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Simcenter 3D; Additive Manufacturing Simulation; Simcenter 3D software's additive manufacturing capabilities are used to predict distortion and defects before parts are printed; Improved inherent strain approach; Print right the first time; NX workflow; Additive Manufacturing Simcenter 3D A dditive Manufacturing Simulation Additive manufacturing (AM) is changing the way products are made. Revolutionary new machines and processes are rapidly pushing AM from the prototype environment to the shop floor. Simcenter 3D software 's additive manufacturing capabilities are used to predict skews and defects before parts are printed, thereby reducing the number of test prints and improving the quality of the final print. High quality simulation environment Improved inherent stress approach Print right the first time Fully integrated into the NX end-to-end workflow Providing a platform for multidisciplinary simulation Simcenter 3D's high-quality simulation capabilities are critical to the industrialization of AM. During the simulation of the MA process, the parts are accurately meshed with tetrahedral meshes and later sliced, which gives better results when compared to voxel meshes . A new approach was developed and brought to market with Simcenter 3D. The layer-by-layer construction process during powder bed fusion printing leads to layer shrinkage during layer cooling. The rigidity of the printed structure has a strong influence on the distortion of the part. The calculated distortions can be used to compensate the part before the printing process. The initial geometry can be automatically transformed into pre-compensated shape and replaced in the built-in tray for later analysis, or it can be sent directly to the printer to print correctly the first time. Simcenter 3D for MA is seamlessly integrated into the end-to-end Siemens* Digital Enterprise Software MA workflow . The process is simplified to be used by non-computer-aided engineering (CAE) users as well. The Simcenter 3D AM solution is part of a larger multidisciplinary simulation environment and is integrated with Simcenter 3D Engineering Desktop at the core for centralized pre/post processing for all Simcenter 3D solutions. This integrated environment helps you achieve faster CAE processes and streamline multidisciplinary simulations that integrate additive manufacturing with any of Simcenter's 3D solutions, such as thermomechanical, vibroacoustic, or more complex analyses. Sectors Industry applications Aerospace and Defense Industrial machinery Auto Industry Today, AM is still primarily a research and development (R&D) activity, as this process remains expensive and slow, precluding its use in large projects, such as in the automotive industry. However, some industrial applications are already linked to the printing of complex parts, which are difficult to produce using traditional methods. The main objective of this is to create light parts with good mechanical properties. Repairing parts previously produced by traditional processes can also be a valuable application of AM due to the unique nature of each component. The space industry already produces structural parts for launchers. The objective is to produce light parts with good mechanical properties. The aeronautical industry is also developing this technology, but it is in a more exploratory phase with the aim of producing components with complex geometry. Power generation appears to be an industry that is exploiting AM to produce turbine blades and other combustion chamber components. AM can also be applied to the repair of existing turbines. Lightweight structures Generative design can be used to find new proposals that can be manufactured with additive manufacturing technology. Modules Simcenter 3D Additive Manufacturing simulates the MA process for Selective Laser Melting (SLM). The one-piece configuration on the constructed tray, including support structures, is used as a base. The user selects the parts to simulate and sets the printing process parameters (material, number of parts, layer slicing, laser parameters, etc.) and runs the simulation. The result is temperature distribution and part distortion. Simcenter 3D Additive Manufacturing is used to calculate distortion of parts during the MA process. Part distortions can be transferred to the starting geometry to pre-deform it using powerful contour representation model based geometry modification (BREP) techniques. A new offset part file is generated and can be used to replace the original part in the build tray. The compensated geometry is then used for validation and can be sent directly to the printer. Module benefits: Construction process simulation for powder bed fusion metal impressions Fully integrated with the NX™ software additive manufacturing framework Unique model setup and resolution methodology Main features: Solving the coupled thermomechanical solution Material and process parameters for MA Consideration of fixed plane module support structures Analyze the thermal distribution Analyze distortion before and after support removal Detect Coating Collision Predict the probability of overheating Efficiently calculate stiffness curves Compute Pre-Distorted Geometry for Compensation Benefícios do módulo: BREP Geometry Pre-Strain Generating offset geometry NX part files Característi cas principais: Supports standard loads and boundary conditions, as well as specific acoustic boundary conditions such as duct modes and acoustic diffuse field loads (random) Pressure loads on structural surfaces from other acoustic or CFD analysis Porous and temperature-dependent fluid materials, average convective flow effects, frequency-dependent surface impedance, and transfer admittance between pairs of surfaces Calculate sound pressure, intensity, and power for virtual microphones located inside or outside the mesh fluid volume ___________________________________________________________________________ Simcenter 3D Additive Manufacturing ___________________________________________________________________________ Omnimesh for Simcenter 3D ⇐ Back to Simcenter

Simcenter MAGNET 2D/3D Finite Element Software, Electromagnetic field simulation. Design of motors, generators, sensors, transformers, actuators, solenoids, etc. Advanced Material Modeling; incorporation hysteresis; circuits and systems; Electric field; Magnetostriction; Anisotropy; SIMCENTER 3D; Mentor Simcenter MAGNET Perform low frequency electromagnetic field simulations with Simcenter MAGNET 2D/3D Finite Element software , a powerful electromagnetic field simulation solution for predicting the performance of motors, generators, sensors, transformers, actuators, solenoids or any other electromagnetic device. Simcenter MAGNET virtual prototyping is cost and time efficient. Parametric and optimization studies allow exploration of multiple configurations for performance improvements. Accurate replication of extreme operating conditions provides insight into loss and temperature hotspots , permanent magnet degaussing, unused material and failure analysis. Contact an Expert AC Electromagnetic Simulation Advanced Modeling of Electromagnetic Materials Effects of incorporating hysteresis in the simulation of electromagnetic devices Modeling of circuits and systems Electric Field Simulations Simulation of Electromagnetic Motion Transient electromagnetic simulation AC electrom agnetic simulations are based on a single frequency, which reduces simulation time. With this approach, you can simulate electromagnetic fields in and around conductors, in the presence of isotropic materials that can be conductive, magnetic, or both. This takes into account displacement currents, eddy currents and proximity effects, which are important in hotspot analysis . The accuracy of low-frequency electromagnetic simulations is highly dependent on material data. Simcenter's modeling of advanced electromagnetic materials takes into account non-linearities, temperature dependencies, demagnetization of permanent magnets, loss of hysteresis and anisotropic effects. This makes it possible to analyze effects such as demagnetization on permanent magnets to check their lifetime, analyze frequency-dependent losses in thin parts while reducing solution time, and account for all losses for an accurate energy balance. Hysteresis modeling in Simcenter MAGNET software allows engineers and scientists to model a real-world scenario, incorporating the effects of iron losses in the simulation of low-frequency electromagnetic waves. Accurate representation of a ferromagnetic material by the complete BH loop , rather than the BH curve, affects local quantities. System-level or model-based analysis requires accurate sub-component models to account for local interactions and transients that affect the overall behavior of the system. Simcenter's low-frequency electromagnetism includes features such as native circuit simulations, connections for co-simulation, and export of 1D system models to Simcenter Flomaster, Simcenter Amesim, and other platforms. Finite element method for electric fields can be used to simulate static electric fields, ac electric fields and transient electric fields. It can also simulate the current flow (which is the static current density) produced by DC voltages on electrodes in contact with conductive materials. Electric field simulations are typically used for high voltage applications to predict insulation and winding failures, lightning impulse simulations, partial discharge analysis, and impedance analysis. Electromagnetic simulation of transient fields can include motion. It is possible to simulate rotational, linear and arbitrary movements with six degrees of freedom (X, Y, Z, Roll , Pitch and Yaw) for an unlimited number of moving components. Mechanical effects include viscous friction, inertia, mass, springs, and gravitation, as well as motion restrictions imposed by mechanical stops. Arbitrary loading forces can be specified as a function of position, velocity and time. Currents induced due to motion are taken into account. Allows the simulation of complex problems involving sources and outputs of current or voltage in an arbitrary, time-varying manner with non-linearity in materials and frequency-dependent effects. This includes oscillations in electromechanical devices, demagnetization in permanent magnets, switching effects, eddy current induced torque, skin and proximity effects. ⇐ Voltar para Produtos

