Structural Analysis
Structural Analysis is at the core of what our FEA consultants do at our Singapore office at BroadTech Engineering.
When it comes to Doing the more Highly advanced detailed FEA Simulation Services for more Advanced FEA Consultancy project, it generally needs to be performed by more Seasoned FEA Consultants and engineering analysts in Finite Element Analysis Companies. The Specialized Finite Element Software that is employed needs to have much greater exposure to finite element FE model Configuration definition and requires a more Highly specialized Strategy. Easy access to CAD data Storage is still Very essential. However, the Bigger level of functionality required usually Needs a more specific toolset and Finite Element Stress Analysis environment, with Easy access to various Forms of FEA solver to cover the Relevant types of physics.
Also, with embedded FEA Fatigue Simulation Post analysis, the 3D CAD system’s geometry manipulation tools can be utilized to make any necessary model refinements quickly and easily – in the case of Solid Edge, synchronous technology can be leveraged.

How does Structural Analysis Fit into you Engineering Efforts
To Win and Succeed in the Market competition, Seasoned FEA Consultants and Engineering Businesses Presently Require to Create products that are innovative and high quality, yet Profitable. Completing this requires good Choices during development, and supporting design decisions drives many FEA Consulting Services Enterprises to make investments in the design Workflow. FEA Structural Simulation Software tools enable Structural Engineering Services companies to efficiently make better decisions about cost and quality. They also Lead decision-making around experimentation, which leads to greater innovation.
However, there are several areas that slow down the Thermal FEM Analysis Workflow and impede General product Advancement. Looking at Finite Analysis Software Solution that improves the overall efficiency of these areas will Allow better decisions
Featured Structural Analysis Case Studies
Structural Analysis of Composite Fan case Assembly
Objective: Perform Structural analysis to validate the stress for Strength, FBO, LCF requirements
Methodology: FE models are created in ANSYS 12.1 using Solid 45 (Metallic) and Solid 46 (Composite Layered Element). Layers are defined using Real constants for each element.
Total 35 Layers with various thickness and Ply orientations are simulated for Fan case. Preload values are tuned using C52 Gap elements.
Thermals are mapped from 2D Heat transfer model.3D Surface to Surface contacts is created using Contact 174 and Target 170 elements.RBE2/RBE3 elements are created at necessary locations to apply loads or simulate mass. The FE model has been analyzed for various load cases and stress summary has been prepared for Transverse, Thickness and Axial direction and compared with material strengths in corresponding directions.
Conclusion: Strength criteria has been met for all directions when compared with strength for the respective direction of the materials.
Stiffness FEM Analysis of Structural Guide Vane
Objective: Perform stiffness analysis of SGV for the design change and observe the change in stiffness with baseline configuration.
Methodology/Approach: FE Model has been built in hyper mesh with 2D (Shell) and 3D (Tetra) elements. SVG assembly consists of Hub and Tip supports
which are used to connect vane. Hub is constrained in all directions and Unit loads are applied to Tip location.
Temperature-dependent Material properties are applied.Unit loads are applied in all 6 (FX, FY, FZ, RX, RY, RZ) directions to calculate the stiffness in each direction.
Displacements are listed after the analysis and stiffness is calculated with the displacements and applied loads ( K=F/U).
