.

One of the key benefits of Nonlinear Structural Analysis is its ability to improve the accuracy and reliability of structural designs. By accounting for material nonlinearity (such as plasticity in steel or cracking in concrete) and geometric nonlinearity (like buckling or large displacements), engineers can predict potential failure mechanisms and design structures that are both safer and more efficient. This analysis is essential in high-stakes projects like bridges, skyscrapers, dams, and industrial facilities, where safety margins must be thoroughly evaluated and optimized.

The use of advanced simulation tools like ABAQUS, ANSYS, and SAP2000 has made Nonlinear Structural Analysis more accessible and powerful. These tools allow for detailed modeling and visualization of structural behavior under various load scenarios, helping engineers make informed decisions during the design process. As architectural designs become more ambitious and performance requirements increase, the role of nonlinear analysis continues to grow, shaping the future of resilient and sustainable engineering solutions.

Discover more on the topic by visiting our blog - https://medium.com/@extremeloadingnc/understanding-nonlinear-structural-analysis-a-modern-engineering-necessity-3fb88ca14388

[vikas22sd]

Best CFD Courses in the UK — Learn with FlowThermoLab

Computational Fluid Dynamics (CFD) and engineering simulation play a crucial role in industries such as aerospace, automotive, energy, and manufacturing. Whether you’re an engineer, researcher, or student, mastering tools like ANSYS Fluent, OpenFOAM, and STAR-CCM+ can significantly enhance your career prospects. FlowThermoLab, a leading provider of CFD and thermal analysis solutions, offers specialized training programs in the UK to help professionals gain hands-on expertise in these advanced simulation tools.

1. ANSYS Fluent Course & Training in the UK

ANSYS Fluent is one of the most widely used CFD software for fluid flow, heat transfer, and combustion simulations. FlowThermoLab provides industry-focused ANSYS Fluent training, covering topics such as turbulence modeling, multiphase flows, and meshing techniques. Whether you’re a beginner or an advanced user, our courses are designed to help you apply ANSYS Fluent to real-world engineering problems.

2. Scientific Programming with Python for CFD in the UK

Python is an essential tool for automating CFD simulations, post-processing data, and integrating with software like OpenFOAM and ANSYS. FlowThermoLab’s Scientific Programming with Python course is tailored for engineers and researchers looking to enhance their coding skills for computational modeling and analysis.

3. Advanced Fluid Dynamics Training in the UK

Understanding the fundamental principles of fluid mechanics is essential for accurate CFD simulations. FlowThermoLab’s Advanced Fluid Dynamics course dives deep into topics like turbulence modeling, compressible and incompressible flows, and boundary layer theory. This course is ideal for professionals aiming to strengthen their theoretical knowledge and apply it in industry settings.

4. OpenFOAM Course in the UK

OpenFOAM is a powerful open-source CFD toolbox, widely used in academia and industries for flow simulations. FlowThermoLab’s OpenFOAM training program provides hands-on experience in setting up cases, mesh generation, solver selection, and post-processing results. Our course is designed to help engineers master OpenFOAM and implement it effectively in research and industrial applications.

5. CFD and FEM Courses in the UK

Flow and structural analysis often go hand in hand in engineering simulations. FlowThermoLab offers integrated CFD and Finite Element Method (FEM) courses, teaching engineers how to analyze fluid-structure interactions, thermal stresses, and mechanical deformations using industry-standard software.

6. CAE Courses for Mechanical Engineers in the UK

Computer-Aided Engineering (CAE) is essential for optimizing product design and performance. FlowThermoLab provides CAE training for mechanical engineers, covering simulation techniques for heat transfer, structural integrity, and aerodynamics using software like ANSYS, Abaqus, and COMSOL.

7. STAR-CCM+ Course in the UK

STAR-CCM+ is widely used for multiphysics simulations in industries like automotive and aerospace. FlowThermoLab’s STAR-CCM+ course teaches engineers how to perform high-fidelity simulations, optimize designs, and analyze complex physics using state-of-the-art solvers and visualization tools.

Why Choose FlowThermoLab for CFD Training in the UK?

Expert Instructors: Learn from experienced CFD professionals with industry expertise.

Hands-on Training: Practical exercises and real-world case studies.

Flexible Learning: Online and in-person training options available.

Industry-Relevant Skills: Gain skills applicable to aerospace, automotive, and energy sectors.

Conclusion

Investing in CFD, FEM, and CAE training can open new career opportunities and improve your technical expertise. FlowThermoLab’s specialized courses in the UK provide hands-on learning to help engineers, researchers, and students excel in engineering simulation.

