Electromagnetic Simulation of 3-Phase Transformer Using CST Studio Suite
solidworks
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Transformers are one of the crucial electrical components in the
XFLOW
A Unique, Fast, Powerful and Scalable CFD Analysis
XFLOW- Fluids Simulations To Improve Real-World Performance
In the modern competitive world of product innovation, industries demand the complex simulation of their product’s real-world behavior under extreme conditions; such as vehicles wading, powertrain lubrication and critical flight maneuvers.
XFlow offers particle-based Lattice-Boltzmann technology for high fidelity Computational Fluid Dynamics (CFD) applications as a part of SIMULIA’s Fluids Simulation portfolio.The state-of-the-art technology of XFlow enables users to address complex CFD workflows involving high frequency transient simulations with real moving geometries, complex multiphase flows, free surface flows and fluid-structure interactions.
Its automatic lattice generation and adaptive refinement capabilities minimize user inputs thereby reducing time and effort in the meshing and pre-processing phase. This enables engineers to focus the majority of their efforts on design iteration and optimization.
XFlow offers particle-based Lattice-Boltzmann technology for high fidelity Computational Fluid Dynamics (CFD) applications as a part of SIMULIA’s Fluids Simulation portfolio.The state-of-the-art technology of XFlow enables users to address complex CFD workflows involving high frequency transient simulations with real moving geometries, complex multiphase flows, free surface flows and fluid-structure interactions.
Its automatic lattice generation and adaptive refinement capabilities minimize user inputs thereby reducing time and effort in the meshing and pre-processing phase. This enables engineers to focus the majority of their efforts on design iteration and optimization.
With XFlow’s discretization approach, surface complexity is also not a limiting factor. The underlying lattice can be controlled with a small set of parameters; the lattice is tolerant to the quality of the input geometry and adapts to the presence of moving parts.
Advanced rendering capabilities provide realistic visualization to gain deeper insight into flow and thermal performance. XFlow’s unique capabilities enable companies to reduce physical testing while making to make better design decisions faster.
SIMULIA Fluids Simulation is driven by three complimentary technologies that provide customers with scalable fluids simulation to address broad range of real world applications.
Dassault Systèmes SIMULIA brand is committed to enhancing and expanding our Fluids Simulation portfolio to provide end-to-end solutions for broad range of Industry Processes on the 3DEXPERIENCE platform.
Advanced rendering capabilities provide realistic visualization to gain deeper insight into flow and thermal performance. XFlow’s unique capabilities enable companies to reduce physical testing while making to make better design decisions faster.
SIMULIA Fluids Simulation is driven by three complimentary technologies that provide customers with scalable fluids simulation to address broad range of real world applications.
Dassault Systèmes SIMULIA brand is committed to enhancing and expanding our Fluids Simulation portfolio to provide end-to-end solutions for broad range of Industry Processes on the 3DEXPERIENCE platform.
A Unique CFD Approach To Solve Complex CFD Problems
Beyond Lattice Boltzmann
In non-equilibrium statistical mechanics, the Boltzmann equation describes the behavior of a gas modeled at mesoscopic scale. The Boltzmann equation is able to reproduce the hydrodynamic limit but can also model rarified media with applications to aerospace, microfluidics or even near vacuum conditions. As opposed to standard Multiple Relaxation Time (MRT), the scattering operator in XFlow is implemented in central moment space, naturally improving the Galilean invariance, the accuracy and the stability of the code.
Particle-based kinetic solver
XFlow features a novel particle-based kinetic algorithm that has been specifically designed to perform very fast with accessible hardware. The discretization approach in XFlow avoids the classic domain meshing process and the surface complexity is not a limiting factor anymore. The user can easily control the level of detail of the underlying lattice with a small set of parameters, the lattice is tolerant to the quality of the input geometry, and adapts to the presence of moving parts
Adaptive lattice refinement
XFlow engine automatically adapts the resolved scales to the user requirements, refining the quality of the solution near the walls, dynamically adapting to the presence of strong gradients and refining the wake as the flow develops.
Turbulence Modeling: High Fidelity WMLES
XFlow features the highest fidelity Wall-Modeled Large Eddy Simulation (WMLES) approach to the turbulence modeling.
The underlying state-of-the-art LES, based on the Wall-Adapting Local Eddy (WALE) viscosity model, provides a consistent local eddy-viscosity and near wall behavior. It also performs in CPU-times similar to most codes providing just RANS analysis. XFlow uses a unified non-equilibrium wall function to model the boundary layer. This wall model works in most cases, meaning that the user do not have to select between different models and take care of the limitations related to each scheme.
The underlying state-of-the-art LES, based on the Wall-Adapting Local Eddy (WALE) viscosity model, provides a consistent local eddy-viscosity and near wall behavior. It also performs in CPU-times similar to most codes providing just RANS analysis. XFlow uses a unified non-equilibrium wall function to model the boundary layer. This wall model works in most cases, meaning that the user do not have to select between different models and take care of the limitations related to each scheme.
XFLOW Industry Applications
Transportation & Mobility
- Moving geometries such as rotating wheels, suspension system, or vehicle overtaking
- Powertrain lubrication
- Refueling and tank sloshing
- Wading and painting process
Architecture, Engineering & Construction
- Airflow around buildings, bridges and other civil engineering works
- Free surface analysis of marine structures, dam spillways or flooding of underground facilities
- Heating, air-conditioning and ventilation of indoor spaces
- Dispersion of contaminants
Energy, Process & Utilities
- Wind turbines (Onshore/Offshore) and drivetrain
- Oil & Gas flows
- Analysis of water wheels and waves energy convertors
- Natural convection in solar towers
- Wind loads on solar panels
Aerospace & Defense
- Flight maneuvers prediction
- Helicopters and turbofans
- Drag and lift prediction even for high lift configurations
- Pressure and skin friction loads distribution
- Moving parts such as deployment of the landing gear, varying flaps configuration, or rotary wings
- Transonic / supersonic flows
Marine & Offshore
- Ship hulls hydrodynamics
- Sailing maneuvers
- Sloshing phenomena
- Wave propagation
Industrial Equipment
- Internal moving parts simulations such as valves and pumps
- Simulation of mixing processes (agitators, mixers)
- Thermal management in data centers
- Fluids with complex rheological properties (non-Newtonian viscosity models)
Key Benefits of XFLOW Simulation
- Single phase flow model
- Free-surface flow model
- Multiphase flow models: Particle-based tracking, Phase Field and VoF
- Acoustics analysis
- Thermal analysis
- Conjugate Heat Transfer (CHT) boundary condition
- Radiation Monte Carlo model
- Scalar transport
- Discrete Phase Model (DPM)
- Non-Newtonian flows
- Advance boundary conditions, including porous media and fan model
- Moving parts with enforced behavior
- Moving parts with rigid body dynamics up to 6 degrees of freedom
- Fluid-Structure Interaction (FSI) with Abaqus, Simpack and FMU
- Vibroacoustics analysis with Wave6
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