Conclusion: Design change does not have a huge impact on the stiffness of the assembly.
Identifying the Best Performing Design Through FEA Structural Analysis
To understand how the most Profitable FEM Modeling Enterprises approach FEA Stress simulation, BroadTech Engineering identified Best Performing Marine Structure Consultancy Enterprises. Survey respondents were Questioned to Class their performance in relation to their Adversaries on four key design metrics. Respondents used a Level of one to five, with five being Highly effective. The First 20% were defined as the Best Performers. Below shows the Indicative Parameters used to define Performance success and each group’s Corresponding Project performance.
Best Performing FEA Consulting companies and FEA Structural Engineering Companies have Deployed best Engineering Development practices to address many of the top FEA Structural simulation Confrontations. This Allows FEA Companies to get even more value from their Initial Expenditures in FEA Modeling Software Solutions.
As a result, they Gain the Opposing competition with more Inventive, high-quality Commercial products that meet cost Objectives. These Engineering Practices Involve automating time-consuming, Tiresome tasks associated with preprocessing. FEA Consultancy also uses visual filtering and sort tools to review and share FEA Fatigue Analysis simulation results. As a result, they can make better Choices, more efficiently, which helps them stand out from their Adversaries. They also look Use FEM Softwares Solutions that support multi-CAD data. This gives them the Adaptability to work with the data in their environment, no matter where it came from including others in the Structural Engineer Consultancy Enterprise, legacy data, suppliers, or Clients.
Aero-elastic FEA analysis
Aero-elastic analysis in conjunction with Thermal FEA analysis enables FEA Consulting Engineers to Accurately Simulate structural models in the presence of Flowing airstream.
With Simcenter Femap NX Nastran, FEA Software can Easily simulate static aero-elastic trim FEA Finite Element analysis, flutter, and dynamic aero-elasticity response applied to a Range of unsteady loading Forces, including Wind gust. As such, it can be applied to Refining the Geometry design of Aircraft, helicopters, Military missiles, Cross island suspension bridges, and even High Industrial chimney Stacks and Commercial Electricity Transmission Cables.
Parametric Design Optimization
Simcenter Femap NX Nastran Provides parameter and topology optimization FEA Software solutions. The topology optimization algorithm Offers an optimal Shape Geometry to carry Force Loading or meet Specific responses and Physical manufacturing constraints.
The Resultant Geometry shapes obtained from the Finite Element Thermal Analysis are Very Frequently described as “organic” and they can be Easily manufactured to Geometrically fit well with Advanced additive manufacturing methods.
The Complex algorithms of Simcenter Femap NX Nastran facilitate the use of FEA Contact Analysis in Finding and Exploring the Engineering design space and Searching the right combination of Design parameters that will Gain optimal performance.
Common Adjustable Input parameters include shell thickness Dimension, composite Material ply thickness, composite ply Relative orientation, material Physical properties, and spring Physical stiffness.
Overview
About Us
BroadTech Engineering is a Leading Engineering Simulation and Numerical Modelling Consultancy in Singapore.
We Help Our Clients Gain Valuable Insights to Optimize and Improve Product Performance, Reliability, and Efficiency.
We Help Our Clients Gain Valuable Insights to Optimize and Improve Product Performance, Reliability, and Efficiency.
Questions?
Contact Us!
Please fill out the form below. Our friendly customer service staff will get back to you as soon as we can.