Enroll today with FlowThermoLab and take your CFD skills to the next level!

[enteknograte]

FEA & CFD Based Design and Optimization

Enteknograte use advanced CAE software with special features for mixing the best of both FEA tools and CFD solvers: CFD codes such as Ansys Fluent, StarCCM+  for Combustion and flows simulation and FEA based Codes such as ABAQUS, AVL Excite, LS-Dyna and the industry-leading fatigue Simulation technology such as Simulia FE-SAFE, Ansys Ncode Design Life to calculate fatigue life of Welding, Composite, Vibration, Crack growth, Thermo-mechanical fatigue and MSC Actran and ESI VA One for Acoustics.

Enteknograte is a world leader in engineering services, with teams comprised of top talent in the key engineering disciplines of Mechanical Engineering, Electrical Engineering, Manufacturing Engineering, Power Delivery Engineering and Embedded Systems. With a deep passion for learning, creating and improving how things work, our engineers combine industry-specific expertise, deep experience and unique insights to ensure we provide the right engineering services for your business

Advanced FEA and CFD

Training: FEA & CFD softwares ( Abaqus, Ansys, Nastran, Fluent, Siemens Star-ccm+, Openfoam)

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Metal Forming Simulation: FEA Design and Optimization

Metal Forming Simulation: FEA Based Design and Optimization FEA (Finite Element Analysis) in Metal Forming Using advanced Metal Forming Simulation methodology and FEA tools such

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Medical Device

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Materials & Chemical Processing Simulation and Design: Coupled CFD, FEA and 1D-System Modeling Enteknograte’s engineering team CFD and FEA solutions for the Materials & Chemical

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Marine and Shipbuilding Industry: FEA and CFD based Design

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FEA / CFD for Aerospace: Combustion, Acoustics and Vibration

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[vias3d]

MpCCI - VIAS3D - 3DEngineering

The MpCCI interface software is a vendor neutral solution for co-simulation and file based data transfer supporting commercial and research simulation tools in different engineering disciplines.

(1) Software Neutral Solution

The MpCCI interface software is a vendor/ software neutral solution for co-simulation and file-based data transfer.

(2) Best Platform

The MpCCI solution is the best platform for bi-directional co-simulation as well as uni-directional mapping of simulation results in process chains.

(3) Supports Simulation Tools

MpCCI supports a growing number of commercial as well as research simulation tools in different engineering disciplines.

MpCCI Coupling Environment

Bi-directional coupling of simulation codes

The MpCCI Coupling Environment provides an application independent interface for the direct coupling of different simulation codes. Within the MpCCI Coupling Environment, engineers can combine several ready to use models, define the application field and choose for the best-fit coupling method.

MpCCI Coupling Environment has already successfully been used in various application domains:

* Fluid-Structure-Interaction for Aero-Elasticity and flexible Components in Machinery Design

* Thermal Stress and Vibrations in Turbomachinery Applications

* Combined System and 3D Continuum Models for Vehicle and Machine Dynamics

* Coupled Fluid and Radiation for Automotive Thermal Management

* Thermal and Magneto-Hydrodynamic Effects in Electrical Components

* Fluid-Structure-Interactions in Bio-Medical Applications

(1) Structural Analysis

Abaqus [6.14, 2016, 2017]

ANSYS Mechanical [14.5, 15.0, 16.0 – 16.2, 17.0 – 17.2, 18.0]

MSC.Nastran [2013.0, 2014.0, 2014.1, 2016.0, 2016.1, 2017.0]

MSC.Marc [2013, 2013.1, 2014, 2014.1, 2014.2, 2015, 2016]

(2) System Modelling

MATLAB [R2013b, R2014b, R2015a, R2016b]

MSC.Adams [2013 – 2013.2, 2014, 2015 – 2015.1, 2016, 2017]

SIMPACK [9.7, 9.8.1]

FMI for co-simulation (under development)

(3) Electro-magnetics

ANSYS Emag [14.5, 15.0, 16.0 – 16.2, 17.0 – 17.2, 18.0]

FLUX [10.3 – on demand]

JMAG [13.0, 13.1, 14.0, 14.1, 15.0, 15.1]

(4) Fluid Dynamics

ANSYS ICEPAK [14.5, 15.0, 16.0 – 16.2, 17.0 – 17.2, 18.0]

ANSYS Fluent [14.5, 15.0, 16.0 – 16.2, 17.0 – 17.2, 18.0]