Simcenter 3D complete solution for modeling nonlinear and transient heat transfer phenomena, taking into account conduction, convection, radiation and phase change. Thermal Multiphysics Flow; Space Systems Thermal; Electronic Systems Cooling; Multiphysics HPC Simcenter 3D Thermofluid Simulation Simcenter™ 3D software offers a complete solution for modeling nonlinear and transient heat transfer phenomena, taking into account conduction, convection, radiation and phase change. Dedicated thermal modeling resources are available, such as fast thermal connection methods, an extensive library of physical models, and a wide range of thermal loads and boundary conditions. The integrated CFD solution enables fast and accurate fluid flow simulation with tight coupling to the thermal model for conjugated heat transfer analysis of products at all stages of design development, limiting costly and time-consuming physical test cycles. These tools offer flexibility and ease of use while addressing complex thermal challenges. Predict thermal performance for vehicles in orbit accurately and quickly. Increase team collaboration and productivity with a thermal multiphysics analysis solution that is easily integrated into your design and engineering process. Benefits of the solution Get reliable thermal and flow information Easily handle Quick creation and easy management of fluid domains Dominate complexity and productivity across industry verticals Automation and customization to manage a wide range of models Providing a platform for multidisciplinary simulation Leverage the integrated Simcenter 3D environment to make rapid design changes and provide quick feedback on thermal performance Use Simcenter Nastran to understand thermoelastic effects with coupled physics analysis Minimize tedious rework and modeling errors with direct interfaces to ECAD systems Analyze condensation, moisture, and dust particle transport in electronic systems Predict thermal performance for vehicles in orbit accurately and quickly Increase team collaboration and productivity with a thermal multiphysics analysis solution that is easily integrated into your design and engineering process Accurately solve the Navier-Stokes equations that describe fluid motion Perform conjugate heat transfer analysis on complex models using tight coupling with the Simcenter 3D Flow solver A pioneering tool in computational heat transfer modeling, Simcenter 3D Thermal Multiphysics from Siemens Digital Industries Software has been continuously developed for more than three decades. It has a complete library of elements, materials and physical models, linked to rich, high-fidelity solvers with a broad set of functionality. This is further enhanced by intuitive pre/post processing functionality for thermal, flow and multiphysics analysts. Using Simcenter 3D, thermal connections can be defined automatically between disjoint components, different meshes and nonconforming geometry. In addition, mesh congruence and proximity requirements are eliminated, allowing the user to build and resolve large assemblies quickly. Automatic and fast extraction of the fluid domain using traditional Boolean operations, surface wrapping or displacer definition helps to improve the productivity of CFD analysis. Simcenter 3D can automatically join different fluid meshes at interfaces between different parts, which allows the user to quickly investigate many “ what if ” simulation scenarios” involving complex assemblies. All parts within any design assembly context can be independently joined together. Furthermore, the resulting disjoint fluid faces can be connected to form a single fluid domain at the time of resolution. Changes to individual parts can be quickly re-meshed into the assembly, thereby avoiding the time-consuming task of re-meshing the entire assembly. Simcenter 3D capabilities for thermal simulation have been leveraged in vertical applications to meet industry-specific needs. Simcenter 3D Space Systems Thermal allows the user to model the thermal performance and characteristics of orbital and interplanetary vehicles. Simcenter 3D electronics cooling leverages thermal and flow solvers as well as NX™ PCB Exchange capabilities in an integrated multiphysics environment to simulate 3D airflow and thermofluid behavior in heat sensitive and compressed electronic systems. Simcenter 3D for Thermal Multiphysics provides an extensible solver architecture that supports user subroutines, user plugins , expressions, and an open application programming interface (API) to automate and customize the product development workflow accordingly. with the needs of the sector. The Simcenter 3D Thermal Multiphysics solution is part of a larger multidisciplinary simulation environment and is integrated with the Simcenter 3D Engineering Desktop at the core for centralized pre/post processing for all Simcenter 3D solutions. This integrated environment helps you achieve faster CAE processes and simplify multidisciplinary simulation, such as thermomechanical analyzes based on structural solutions, conjugate heat transfer problems that are coupled with flow solutions, and coupled structural thermal flow problems, where all three physics are intrinsically linked. Sectors Industry applications Automotive and transport Aerospace and Defense Electronics and consumer goods Industrial machinery Thermal multiphysics applications in Simcenter 3D include simulation and analysis for a variety of heat transfer and fluid flow problems in aerospace, automotive, electronics, power generation, process and other industries. Simcenter 3D helps address a variety of analysis scenarios, such as under-the-hood thermal analysis (including porous blocking models), powertrain thermal management, and thermal response and temperatures in automotive lighting systems. Other automotive applications include thermal management in automotive lighting systems, cabin humidity and comfort analysis, exhaust gas mixture modeling, and transport of polluting species. Simcenter 3D offers a complete solution for the thermal design of electric vehicles, including batteries and enclosures. Simcenter 3D includes the ability to model the thermal response of a single component for an overall aircraft system. Moisture transport along with film condensation modeling can be used to obtain estimates of passenger comfort. The aircraft engine turbine, compressor and entire engine can be modeled for thermal analysis or thermomechanical analysis coupled with Simcenter Nastran® software . Thermal dissipation of electrical components can be modeled using non-linear Joule heat capacity. Aerothermal or ablation analysis is an area of strength. Simcenter 3D can be leveraged to meet the design requirements of both compact and complex electronic systems. Examples include identifying recirculation zones and hot spots, predicting thermal response based on spatially variable and orthotropic capacitance and conductivity, and determining cooling strategies and heatsink modeling. Moisture and film condensation on electronic components can be easily simulated. Simcenter 3D can be used to simulate a wide range of applications such as laser ablation and cutting , welding thermal response, mold cooling analysis, and phase change thermal analysis. Flow in rotating machines can be modeled using the rotary frame method with convection for 2D axisymmetric meshes and supported 3D meshes. In the cold chain industry, Simcenter 3D can be used to perform predictive modeling of the quality of frozen and temperature sensitive materials during transport and handling. Two-phase flow conditions, with constituents having significantly different densities and viscosities, are also supported. Simcenter 3D Thermal provides heat transfer solutions and can simulate conduction, convection and radiation phenomena for complex products and large assemblies. A wide range of methods are available for sophisticated radiation analysis, advanced optical properties, radiative and electrical heating models, one-dimensional hydraulic network modeling, and models of advanced materials such as phase change, carbonization, and ablation. Thermal control and articulation devices can also be modeled. Simcenter 3D Thermal solver is based on a finite element and finite volume formulation to simulate heat transfer phenomena accurately and efficiently. Simcenter 3D Flow is a computational fluid dynamics (CFD) solution that provides sophisticated tools for modeling and simulating fluid flow for complex parts and assemblies. Simcenter 3D Flow combines the power and accuracy of well-established control volume formulation with cell vertex formulation to efficiently discretize and solve fluid motion described by Navier-Stokes equations. Features cover internal or external fluid flow, including compressible and high-velocity flows, non-Newtonian fluids, heavy particle tracking, and multiple rotating reference frames. Simcenter 3D Space Systems Thermal is the vertical application that provides a comprehensive set of tools to perform orbital thermal analysis in the Simcenter 3D environment. Simcenter 3D Space Systems Thermal helps solve engineering challenges early in the design process and is a valuable tool for predicting and understanding thermal physics for space, orbital, and interplanetary vehicles. Simcenter 