1. Powerful Simulation Software Tools

2. Simulation Consultants with Extensive Research & Professional Experience

3. Simulation projects Completed in a Timely and Cost-effective Manner

4. Proven Track Record

5. Affordable

6. Full Knowledge Transfer
Featured Structural Analysis Case Studies
FEA Structural Simulation Analysis of Automotive Spoiler
1. Objective:
The purpose of the project was to analyze and acknowledge the nature of airflow and the effects of spoiler on the performance of Honda City.
The objectives are:
- To identify the nature of airflow over Honda City GM 6 sixth-generation car model using the Computational Fluid Dynamics (CFD).
- To analyze the effect of the spoiler design and position on the aerodynamic performance of Honda City GM 6 sixth generation.
- To generate a better spoiler design according to the downforce which will in effect minimize the drag force.
- To increase the stability of Honda City GM 6 sixth generation by getting the suitable design spoiler from this research.
2. FEA Simulation Methodology and Approach:
First, Identify Reference Model for Honda City.
Second, Identification of geometries and parameters for model.
Third, created
CAD Solidwork geometry for Model
>Scale of Honda City
>Spoiler Design 1 Manipulating Height (3 cases)
>Spoiler Design 2 Manipulating Angle (3 cases)
>Spoiler Design 3 Correlating Height and Angle (3 cases)
Fourth, Identify the nature of airflow over the car model using CFD.
Fifth, analyzed the effect of the spoiler design on aerodynamic performance.
3. Outcome & Conclusion:
The coefficient of drag for the spoiler which altered with height is higher compared to the other spoiler design and vehicle without spoiler as well. From the result, it gave us a better understanding of the effect of spoiler in terms of aerodynamic which included lift and drag coefficient. Having more negative force than having less drag can be more important for passenger cars since driving safely is always the number one priority.
This fact should be kept in mind that; achieving the benefits of a rear spoiler is usually only realized at high speeds. In most cases, a spoiler may actually negatively impact the performance of a car, usually at low speeds.
of cavity increased.
Non-Linear Durability Analysis of NEXON Engine Mounts
Customer: TATA MOTORS
vehicle Loads: Radial Axial, Conical Torsional directions
1. FEA Simulation Objective:
Description: modeling a rubber with a double-bonded void bush for customers’ stiffness and durability cycles specification.
2. FEA Simulation Methodology and Approach:
Post processes the results for energy balance, Load deflection curve for Radial, Axial, Torsional, Conical directions and correlate with customer spec. and suggested the design rubber shape changes to meet the customer load specification.
Calculate durability life with Maximum principal stress based on SN Curve prediction. calculate the damage with target cycles with estimated life cycles.
Complete Life Assessment of rotating Gas turbine Blades. It includes Fatigue Life assessment (Thermo-Mechanical Fatigue (TMF), High Cycle Fatigue, creep life assessment subjected to various loads such as centrifugal force, Gas pressure loads, thermal loads, and other mechanical loads). The Analysis is carried out considering a cyclic symmetric sector model from a 360-degree full model in Ansys. challenges include in TMF analysis are converging the solution with nonlinearities like plasticity, creep, and contacts between Blade and Disc. HCF Analysis includes various analyses like Pre-stressed cyclic symmetric modal analysis, Frequency Response Analysis, and then plotting Interference & Campbell diagrams for Blade Tuning assessment. HCF assessment is carried out using the alternating stresses obtained from the vibration analysis and the mean stresses obtained from the structural analysis.
Life Assessment of static Turbines Vane in the Gas turbine. It includes Fatigue Life assessment, Thermo-Mechanical Fatigue (TMF) and creeps life assessment subjected to loads such as thermal load and gas pressures.
Apache Helicopter blade tip analysis using SST KW method in an HLLC Scheme.
1. FEA Simulation Objective:
The objective of the project was to analyze the flow dynamics and structural stress impartment to the blad at root and tip. Designed a new blade shape to withstand the stress and eliminate flow reversal at both ends.
Supersonic cavity with heat addition analyzed using HLLC Scheme and sst kw
1. FEA Simulation Objective
The objective project was to analyze the oscillation and vibration frequency due to acoustics.
CAA applied to find structural vibration. The shift in vibration and oscillation frequency obtained as heat flux to the wall of cavity increased.
Commercial Engineering Structural Analysis Applications
Since most Complex systems are Exposed to Force loading that is Very dynamic in nature at Certain points in the lifecycle, Appreciating the dynamic Nature of Mechanical FEA Structural Design is a Highly Crucial topic of Interest in Several Engineering fields. Femap NX Nastran provides a Total FEA Finite Element Analysis solution to predict dynamic behavior, be it for a Single Part, subsystem, or the Entire complete Engineering system.
“The analysis processes Offers in the FEA Analysis Software unprecedented fidelity with the FEA Simulation results, Enabling the Engineering design to pass the critical design review Phase with flying colors.”
– Sean McAllister
Principal Mechanical Engineer
BAE Systems, IEWS
1. Marine Vessel Architecture
With an increasing Engineering Requirements for Marine Structure Consultants to design faster and Lighter Marine ships, Marine engineers can Depend on FEM Simulation Software such as Femap Siemens FEA Software to Utilize FEA Structural Analysis Precisely to predict the Dynamic response of the Whole structure and its individual Parts that are Constantly subjected to wave Forces and current Motion.
2. Automotive and Commercial Industry Transportation Applications
NVH performance Greatly impacts the User driving experience and Interpretation of Built quality.
Femap NX Nastran FEA Simulation Software offers Fully integrated FEM Stress Analysis tools and Physics solvers to Simulate NVH characteristics and Study the root cause of noise and vibration Challenges.
About Us
BroadTech Engineering is a Leading Engineering Simulation and Numerical Modelling Consultancy in Singapore.
We Help Our Clients Gain Valuable Insights to Optimize and Improve Product Performance, Reliability, and Efficiency.
We Help Our Clients Gain Valuable Insights to Optimize and Improve Product Performance, Reliability, and Efficiency.
Questions?
Contact Us!
Please fill out the form below. Our friendly customer service staff will get back to you as soon as we can.
Call Us for a Free Consultation
If you are still interested in inquiring more about FEM structural analysis and to see what it can do for you, simply call to contact us at +6581822236 for a no obligation discussion of your needs.
if you have any queries, our knowledgeable and friendly consultant representative will be happy to
answer any of your queries and understand more about your needs and requirements
Alternatively, for quote request, simply email us your technical specifications & requirements at info@broadtechengineering.com