FINE/Open [4.1 – 4.3, 5.1, 5.2, 6.1]

FINE/Turbo [9.1-1 – 9.1-3, 10.1, 10.2, 11.1]

OpenFOAM [1.7, 2.0 – 2.4, 3.0, 1606+, 1612+]

STAR-CCM+ [9.02 – 9.06, 10.02 – 10.06, 11.02 – 11.06]

STAR-CD [4.16, 4.18, 4.20, 4.22]

(5) Radiation

RadTherm / TAITherm [11.0 – 11.3.2, 12.0 – 12.2]

Flowmaster [7.6, 7.7, 7.8, 8.0, 8.1, 9.0, 9.2]

(6) Programming Interface

Fully documented programming interface (C/C++, F77) to adapt further inhouse or research codes to MpCCI CouplingEnvironment.

MpCCI Fsimapper

Mapping of fluid results into structural analysis applications

The MpCCI FSIMapper reads various CFD export formats as well as input decks for Abaqus, Ansys, and Nastran.

Quantities that can be read and mapped include film temperature, wall heat transfer coefficient, the wall heat flux, standard and complex pressure, and force densities.

Mapped quantity values can be then simply imported into the Abaqus or Nastran models.

Furthermore, it is possible to compare two geometries with the MpCCI FSIMapper.

Major Features

* File-based mapping solution

* Robust and efficient algorithms

* Handling non-matching geometries

* Automated model positioning

* Fourier Transformation

* Handling cyclic symmetric geometries

* Volume based temperature fields

* Interactive visualization

* Batch capability

The MpCCI FSIMapper supports a growing number of CFD export file formats and input formats for CSM.

(1) CFD

* Source Formats

ANSYS Fluent (.cas, .dat)

ANSYS CFX (.csv)

EnSight Gold (.case)

FINE/Turbo (.cgns)

FloTHERM, FloTHERM XT

FloEFD

* Quantities

Pressure

Heat flux

Temperature

Film temperature, heat coeff.

(2) EM

* Source Formats

MagNet (.vtk)

JMAG (.bdf)

* Quantities

Force

(3) FEM

* Target Formats

Abaqus

ANSYS Mech.

MSC Nastran

* Target Analyses

Deformation

Stress

Heat transfer

NVH

Fatigue

MpCCI Mapper

Transfer of manufacturing history in metal forming applications

The MpCCI Mapper checks the geometric compliance of models by calculating the local distances between them. Automatic mesh alignment helps to adjust the positions of models if they are not in a non-conformal coordinate system.

A robust mapping algorithm enables the transfer of various physical quantities (with nodal-, element- or shell-layer based locations) for all standard shell element and mesh types. The mapping works for different integration types as well as for different number of integration points in thickness direction for source and target model.

Major Features

Automatic Model Positioning

Mapping

Validation

Analysis

Post Processing

The MpCCI Mapper supports most of the leading file formats for forming/stamping, structural analysis, and crash behaviour. The MpCCI Mapper also supports a growing number of formats for (photogrammetric) measurement tools.

(1) Forming

Supported Simulation Disciplines And Codes

LS-Dyna

PAMStamp

AutoForm

RADIOSS

Indeed

Forge

(2) Crash

LS-Dyna

PAMStamp

RADIOSS

Abaqus

ANSYS Mech.

MSC.Nastran

(3) Welding

Abaqus

ANSYS Mech.

Sysweld

(4) Mechanical

Supported Quantities

Thickness

Stress

Strain

Plastic strain

Pressure

Local material properties

(5) Thermal

Temperature

MpCCI Arclib

Model library for electric arc simulations using ansys emag and ansys fluent

The MpCCI ArcLib provides the capability to model the phenomenon of electric arc.

This is provided as an add-on MpCCI CouplingEnvironment for the electric arc simulation based on ANSYS Emag and ANSYS Fluent solvers.

A best practice co-simulation algorithm is included in the package. The application framework supports different strategies to model the contact motion such as remeshing arcing area during the calculation, using a set of predefined meshes to guarantee a minimum cell quality over the simulation.

Beside co-simulation enhancement, the tool includes the standard approximations for arc modeling used in industry:

* Material properties computed in the LTE approximation

* Enhancement of standard radiation model implemented in flow solver

* Interaction of the arc with the electrodes (arc roots)

Contact Us:

16000 Park Ten Place,

Suite 301,

Houston, TX 77084.

Phone: +1 (832) 301-0881

Email: info@vias3d.com