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

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 Acoustics There are products which have requirements that require manufacturers to limit noise levels and meet environmental and government standards. Engineers need productive tools to design, refine, and validate prototypes throughout the development cycle. Covering the widest range of industry applications and engineering tasks and meeting the latest international standards, our vibroacoustic simulation solutions help analyze noise quality in designs. Simcenter offers indoor and outdoor acoustic simulation in an integrated solution that guides your team to make informed decisions during the early stages of design so you can optimize your product's acoustic performance. A unified and scalable modeling environment, combined with efficient solvers based on NASTRAN technology and easy-to-interpret visualization capabilities, allow you to quickly obtain information about the acoustic performance of your product. Contact an Expert Aeroacoustics Simcenter offers an extensive library of accurate models for predicting aeroacoustic noise sources, including steady-state models, direct models (DES/LES), propagation models, and acoustic perturbation equation solver (APE). Create aeroacoustic sources close to noise emitting turbulent flows as calculated from a CFD solution and calculate their acoustic response in the external or internal environment. For example, you can predict cabin noise inside cars and aircraft due to wind loads acting on the windows and structural body of the vehicle. In addition, other apps also allow you to assess noise from heating, ventilation, and air conditioning (HVAC) and environmental control system (ECS) pipelines, train boogies and pantographs, cooling fans, ship and aircraft propellers, and much more. more. Boundary Element Method Often used for outdoor acoustics problems, the boundary element method (BEM) is ideal for problems involving very complex geometries that can be challenging to model for the FEM method. The BEM method helps to simplify the external acoustic simulation as only the external surface mesh of the geometry is required. This simplifies the modeling process and reduces degrees of freedom in the simulation model, which will result in easier analysis. Ray Acoustics Performing acoustic simulations in high frequency ranges is not always possible with standard finite element method (FEM) and boundary element method (BEM) technologies. In response to this, Ray Acoustics enables you to competently and accurately perform acoustic analysis for high frequencies and efficiently and accurately perform various acoustic and audio comfort simulations in vehicles, covering the entire auditory frequency range. Parking sensors and near-field ADAS sensors are a good example of a use case where lightning acoustics can cooperate with your project, as it gives you the opportunity to quickly evaluate the performance of these ultrasonic transducers and sensors that operate at frequencies of 40 kHz and beyond. Simcenter 3D Complete simulation software . Simcenter's 3D acoustic modules provide the capabilities needed to evaluate radiated noise, including capturing the effect of encapsulations with sound treatments. ⇐ Back to Disciplines