3D Electronic Systems Cooling software is an industry-specific vertical application that leverages Simcenter 3D Thermal Multiphysics solvers as well as NX™ software and NX PCB Exchange module capabilities in an integrated multiphysics environment. This allows you to simulate 3D airflow and thermofluid behavior in heat sensitive and compressed electronic systems. Simcenter 3D's multiphysics thermal high-performance computing (HPC) leverages hardware systems configured as a multi-processor desktop or a multi-node cluster. One Simcenter 3D Thermal/Flow DMP license, along with prerequisite licenses, can be used to produce a solution on as many processors as are available. Module benefits: Solve complex heat transfer phenomena with a comprehensive set of modeling tools Take advantage of the open architecture to integrate user threads and give greater control over the solution Use parallelized thermal solver and view factor calculations (with GPU support) to increase solution efficiency and reduce total execution time Use Simcenter Nastran Software to Understand Thermomechanical Effects of Coupled Physics Analysis Provide full finite element method (FEM) assembly support to model complex systems Main features: Fully coupled conduction, radiation, and convection heat transfer simulation for steady-state and transient problems Axisymmetric modeling, simplified 2D-3D modeling, and non-linear thermal properties Thermally connect disjoint and different mesh faces and edges Post processing of live results and controlling solver parameters during solving Advanced radiation methods such as deterministic and Monte Carlo ray tracing and non-grey multiband radiative heat transfer Specific boundary conditions of dedicated turbomachinery combining pipelines and streams Seamlessly send simulations to powerful remote machines using the built-in Simcenter 3D Remote Simulation feature Module benefits: Reduce expensive physical prototypes by simulating fluid flow in a virtual environment Simplify processes that require a multidisciplinary simulation approach Save time and avoid errors due to data transfer and results for multiphysics simulation Easily trace the interface between two fluids in a " sloshing " problem Efficient and accurate simulation of rotating machines Couple 1D hydraulic networks with 3D flow models to simulate complex systems Main features: Simulate internal or external flow problems in turbulent, laminar and mixed flows Accounts for forced, natural, and mixed convection Connect different fluid meshes at interfaces between complex assemblies Immersed limit method available for fast and easy CFD workflow Post processing of live results and controlling solver parameters during solving Industry standard turbulence models such as RNG k-epsilon, Realable k-epsilon, SST, k-omega and LES are supported Filling and emptying of various species Unidirectional and bidirectional fluid structure interaction with Simcenter Nastran Seamlessly send simulations to powerful remote machines using the built-in Simcenter 3D Remote Simulation feature Module benefits: Predict thermal performance for vehicles in orbit accurately and quickly Increase team collaboration and productivity with a thermal analysis solution that is easily integrated into your design and engineering process Maximize process efficiency with a highly automated solution that requires no additional input files and performs analysis in a single pass Main features: Orbital heating model for all solar system planets Transient Sight Factor recalculations with articulated geometries such as solar tracking solar panels and directional antennas Support for advanced thermo-optical properties, including angular and spectral dependencies Accurate modeling of solar radiation that takes into account atmospheric effects such as turbidity and ground reflection and shading Multi-layer coating formulation for modeling multi-layer insulation, composite panels and thermal protection systems Visualize simulation results in the Orbit Visualizer for a clear view of the evolution of thermal characteristics across orbits Seamlessly send simulations to powerful remote machines using the built-in Simcenter 3D Remote Simulation feature Module benefits: Simulate 3D airflow and thermal behavior in electronic systems Minimize tedious rework and modeling errors with direct interfaces to computer-aided design (ECAD) electrical systems Transport condensation, moisture and dust particles in electronic systems Características principais: With NX PCB Exchange, fully 3D board designs can be sourced from leading printed circuit board (PCB) and flexible printed circuit (FPC) layout software packages from companies such as Expedition, Zuken, Cadence, and Altium Model the electrical network along with Joule heating with temperature-dependent resistivity The immersed contour method provides a faster and more convenient workflow for fluid meshing A catalog of fan curves is available ready-to-use (OOTB), which can be extended with additional data from the manufacturer Module benefits: Enjoy the flexibility of solving on a single machine or across a network or distributed cluster Maximize the value of your hardware investments and greatly improve your solution Main features: Cores can be collocated on a single workstation, distributed across a local area network (LAN), or exist within a self-contained computing cluster Limitations on the maximum number of cores are removed, allowing resolution speeds to increase or decrease based on the number of available cores, not the number of available licenses Domain decomposition techniques are included to solve large-scale thermal models and flow models Simcenter 3D Thermal Multiphysics solver features parallel computation of radiation visualization factors, radiative heating, and a thermal model solution Enables GPU-based view factor computing and ray tracing for fast radiative heat transfer calculations Modules ___________________________________________________________________________ Simcenter 3D Thermal Multiphysics Thermal ___________________________________________________________________________ Simcenter 3D Thermal Multiphysics Flow ___________________________________________________________________________ Simcenter 3D Space Systems Thermal ___________________________________________________________________________ Simcenter 3D Electronic Systems Cooling ___________________________________________________________________________ Simcenter 3D Thermal Multiphysics HPC ⇐ Back to Simcenter

Advanced structural dynamics prediction; NVH and rotor dynamics; increasing confidence in dynamic FE models; multidisciplinary simulation platform; Response Dynamics; Load Identification; Noise and Vibration; Advanced Dynamics Simcenter 3D Structural Dynamics Simulation Simcenter™ 3D software provides a comprehensive solution for understanding, analyzing and improving response when a system is subjected to dynamic loading. This includes Simcenter Nastran® software , the industry standard for dynamic analysis, as well as interactive solutions for general dynamic analysis to efficiently understand and prevent excessive vibrations and stresses. In addition, dedicated resources are available for noise, vibration and harshness (NVH) engineering, rotor dynamics and correlation. Benefits of the solution Advanced Structural Dynamics Prediction NVH and rotor dynamics Uniquely combine real-world test data into the simulation Increasing confidence in dynamic FE models Providing a platform for multidisciplinary simulation Perform comprehensive dynamic analysis and accelerate time to market Increase design confidence by using Simcenter Nastran to investigate product performance under dynamic operating conditions Gain insights and improve NVH performance through a dedicated toolset for NVH post-processing and troubleshooting Combine FE with measured data like loading or component description for more realistic simulations and hybrid assemblies Quickly assess and improve the dynamic performance of rotating systems Improve accuracy and increase confidence in your FE models by correlating with real measured data From the product concept phase, analysts and specialists can rely on Simcenter's 3D structural dynamics solutions to analyze design decisions and systematically improve the system's dynamic characteristics. Simcenter 3D's graphical user interface (GUI) is fully customizable to suit your dynamic analysis processes, creating predefined models and simplifying the product engineering process. Interactive solutions and dedicated solvers are available to support industry workflows for NVH and rotating machine dynamics. Using Simcenter 3D for structural dynamics solutions allows you to implement a distinct hybrid simulation approach to leverage measured data as a component representation in a finite element (FE) model at the system level or apply real loads to accurately accelerate and robustness to process engineering. An integral part of making product engineering decisions is having confidence in simulation models so you can accurately predict reality. Correlation solutions allow validating and improving the dynamic behavior of simulation models based on physical test data. The Simcenter 3D structural dynamics solution is part of a larger multidisciplinary simulation environment and is integrated with the Simcenter 3D Engineering Desktop at the core for centralized pre/post processing for all Simcenter 3D solutions. This integrated environment helps you achieve faster CAE processes and streamline multidisciplinary simulations that integrate dynamics and other disciplines such as computing dynamic loads of motion, flow, or electromagnetic solution. Industry applications Automotive and transport Aerospace and Defense Industrial machinery Electronics and consumer goods Marine As most systems are subject to loads of a dynamic nature at some point in