FEA and CFD Simulation for Aerospace Structures: Combustion, Acoustics, Fatigue and Vibration
The Aerospace industry has increasingly become a more competitive market. Suppliers require integrated and multi-functional processes to increase production efficiency, maintain high quality products and reduce production costs. Enteknograte provides integrated, innovative, and cost-effective engineering FEA and CFD software solutions to support the tough operating conditions of the Aerospace industry, such as atmospheric pressure, humidity, temperature, and structural loads.
Enteknograte engineering team 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+ and FEA Codes such as ABAQUS, Nastran, LS-Dyna and the industry-leading Fatigue Simulation technology such as Simulia FE-SAFE, Ansys Ncode Design Life to calculate fatigue life of multiaxial, Welds, Composite, Vibration, Crack growth, Thermo-mechanical fatigue and MSC Actran and ESI VA One for Acoustics, VibroAcoustics and Aero-Vibroacoustics simulations. With combination of deep knowledge and experience in sophisticated FEA and CFD based design tools, Enteknograte engineers can solve any problem with any level of complexity in Aerospace engineering including:
Fields:
- Aeroengines
- Aerostructures
- Airframes
- Avionics
- Ballistics & Blast
- Cabins
- Composite Structures
- Landing Gear
- Space Systems
Aerospace simulation services:
- Crack Growth Modeling (J-Integral, Cohesive Zone, Virtual Crack Closure Technique)
- Fatigue Life and Durability Analysis
- Damage Tolerance of Composites
- Dynamic Analysis (including frequency and vibration)
- Impact and High Rate Deformation
- Fluid Diffusion/Permeation
- Structural Optimization
- Computational Fluid Dynamics (CFD)
- Multi-Body Dynamic Simulation
- Static Stress Analysis
- Time-Dependent Analysis (Creep, Stress Relaxation)
- Acoustics, VibroAcoustics and Aero-Vibroacoustics
Considering complexity and needs to have new procedure and constitutive equation, we must try to develop new FEA and CFD based software to overcome engineering challenges.
FEA and CFD based Programming needs experience and deep knowledge in both Solid or fluid mechanics and programming language such as Matlab, Fortran, C++ and Python.
Enteknograte’s engineering team use advanced methodology and procedure in programming and correct constitutive equation in solid, fluid and multiphysics environment based on our clients needs.
We use subroutine’s with programming languages such as Fortan, C and Python in CFD and FEA sofware such as Abaqus, Ansys, Fluent and Star-ccm+ to add new capability and Constitutive equation.
Enteknograte use Mathematical Methods and Models for Engineering Simulation. We, focuses on numerical modelling and algorithms development for the solution of challenging problems in several engineering sectors specialized in the development of software for the numerical discretization of partial differential equations, linear algebra, optimization, data analysis, High Performance Computing for several engineering applications.
Together, we enable customers to reduce R&D costs and bring products to market faster, with confidence.
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A world-class consultancy for engineering, technology, innovation, our industry know-how and technical expertise is unrivalled.
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We use advanced virtual engineering tools, supported by a team of technical experts, to global partners in different industries.
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Our Software team is made up of developers, industry experts and technical consultants ensuring we can respond to each client’s individual needs
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Minimum Weight Design
The increase in global competition and environmental awareness has necessitated the development of optimum weight aerospace structures. Aligning our expertise of using optimization technology to determine minimum weight metallic or composite structures, we have been instrumental in pioneering the establishment of Optimization Centers at major aerospace OEMs.
Engine FEA and CFD based Simulation in Aerospace industry: Combustion, Fatigue, Aerodynamics, AeroAcoustics, Heat Transfer
The Aircraft engine is a key part to decrease the fuel consumption and CO2 emissions, to meet noise regulations constrains, to reduce maintenance costs. Enteknograte provides a complete solution for aircraft engine that addresses multi-disciplinary domains and engineering challenges:
- Multi-objective Composites rotor blades optimization: weight reduction, mold design optimization, energy consumption reduction
- Metal rotor blade optimization
- Noise simulation: to improve passenger comfort and comply to decreasing noise regulation
- Internal & external fluid dynamics
- Safety simulation: simulation of turbine engine blade containment with Bird strike, loss of blade
- Gas Turbine Combustion simulation
- Heat transfer: predicting temperature distribution
- Blade cooling simulation
- Fatigue simulation of engine components: vibro-acoustic loading, stress corrosion analysis and visualization
- Motion and Dynamics evaluation of mechanical systems
- Nacelle aerodynamics simulation
Fracture Simulation: Advanced constitutive Equation for Materials behavior in special loading condition
In materials science, fracture toughness refers to the ability of a material containing a crack to resist fracture. Specifically, fracture toughness testing characterizes resistance to fracture in a neutral environment with a sharp crack, and is one of the most important properties of any material for virtually all design applications.
Finite Element (FEA) Fracture simulation is used in design and fabrication to understand and prevent brittle fracture. It can also be used to determine the useful life of a material under different conditions, including fatigue, corrosion and elevated temperatures.
Enteknograte Fracture Simulation Services
Using advanced techniques and FEA software, our experts provide valuable insight into material performance, helping you make critical determinations about the safety, fitness, and longevity of metallic, nonmetallic and advanced materials. As a single source provider of mechanical simulation, we can assist in creating a testing program that gives you confidence in your products and materials.
Structural Dynamics Simulation Methods: Coupling CFD, MBD, FEA and 1D Systems Simulation Software
Enteknograte’s structural dynamics simulation services provide reliable, consistent data to the world’s most critical industries. From aerospace to construction, we help ensure that your products are fit for use, no matter what the application.
Our structural dynamics simulation methods focus on evaluating components in high-stress, high-performance environments. Combining multiple simulation methods, we create a methodology, comprehensive multiphysics simulation that ensures product safety while saving you time and money. Enteknograte’s experts work with you to design the ideal simulation regime for your components and products, in every stage of your component lifecycle
Aerostructure: Combining CFD-FEA and 1D-3D multi-objective modeling
Enteknograte provides a complete solution for aero-structure that addresses multi-disciplinary domains and engineering challenges combining CFD-FEA and 1D-3D multi-objective modeling:
- Complete wing simulation
- Dedicated composite simulation for aircraft: designing, analyzing and optimizing Composite material structure, Liquid Composite Molding, composite forming simulation for doors, wings, tails, nacelle.
- Horizontal & vertical tailplane simulation
- Moving part aerodynamics simulation
- Nacelle aerodynamics simulation
- Fatigue simulation of components: random vibro-acoustic loading, stress corrosion analysis and visualization
Composites Design: Damage and Fracture Mechanics for Adavanced Design and analysis
Having deep knowledge about composite technologies and its application to take full advantage of composites in the development of light-weight, high-performance structures using advanced CAE tools that specialized for Composites Design, we could determine optimal ply lay-up structures for weight and performance, quickly synthesize and model concepts, and accurately predict impact damage including fiber and matrix failure, delamination, rupture and crack propagation.