their life cycle, understanding the dynamic behavior of structures is an important topic in many fields. Simcenter 3D provides a complete solution for predicting dynamic behavior, whether for a component, subsystem or the entire system. NVH performance strongly affects the driving experience and perception of quality. Simcenter 3D offers built-in tools and solvers to predict NVH characteristics and analyze the root cause of noise and vibration issues. Simcenter 3D helps you identify structural weaknesses in a given design and optimize the vibration and dynamic performance of aircraft structures subjected to dynamic loading. Dedicated solutions for rotor dynamics help you evaluate the performance of aircraft engines to avoid instabilities. Machines that vibrate excessively during operation directly impact the quality of the manufactured product. Simcenter 3D provides information about the possible cause of machine vibrations, including rotating machines. Simcenter 3D helps predict the dynamic characteristics of electronics and consumer goods to prevent excessive vibrations and stresses that can result in fatigue or catastrophic failure. With an increasing demand for faster, lighter ships, design engineers can rely on Simcenter 3D to predict the response of the overall structure and its individual components that are subject to wave and current action. Sectors Modules Simcenter 3D Response Dynamics software is an integrated solution that makes dynamic analysis more accessible and efficient for the analyst. It allows you to predict the forced response of structural systems under various loading conditions in a single graphical user environment, thus eliminating the complexity of setting up and starting the analysis and providing a quick view of dynamic behavior. The analysis information can then be used to conduct design studies to improve the new product development process and confirm the quality of designs prior to physical prototyping and production. Simcenter 3D Noise and Vibration Modeling offers a comprehensive set of pre/post noise and vibration capabilities that address your need to build, understand, evaluate, and optimize the noise and vibration performance of complete systems and assembly models. Operating loads or vibrations are very important for accurate response prediction, but are often impossible or difficult to measure directly. Simcenter 3D Load Identification allows you to get accurate dynamic loads from a structure for dynamics or acoustics. Simcenter 3D Load Identification offers two ways to identify operating forces from measured data, either a direct stiffness method or an inverse matrix method. Using the direct stiffness approach, the relative displacement (or velocity or acceleration) of the input vibration data and input frequency response functions (FRFs) are used to calculate the forces at the locations of the nodes in your element model. finite (FEM). The inverse matrix method allows you to calculate an estimate of operational loads based on operational measurements such as measured accelerations and FRFs. Furthermore, Simcenter 3D Load Identification can also be applied to acoustic applications. You can use a modal expansion solution to create enriched vibration results in a full FE model based on measured vibrations at just a few points. Or, you can derive structural surface vibrations using inverse numerical acoustics, where pressure responses measured close to the structure are used along with acoustic transfer vectors (ATVs) to identify complete surface vibrations. The obtained vibration field can therefore be used for acoustic radiation analysis. Th e Simcenter 3D Noise and Vibration Response product gives users the ability to perform modal-based forced response, FRF-based forced response, and FRF synthesis to gain insight into the vibration or vibroacoustic performance of a system. It is an alternative for users who have third-party structural solvers or for users who cannot subscribe to Simcenter Nastran. For example, modal-based forced response is particularly useful in many scenarios that start in ANSYS or ABAQUS modes, or measured modes. One can, for example, use the Simcenter 3D Noise and Vibration Forced Response product to calculate surface vibration results that can later be used in an analysis to predict acoustic radiation. Another example is the FRF-based forced response solver which provides a convenient and fast way to calculate the structural or vibroacoustic response of a system that is described by simulated or measured FRFs under operational load. This can be followed by TPA analysis using Simcenter 3D Noise & Vibration Modeling. Simcenter 3D NVH Composer is a simplified product to create full vehicle level FE models for NVH from sub-assembly models (BIW, Door, Suspension...). The product offers an interactive network display to define the topology of the complete vehicle assembly, defining components, connectivity information and grouped mass information. Once the complete vehicle layout is defined, the assembly is automatically created in Simcenter 3D and is synchronized with the network view, which is a simplified way to interact with the complete vehicle assembly. All typical connections between complete vehicle subsystems are available and modeling is done for Simcenter Nastran. Simcenter 3D FE Model Correlation software allows you to quantitatively and qualitatively compare simulation and test results, as well as two different simulations. It provides the necessary tools to geometrically align the models, pair the shapes of both solutions, visualization mode and operational shapes and frequency response functions, and calculate/display correlation metrics. Simcenter 3D FE Model Updating software is an advanced correlation tool designed to automatically update FE models to match real-life test data or other FE model results. The tool is fully integrated into Simcenter 3D Engineering Desktop, making the upgrade process efficient, intuitive and productive. Simcenter 3D Rotor Modeling is a comprehensive environment for pre- and post-processing models used for rotor dynamics analysis using the Simcenter Nastran Rotor solver. Simcenter 3D Rotor Modeling guides you through the typical workflow of defining your rotors, bearings, and assemblies, and then helps you configure the parameters of your simulation solution. Simcenter 3D Rotor Modeling also takes full advantage of the core features of Simcenter 3D Engineering Desktop to easily edit model geometry and keep your rotor simulation models in sync with your design. The rotor modeling environment is where you can also efficiently evaluate the results of your simulations visually and graphically so you can easily determine if your rotor designs are meeting your needs. Simcenter Nastran Dynamic Response software is the leading solver for dynamic finite element analysis (FEA). It allows the analysis of the forced response of a component or assembly subject to excitations that vary in time or frequency. Evaluating dynamic response under different operating conditions is critical for industries such as automotive, aerospace, consumer products, and other industries that rely on electronic devices. Multiple what-if studies can be performed virtually investigating product performance under various dynamic operating conditions using the rich set of analysis tools supported by Simcenter Nastran Dynamic Response. Simcenter Nastran Advanced Dynamics is a cost-effective package that provides a set of advanced and commonly used dynamics functionality, which includes Simcenter Nastran Dynamic Response, Simcenter Nastran FRF representations, Simcenter Nastran superelement analysis, recursive domain (RD) modes of Simcenter Nastran, Simcenter Nastran DMP (distributed memory processing), Simcenter Nastran aeroelasticity and Simcenter Nastran direct matrix abstraction program (DMAP). Simcenter Nastran DMP facilitates a significant reduction in computing time using multiple processors and computing resources. Simcenter Nastran DMP allows for a higher level of parallelism and offers better scalability than shared memory processing (SMP). Simcenter Nastran Rotor is the solver to simulate a variety of rotor dynamics analyzes for mechanical engineers studying industrial rotating machine applications such as gas turbines, pumps and more. Understanding critical operating speeds and predicting survivability of rotating systems is a critical but challenging task. Simcenter Nastran helps you determine these critical criteria by taking into account gyroscopic effects and centrifugal loads in a wide variety of situations. Pre- and post-processing of the Simcenter Nastran Rotor is done using the Simcenter 3D Rotor Modeling product. Module benefits: Get quick insights into the dynamic response of structural systems Quickly generate and visualize results graphically Take full advantage of Simcenter 3D to make quick design changes and provide quick feedback on dynamic performance Main features: Predict model response to transients, frequency (harmonic), random vibration, shock spectrum, dynamic design analysis (DDAM) method (ship shock loads) and quasi-static loads Efficiently compute responses using a modal formulation from an a priori resolved set of Simcenter Nastran mode shapes Import, generate, and edit computer-aided engineering analysis (CAE) excitation information and test data, including force, forced motion, and distributed loads (e.g., dynamic pressure) Seamless interface analytical models with measured test data for measured accelerations per instance used for base excitation loading Best-in-class random excitation and sine-base events that handle real-world models with unrivaled performance and accuracy Module benefits: Gain valuable insights into your project's noise and vibration performance Use data from previous measurements and simulations to create relevant Use reduced, dynamically equivalent representations of components in your assembly model to speed response analysis Main features: Intuitive noise and vibration diagnostics with support for modal analysis, network, panel, energy and path contribution Map test data and predecessor simulation data - multibody, electromagnetism (EM), computational fluid dynamics (CFD) - into the vibroacoustic simulation model, including time-to-frequency domain conversion for realistic loads Add frequency response function (FRF) and modal representations for structural members in the context of assembly using simulation or test data Include acoustic transfer vectors (ATV) or vibroacoustic transfer vectors (VATV) representations for acoustic or vibroacoustic components, which are reusable for multi-load case scenarios for powertrain noise or cabin wind noise Module benefits: Determine operating forces or vibrations that are difficult or impossible to measure directly Get a more realistic simulation by applying more accurate loading Combine measured loading data with FE simulations Main features: Assembly method for estimating assembly forces by combining operational vibration data on each side of the assembly and assembly stiffness data Inverse matrix method by combining operational measurements and transfer functions Based on all measured data or a combination of operation measurements and simulation data Direct application and reuse of forces or vibrations identified in the simulation model Module benefits: Dedicated modal and FRF based forced response solvers supporting NVH and Acoustics scenarios. Allowing users to run a forced response without access to a full structural solver such as Nastran Quickly calculate FRFs from measured or simulated modes for use in NVH or as a reduced FRF representation of a component in an assembly or for use in correlation Main features: The FRF-based forced response solver provides a convenient and fast way to calculate the structural or vibroacoustic response of a system described by simulated or measured Frequency Response Functions (FRFs) under operational load The Modal-based forced response solver provides a convenient way to calculate the structural (vibration) response of a system described by a set of modes under operational load. The FRF Synthesis Solver allows you to calculate FRFs from a set of simulated mode measurements Module benefits: Increase productivity and accelerate total vehicle creation time Decrease human error by capturing assembly topology in layout files Eliminate the complexity of creating a complete vehicle assembly model Easily rerun in case of component changes Main features: Interactive network view to define complete vehicle topology from subsystem FE models All typical complete vehicle connections are supported (bolt, bushing, caulking/sealing strip,…) Agglomerated dough cutting support Automatic assembly from the defined complete vehicle topology Built-in scan functionality Automatic synchronization between Simcenter 3D NVH Composer and the resulting Simcenter 3D assembly Module benefits: Validate finite element model accuracy for dynamic structural, acoustic, and vibroacoustic analysis Determine sensor and exciter locations before performing physical modal tests Increase productivity by enabling model validation in the same environment used for model creation and analysis Main features: Supports Simcenter Nastran, Simcenter Samcef® software, Abaqus, ANSYS and MSC Nastran results Test solution import using universal files or Simcenter Testlab™ software files Pre-test planning, including sensor and exciter placement, automatic or manual preview wireframing, as well as automatic normal face detection Intuitive and powerful test template alignment Shape correlation criteria (MAC, X-Ortho, frequency), automatic and manual shape pairing options Interactive matrix and shape displays Frequency Response Function Assurance Criterion (FRAC) Interactive overlay graphics of FRAC and FRF Node mapping based on proximity, labels or names, as well as manual methods Module benefits: Improve accuracy and increase confidence in your FE models Increase productivity by performing model upgrade in the same environment used for model creation and analysis Provide a quick sensitivity-based approach Main features: Optimization goals: modal frequencies and mode shapes Mode Shape Correlation Criteria: MAC, X-Ortho Automatic and manual mode pairing options Simultaneously update multiple configurations of the same FEM Automatic FEM update that can be easily cascaded to all simulations Automatic and manual project variable management Automatic generation of multiple design variables Support material and physical property design variables such as beam section areas, shell or laminate thickness, and Young's modulus No Simcenter Nastran or MSC Nastran SOL 200 licenses required Module benefits: An integrated solution that helps you quickly solve and iterate on your rotor designs to achieve optimal performance Understand how your rotor performs in unbalance analysis, predict a blade loss event and determine critical speeds Guides you through a complete end-to-end workflow from impeller and bearing modeling, solution configuration, and results visualization Main features: Addresses a wide range of loading scenarios such as unbalanced loads, misalignment, time dependent forces and more Efficient modeling techniques and model reduction like multi-harmonic Fourier elements or cyclic symmetry or superelement Wide range of post-processing capabilities for Campbell diagram, energy distributions, animations of modes and deformed shapes, orbit plots, recombination of 3D results Model the rotors and stator parts of the assembly by different modeling approaches using efficient model reduction and connect the components by a collection of linkers Module benefits: Evaluate the dynamic performance of your physical model Applies to all applications, industries and model sizes Save time and cost compared to physical buildtest-break cycles Main features: Comprehensive dynamic response set. Supports frequency, transient, complex eigenvalue, random response, shock spectrum and other analysis Includes a list of eigenvalue solvers like Lanczos, Householder, Hessenberg, etc. Supports various types of dynamic loading in both time and frequency domains Fast frequency response solvers applicable to large models Module benefits: Use a cost-effective package to perform comprehensive dynamic analysis and accelerate time to market Build system assembly models using a hybrid assembly of components based on finite elements and test measurements or reduced-order models Main features: Includes all features of Simcenter Nastran Dynamic Response Includes Simcenter Nastran FRF representation Calculates the forced response of a product subject to time- or frequency-varying excitations Represents a component as a frequency response function, an alternative form of matrix representation of a component Large models consisting of over 300 modes can be efficiently solved using recursive domain normal modes (RDMODES) Analyze structural models in the presence of an air current using aeroelastic analysis Modify and adapt out-of-the-box (OOTB) solution strings using DMAP Module benefits: Quickly solve large complex problems Use the DMP solution to solve big problems over 100 times faster than the Lanczos method on a single processor Main features: Simcenter Nastran has many options to partition solution domains such as geometric, frequency, hierarchical, load and recursive domain partitioning DMP can also be operated on a single node that has multiple processors Supported dynamic solution types are modal and direct frequency response, eigenvalue computing, and modal transient Module benefits: Simulate and evaluate the rotor dynamics performance of your physical model Calculate critical speeds and find turning frequencies to avoid catastrophic failures of rotating machines Evaluate from simple models with linear bearings to complex systems with non-linear connections Breadth of analysis capabilities to cover a wide variety of loading scenarios Reduce modeling time and speed up time to solution through modeling techniques such as multiharmonic Fourier elements or cyclic symmetry or superelements Save time and cost compared to physical build and test cycles Main features: Calculate the Campbell diagram, with critical speeds and eddy frequencies Simulate using frequency-dependent (synchronous or asynchronous, modal or direct) or time-dependent excitation loads or switching Consider the geometric non-linearities of the connection elements in the simulation Supports typical rotor dynamics scenario such as unbalanced load or analysis or blade misalignment Consider the geometric non-linearities of the connection elements in the simulation Analyze models of symmetrical and asymmetrical rotors, as well as multiple rotors with different rotational speeds Include differential stiffness to calculate centrifugal softening effects Solve the model in fixed or rotating coordinate reference system ___________________________________________________________________________ Simcenter 3D Noise and Vibration Modeling ___________________________________________________________________________ Simcenter 3D Load Identification ___________________________________________________________________________ Simcenter 3D Noise and Vibration Response __________________________________________ _________________________________ Simcenter 3D NVH Composer ___________________________________________________________________________ Simcenter 3D FE Model Correlation _ __________________________________________________________________________ Simcenter Nastran Advanced Dynamics bundle _ __________________________________________________________________________ Simcenter Nastran DMP ___________________________________________________________________________ Simcenter Natran Dynamic Response ____ _______________________________________________________________________ Simcenter 3D Rotor Modeling ____ _______________________________________________________________________ Simcenter 3D FE Model Updating ___________________________________________________________________________ Simcenter 3D Response Dynamics _ __________________________________________________________________________ Simcenter Nastran Rotor ⇐ Back to Simcenter

Structural analysis allows the testing of multiple design variations in reduced time, with a direct impact on “Time to Market”, reducing the number of prototypes for design validation. (Cost reduction; more quality; Predictive engineering; linear and non-linear, static and dynamic; fatigue study) Structural Analysis Linear and non-linear structural analyzes do not predict failures due to fatigue. They calculate the response of a design subjected to a given environment of constraints and loads. If the analysis assumptions are observed and the calculated voltages are within allowable limits, the safety of the environment will be confirmed no matter how many times the load is applied. The results of static, dynamic, linear or non-linear analysis can be used as a basis for defining a fatigue study. The number of cycles required for fatigue failure to occur depends on material and stress fluctuations. Most mechanical components are subjected to cyclic loading and subject to fatigue failure. Several studies on this issue were carried out to identify the percentage of mechanical failures that are caused by this phenomenon, and it can be said that this number is 50 to 90% of all mechanical failures. Tools focused on analysis are capable of predicting, virtually, without the need for physical prototypes, the behavior of structures and components, showing areas with excessive deformations and mechanical stresses, allowing the experimentation of design changes with low cost and unparalleled speed. Contact an Expert Project Cost Reduction More Quality Predictive Engineering When developing new products and solutions, staying ahead is essential. Numerical simulation tools, such as structural analysis, allow testing multiple design variations in reduced time. This has a direct impact on the “ Time to Market ” of new products, reducing the number of prototypes required for project validation and allowing for increased productivity of development teams. The use of a structural analysis tool increases the reliability of the project, allowing it to become leaner. In this way, you can maintain project safety by reducing your raw material, production and product guarantee costs. In the event of a product structural failure, the use of structural analysis tools increases the engineering team's ability to understand the incident. In this way, higher quality decisions can be taken, based on the study of borderline cases and on the assessment of what may have caused the problem. This understanding generates the “know-why” of the problem, preventing future projects from having the same vices. Solid Edge Simulation Simcenter FEMAP Simcenter 3D Simcenter NASTRAN CAE tool for structural, thermal and vibration analysis integrated into the engineering CAD environment. Pre and Post-processing tool specialized in treating meshes and geometries for structural analysis. SIMCENTER 3D: it has the advantage of being a multi-CAD tool, allowing to read with total precision software files of the main CAD's of the market, from this opening and understanding the context of analysis of the product, it is possible to load the model and the analysis. Solvers based on NX NASTRAN in SIMCENTER 3D allow within the same interface to have different physics integrated to the same model. Simcenter Nastran is one of the most recognized technologies in the field of finite element simulation (FEM) for its processing power, reliability and scalability. includes powerful solutions for linear and nonlinear analysis, dynamic response, acoustics, rotor dynamics, aeroelasticity, thermal analysis, and optimization. The advantage of having all these solutions available in an interface where the input and output file formats are the same for all types of solutions, simplifying the modeling processes. ⇐ Voltar para Serviços

HEEDS is a powerful optimization software that interfaces with all commercial design (CAD) and simulation (CAE) tools; Multidisciplinary; Multiphysical; Multiscale; Process automation; Distributed Execution; Insight & Discovery; Portal to: ANSYS; Abaqus; CATIA; CREO; EXCEL; DYNA; MATLAB; SolidWorks; python HEEDS HEEDS is a powerful design space exploration and optimization software package that interfaces with all commercial computer-aided design (CAD) and computer-aided engineering (CAE) tools to drive product innovation. HEEDS accelerates the product development process by automating analysis workflows (Process Automation), maximizing available hardware and software computational resources (Distributed Execution), and efficiently exploring the design space for innovative solutions (Efficient Search), while evaluating new concepts ensuring that the performance requirements are met ( Insight & Discovery ). Contact an Expert Process automation Distributed Execution Efficient Search Insight & Discovery HEEDS enables automated workflows to make it easier to drive product development processes. With an extensive list of interfaces designed for commercial CAD and CAE tools, HEEDS quickly and easily integrates many technologies without the need for custom scripts . Data is automatically shared across different modeling and simulation products to assess performance tradeoffs and design robustness. HEEDS leverages existing hardware investments by making efficient use of all available hardware resources . Utilize Windows and Linux-based workstations or clusters , on-premises or offsite, as well as cloud computing resources to accelerate the development of innovative products. For example, geometry modifications can be automated on a Windows® operating system laptop , a structural deformation simulation can be performed on a Linux workstation, and a computational fluid dynamics (CFD) simulation can be performed on multiple computer cores. a Linux cluster , or in the cloud. Unlike most traditional optimization tools, which require highly specialized technical knowledge and model simplification to enable efficient search, all designers and engineers can use HEEDS to achieve innovation. HEEDS includes proprietary Design Space Exploration functionality to efficiently find design concepts that meet or exceed performance requirements. HEEDS automatically adapts its search strategy as it learns more about the design space to find the best possible solution within the allotted time frame. It's easy to use, designed to meet deadlines, and capable of delivering significant value! HEEDS provides the ability to easily compare performance across a broad spectrum of designs that exhibit desirable characteristics and robustness. The software helps users visualize project performance trade-offs between competing objectives and constraints with a variety of charts, tables and images to gain insights and discover innovative solutions. This facilitates the development of production-ready designs; enabling a truly digital twin! ⇐ Back to Tools

522 / 5.000 Resultados de tradução Resultado da tradução CAEXPERTS brings together an experienced and multidisciplinary team of CAE experts to deliver advanced engineering at different scales and levels of complexity. human capital; high performance; ROI; solving industrial challenges through digitalization and engineering expertise. Why CAEXPERTS CAEXPERTS brings together an experienced and multidisciplinary team of CAE experts, prepared to deliver advanced engineering at different scales and levels of complexity . In addition to human capital, we use high performance hardware and software resources that are scalable in the cloud, allowing the delivery of high added value solutions specific to the technological challenges of our customers, at the speed that the industry demands , adapting special care to projects with return on investment . Discover our Services Our Mission CAEXPERTS is a company focused on solving industrial challenges through digitalization and engineering knowledge . We work with the implementation of technology for the design and simulation of products and processes, in addition to specialized consultancy in order to provide the solution for: increasing competitiveness; innovation in the development of products and processes; solutions to complex problems; development of projects for the industry – differentiating itself in the market by performing cutting-edge engineering, presenting assertive solutions, and high return on investment. Core Values Responsibility Organization Honesty Continuous Growth Quality Innovation

Acoustic simulations help analyze noise quality in designs, Productive tools for designing, refining and validating prototypes throughout the development cycle. Aeroacoustics; Boundary Element, Ray Acoustics, FEM/BEM solvers; acoustic modeling; 3D Meshing for Acoustics; SIMCENTER 3D; SIEMENS Specialization Program in CAE At CAEXPERTS, we understand that digitalization and computational simulation are a reality for the industry and in this context, training is essential to face real engineering challenges. The CAE Specialization Program was designed for professionals who seek to deepen their knowledge by applying computational simulation tools to solve real engineering challenges, ensuring that you or your team are prepared to transform ideas into solutions. Master computational simulation in practice and become an expert valued by the industry. Join Our CAE Specialization Program Fill in the details below and we will build this chapter together. Name E-mail Phone/WhatsApp Company Submit Thanks! We will be in touch soon. Why choose our Specialization Program? What will you learn? Who should participate? Personalized: we work side by side, from the selection of relevant topics, the study of the state of the art, the scientific technical development stages, training until the completion of the project. Technology: this program provides access to the best CAE software on the market and is focused on the efficient use of software applied to practical cases. Real Projects: the training is developed based on real industry challenges, providing applied and practical learning that prepares you for concrete challenges. Articles and Procedures: the combination of theory and practice culminates in the technical scientific production of materials based on practical experiences, creating a legacy of knowledge and documentation for the industry. Our program includes: Exploring Advanced Technologies: Stay up to date with the latest in software and engineering techniques. Solving Real Problems: Learn from projects inspired by challenges faced by real companies, ensuring direct and meaningful learning. Creating Specific Procedures: Develop procedures that can be immediately applied in your organization. Our program is ideal for: Engineers who want to improve their skills in computational engineering and the use of CAE software. Companies looking to empower their teams to deal with complex problems. CAEXPERTS Differentiators With an experienced team, we are experts in combining technology and practice to generate concrete results. Our support goes beyond training, offering consultancy and monitoring to ensure that you or your team reaches their maximum potential. How to register? Contact us to schedule a personalized conversation. We are ready to adapt the program to your needs and contribute to your success. ⇐ Back to Disciplines

Combine computer simulation and digital twin for automation design (test and optimize machines, production cells and production lines in virtual environments before building and using them in practice) Automation Combine simulation and the digital twin for automation design across the entire value chain to test and optimize machines, production cells and production lines in virtual environments before building and using them in practice. Contact an Expert Simulation seamlessly integrated with automation Concrete benefits at all levels Factory level Line level Machine level Siemens automation simulation is your ideal gateway to digital transformation. Thanks to this modular portfolio, companies can approach simulation step by step, focus on the areas that are most important to them, and benefit from the start. Simulation provides the ideal basis for interdisciplinary cooperation between mechanical, electrical and automation engineering. The seamless integration of the Digital Enterprise portfolio 's hardware and software offering , openness and continual addition of new functions ensure an investment that will remain viable well into the future. Whether at the machine, cell, line or factory level, simulation for automation allows you to exploit the benefits of simulation. At the factory level, simulations reduce time to production start, increase flexibility and improve performance. This guarantees that the previously defined production targets are achieved. The production performance of a manufacturing facility largely depends on the concept of higher level automation and an optimal material flow. Make production lines available faster. In the area of cells or manufacturing lines, simulation supports the development and optimization of automated and robot-based production systems. The development and optimization of automated production systems involves complex workflows and typically one or more robotic systems. In mechanical engineering, simulation reduces development times, improves the quality of machines, increases their performance and reduces the need for expensive prototypes. Validate machine design and kinematics: A large number of machines are based on complex mechanics and motion sequences. This can lead to major challenges in the development process. Validate the automation program: Optimize the automation program, considering the behavior of electrical components. Improve operator training in a virtual environment: Simulation provides a realistic training environment for operators without a real machine. Optimize machine controls: In addition to mechanics, multiphysics systems such as pressure, temperature and torques also play an important role. Optimizing these systems makes a significant contribution to efficient operation. Validate security features: Validate the security program in combination with the standard automation program. Simulate all safety-relevant PLC program components for component or system behavior. Run machine simulation in a virtual environment, without the need for real prototypes to validate safety behavior. Simcenter Amesim NX Simcenter Amesim enables the execution of system simulations in order to evaluate and optimize the performance of mechatronic and multiphysics systems in a virtual environment. NX delivers the next generation of design, simulation and manufacturing solutions that enable companies to realize the value of the digital twin. ⇐ Back to Disciplines

Engenharia moderna, adaptável e personalizada - Implementação e Suporte Técnico - Consultoria Avançada - Projeto de Produto - Formação continuada de pessoas - Redução de CAPEX e OPEX de empreendimentos industriais - Processo de P&D - Viabilidade projetos inovadores - confiabilidade mecânica e elétrica, modos de falha Modern, adaptable and personalized engineering Implementation and Technical Support Increase the competitiveness and innovation of your engineering team with computer simulation tools from SIEMENS Digital Industries. As official resellers, we offer complete solutions for sales and licensing, and best of all: we support you through every stage of implementation. We help you select the ideal Siemens hardware and software for your company, recommend qualified professionals, create procedures and best work practices customized to your needs, and offer comprehensive training so that your team can master the tools and get the most out of each resource. Our service is personalized and ongoing, so that you can maximize the return on your investment and explore the full potential of Siemens tools. Advanced Consulting We perform advanced engineering consulting services to solve complex industrial problems, with a team of experienced specialists supported by the best CAE tools on the market. We work with the development of products and equipment, as well as carrying out studies aimed at reducing Capital Costs and Operating Costs of industrial projects, proprietary engineering, research, development and innovation in industrial processes, integrity analyzes and increased operational reliability of production assets. Specialization in CAE The CAE Specialization Program is a unique opportunity for engineering professionals to enhance their skills in advanced computer simulation. This program combines the efficient use of the best CAE software on the market with practical industry cases. Prepare yourself to face real engineering challenges with a training that adapts learning to your specific needs and interests! Product Design Count on a group of qualified consultants who help and also execute any of the stages of the design process, virtual prototyping, optimizations and specifications for manufacturing in several areas. Our team always works with a focus on cost reduction, optimization of development cycles, validations and performance improvement in both products and processes. Still within the scope of product design, we work very flexibly at different times in the R&D process, whether in feasibility tests for innovative projects, or in economic and financial analyses; in addition to improvements in mechanical and electrical reliability, failure modes, critical operating scenarios, functionality requirements, material selection and studies of constructive forms. In other words, our service fully uses the support of modern digitalization methodologies and interdisciplinary engineering knowledge. Get a quote Our services Vamos conversar sobre CAE Available Online Engenharia avançada em diferentes escalas e níveis de complexidade Saiba mais 1 hr Request to Book

Simcenter 3D Additive Manufacturing Simulation - Print it right the first time; Predict distortions and defects before parts are printed; Improved inherent strain approach; NX workflow; Additive Manufacturing; Simcenter 3D Engineering Desktop; Omnimesh; printing process parameters. Additive Manufacturing It is increasingly common to use 3D printers in the production of various products, with the most varied materials. 3D printing by Fused Deposition Modeling (FDM ), for example, uses polymer in the form of a filament in printers. The Selective Laser Sintering (SLS ) type, on the other hand, is a method that produces 3D objects from granulated materials of ceramics, plastics and metals. There is also Stereolithography, a method that solidifies certain liquid resins with ultraviolet light. Due to the advancement of technology in recent years, additive manufacturing has gained applicability in industries, mainly in the automotive and aerospace sectors, in addition to the evolution in the production of dental implants. Contact an Expert Advantages of Additive Manufacturing Industrial additive manufacturing Generative Engineering Additive Manufacturing Project Construction preparation Construction simulation Project validation Machine Connectivity Post processing Solid Edge features Explore new concepts with generative design Geometry preparation for additive techniques Direct output of models to your 3D printer Cost: allows parts to be produced in small quantities, reducing the unit cost; Speed: efficient production from the digital design to the physical model enables rapid prototyping; Complexity: allows the creation of parts with complex geometries; Customization: products are fully customizable according to needs; Economy/Sustainability: the reduced use of material generates less waste and consumes little electricity. NX provides all the capabilities to analyze from design to print and post-press. This allows you to rethink your product, reinvent the manufacturing process, and even reimagine business models with additive manufacturing technology. NX enables you to create part designs ideal for additive manufacturing with built-in generative engineering tools such as design space exploration and various types of topology optimization. AM ( Additive Manufacturing) solutions from Siemens Digital Industries Software allow you to design and print complex geometries at scale. Efficient and quality output from the process requires proper setup. The built-in build prep tools in NX assist in placing, orienting part holders on the build tray as efficiently as possible. Simulating the construction process can help your designers generate quality 3D prints at scale. From building orientation optimization to meso-scale deposition path optimization, NX has the tools your business needs to print successfully the first time. NX allows the designer and manufacturer to validate their parts at every step of the process. Validate your part's printability, then simulate its performance in the field with built-in tools, getting support for printing production-ready parts. Connect to the widest range of 3D printing hardware with Siemens NX. Whether you're printing on a flat powder deposition system or a multi-material, multi-axis system, NX has you covered. Industrialized 3D printing requires robust post-processing software like NX. Printing is not the last step in the additive manufacturing process. Dust removal, part removal from the build tray, and post-process machining are all aspects of the complete additive manufacturing process, and all of these functions form part of Siemens' Additive Manufacturing (AM) suite of solutions. Solid Edge supports your end-to-end workflow, from design to 3D printing techniques from the STL format, having tools for print setup and manipulation of the STL. Generative design combines powerful design tools with topology optimization, allowing you to quickly create complex, lightweight shapes and highly customized lattices uniquely suited for 3D printing. Seamlessly combine traditional solid “ b-rep ” models with triangular mesh models without time-consuming and error-prone conversions, reducing rework and supporting additive manufacturing processes for complex shapes. Solid Edge supports outputting its part models to 3D printers using the 3D Print command . Name your parts in .stl and .3MF formats or send your parts directly to the Microsoft 3D Builder application . This allows you to print in-house with automated press preparation, including color printing capability. NX Simcenter 3D Solid Edge Siemens NX software is a flexible and powerful integrated solution that helps you deliver better products faster and more efficiently. NX delivers the next generation of design , simulation and manufacturing solutions, supporting all aspects of product development from conceptual design to engineering and manufacturing with an integrated toolset that coordinates disciplines, preserves data integrity and design intent, and streamlines the entire process. The software has tools for simulating the 3D printing process as well as being able to simulate post-printing conditions such as thermal distortions, material shrinkage, among others. Solid Edge is an accessible, easy-to-use platform of software tools that handle all aspects of the product development process. It combines the speed and simplicity of direct modeling with the flexibility and control of parametric design – thanks to synchronous technology. Solid Edge has an intelligent, multi-CAD interface and deals not only with modeling in a simple and agile way, due to the synchronous technology applied, but also with the entire process of product development and 3D projects, simulation, manufacturing, reverse engineering, data, among others, without leaving aside the flexibility and parametric control of the projects. ⇐ Back to Disciplines

Fulwave solvers based on integral methods to solve Maxwell's electromagnetic equations (Method of Moments – MoM) and asymptotic methods based on Uniform Diffraction Theory (UTD) and Iterative Physical Optics (IPO) – EMC; EMI; Time and frequency, linear and non-linear, finite and boundary elements. Electromagnetic Compatibility Use predefined virtual experiments to evaluate the simulated performance of electric motors. Experiments produce output quantities, waveforms, fields, and graphs. Industry 4.0 factories, incorporating wireless IIoT systems, operate in a complex and noisy electromagnetic environment, as there is an increasing number of electronic devices and electrical cables and wires in vehicles, as well as a significant expansion of antennas and new types of wireless devices. Therefore, it becomes increasingly challenging to ensure that a device continues to function correctly by being immune and not interfering with surrounding devices causing possible failures. Contact an Expert Analyzes Method of Moments Uniform Theory of Diffraction Iterative Physical Optics Simcenter 3D High Frequency addresses a broad frequency spectrum to cover all major analysis needs. Users can select the most appropriate one from a variety of dedicated solvers . These include full-wave solvers based on integral methods for solving Maxwell's electromagnetic equations (Method of Moments – MoM) and asymptotic methods based on Uniform Diffraction Theory (UTD) and Iterative Physical Optics (IPO). Efficiently solve full 2.5D and 3D field problems. Solver acceleration options are incorporated to facilitate direct handling of ultra-large scale system-level models such as complete aircraft, satellites, ships and cars. MoM solves Maxwell's equations discretely without making any approximation: the problem is discretized and transformed into a system of linear equations. Both standard (direct) and fast (iterative with multilevel fast multipole algorithm) solution approach are available. Different boundary conditions are managed: Electric Field Integral Equation (EFIE), Impedance Boundary Conditions (IBC), Combined Field Integral Equation (CFIE) and Poggio-Miller-Chang-Harrington-Wu-Tsai (PMCHWT). Preconditioners (eg Multi-Resolution, SPLU, ILUT) accelerate the convergence of the iterative solution approach. Low-frequency stabilization methods (S-PEEC formulation) solve the problem of low-frequency breakage (very ill-conditioned linear system). The multiport approach minimizes the computational load for evaluating active solutions. MoM is suitable when precision is required for complex problems (in terms of geometries and materials) and when the interaction between the radiation source and the scattering structure is strong. The Uniform Theory of Diffraction (UTD) is a “ray” method, based on an asymptotic solution of Maxwell's equations. The UTD is applicable when a radiant source interacts with a scattering structure whose dimensions are much larger than the field's wavelengt h (eg ships, vehicles or scene settings such as airports, factories, cities, etc.). Under these assumptions, as well as in the case of optics, electromagnetic scattering can be described as the combination of discrete contributions (reflections and diffractions of different orders) from a number of “hot spots” distributed in the structure (edge, wedge, vertex), according to the relatively simple geometrical laws relating to the propagation of rays. UTD manages real materials characterized through transmission and reflection coefficients. Iterative Physical Optics (IPO) is a current-based high-frequency iterative technique. The IPO is applicable in the evaluation of the interaction between a radiant source and a scattering structure whose dimensions are larger than the field wavelength (for example, antenna reflectors, radomes, vehicles, etc.). The application of the equivalence theorem for the description of the scattering mechanism and adoption of the iterative process allows the reconstruction of interactions between objects in complex scenarios without resorting to ray-tracing . Computational resources are optimized by exploiting state-of-the-art technologies: GPU computing, far-field fast approximation algorithm, and iterative relaxation techniques. Thin sheets and impedance boundary condition formulations are available. Simcenter 3D Simcenter 3D High Frequency Simcenter includes distinctive low- and high-frequency electromagnetic simulation capabilities for the unique demands of each domain. Expand your insight into electromechanical component performance, power conversion, antenna design and location, electromagnetic compatibility (EMC) and electromagnetic interference (EMI). A variety of dedicated solvers (time and frequency based, linear and non-linear, finite and boundary element) provide a transformative CAE process, with simulations ranging from quick initial analysis to inherent realism for final verification. Complementarily, Simcenter 3D High Frequency allows analyzing the electromagnetic performance of electrical harnesses, which are imported directly from the CAPITAL software , world leader in wire harness engineering tools. In Simcenter 3D, automatic features work on generating 3D geometry from CAPITAL and assigning properties. The integrated multi-conductor transmission line network (MTLN) solver, combined with Simcenter 's electromagnetic solver – 3D High Frequency–, allows you to perform any wiring harness analysis such as emission, susceptibility, and cross talk within the harness and between the whips. ⇐ Back to Disciplines