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

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

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

Simcenter 3D - Minimize noise and optimize the sound quality of products. quickly gain insights into a project's acoustic performance, coupled vibroacoustics, and aeroacoustics. FEM/BEM solvers; Meshing for Acoustics; Nastran Advanced; Acoustic Transfer Vector; Acoustics HPC; Ray Acoustics – SIEMENS Simcenter 3D Acoustic Simulation Simcenter™ 3D software offers a comprehensive solution to minimize noise and optimize product sound quality. Dedicated acoustic modeling features, efficient solvers , and easy-to-interpret visualization tools allow you to quickly gain insight into a design's acoustic performance for decoupled acoustic, coupled vibroacoustics, and aeroacoustics applications. Solution Benefits Accelerate acoustic generation and modeling Deliver high-fidelity vibroacoustic simulations in the most efficient way Faster design analysis iterations with CAD-CAE test associativity Gain instant insights with specific acoustic post-processing Providing a platform for multidisciplinary simulation Accelerate acoustic simulation model creation from complex geometries, whether structural mesh model, CAD geometry or from scratch Use fast and efficient FEM/BEM solvers to provide acoustic calculations faster Effectively solve acoustics, vibroacoustics, and flow-induced noise issues from a single interface Simulate acoustic performance for indoor, outdoor or mixed interiors Accelerate various acoustic RPM calculations involving engines, gearboxes, and rotating components Perform realistic acoustic simulation: anechoic boundary condition, porous finishing materials (hard and soft frames), acoustic source, lightning noise and more Advanced features such as surface wrapping, convex meshing, mesh thickening, and the ability to create hybrid (hexa-tetra) meshes help speed up acoustic meshing processes more than traditional preprocessors. The availability of multiple material models for structure and fluid and the wide range of boundary conditions and structural and acoustic loads allow you to configure your analysis efficiently. Simcenter 3D increases realism in your simulations by providing support for loading or font creation from test data and predecessor simulations of multibody or computational fluid dynamics (CFD). Simcenter Nastran® software is used to quickly solve complex indoor and outdoor acoustics problems, thanks to key features such as Automatically Blended Layer (AML) technology and Finite Element Adaptive Ordering (FEMAO), which allows using small fluid meshes with an ideal number of Degrees of Freedom (DoF) per frequency. Simcenter 3D connects seamlessly to computer-aided design (CAD), computer-aided engineering (CAE), and even test data. Any design modification can be easily introduced into the structural and/or acoustic model, eliminating multiple conversions between file formats and recreating models. Simcenter 3D provides intuitive, easy-to-interpret post-processing tools for investigating noise such as sound pressure level (SPL), acoustic power, or directivity. Path, modal, and panel contribution analysis helps you quickly identify important noise sources and their propagation. The Simcenter 3D acoustics solution is part of a larger multidisciplinary simulation environment and is integrated with the Simcenter 3D Engineering Desktop at the core for centralized pre- and post-processing for all Simcenter 3D solutions. This integrated environment helps you achieve faster CAE processes and streamline multidisciplinary simulations that integrate acoustics and other disciplines, such as gear noise analysis from motion solutions, or NVH and vibroacoustics analysis that require structural or flow-induced loads. Sectors Industry applications Aerospace and Defense Automotive and transport Consumer goods Industrial machinery Marinho As noise can affect health and a silent product is often perceived as superior quality, companies are adopting efficient processes and tools to optimize the noise performance of their products. With Simcenter 3D, aviation engineers can predict cabin noise generated by turbulent boundary layers (TBL) in the fuselage or by aeroacoustic noise coming from the environmental control system (ECS). External noise can be solved using Edge Boundary Element Method (BEM) and FEM solvers . Spacecraft engineers can reduce the risk of their acoustic verification tests by virtually evaluating them in Simcenter 3D. During vehicle development and enhancement programs, Simcenter 3D capabilities can provide noise, vibration, and harshness (NVH) engineers with valuable insight into acoustic, vibroacoustic, and aeroacoustic noise contributions in the vehicle cabin and external environment. Building high-quality, powerful speakers, quiet vacuums and washing machines, and other noiseless consumer goods requires advanced noise engineering and sound characterization capabilities provided by Simcenter 3D. Simcenter's 3D acoustic modules provide the capabilities needed to evaluate the noise radiated by the machine, including capturing the effect of encapsulations with sound treatments. The acoustic capabilities of Simcenter 3D can be used to study complex underwater radiation from ship hulls, propellers, and submarine hull reflections of sonar waves. Módulos Simcenter 3D Meshing for Acoustics software helps create meshes for FEM and BEM acoustic analysis. The module provides advanced, easy-to-use functionality for creating an acoustic fluid mesh for both indoor and outdoor acoustic applications from an existing structural mesh or CAD geometry. Simcenter Nastran Advanced Acoustics software provides support for standard loads and boundary conditions and key technologies such as AML and FEMAO to quickly solve acoustic simulations. It is suitable for studying component acoustic radiation and pass-by noise from complete vehicles, transmission loss from pipeline systems such as intakes and exhausts or mufflers, and transmission loss from panels. Simcenter 3D Acoustic Transfer Vector software supports acoustic transfer vector (ATV) computation, expressing the sensitivity of the pressure response in a virtual microphone per unit normal velocity at field points on a radiating surface. It can be reused to quickly predict the acoustic response to any surface vibrations. Likewise, vibroacoustic transfer vectors (VATV) express the sensitivity of microphone pressures to the unitary force applied at points in a structure. Furthermore, VATV can be quickly reused to predict the acoustic response to any force load. Modal participation factors (MPFs) can also be used with ATVs in the context of modal acoustic transfer vector (MATV). Simcenter 3D Aero-Vibro-Acoustics software supports the creation of aeroacoustic sources close to turbulent noise emitting flows and allows to calculate their acoustic response in the external or internal environment; for example, for noise from heating, ventilation, and air conditioning (HVAC) and environmental control system (ECS) ductwork, train boogies and pantographs, cooling fans, ship and aircraft propellers, and much more. The product also allows defining the wind loads that act on the structural panels, leading to a vibroacoustic response; for example, in a car or airplane cabin. Simcenter 3D Load Identification allows to obtain accurate dynamic loads of a structure. Operational loads are very important for accurate response prediction, but are often impossible or difficult to measure directly. This product offers several ways to identify operating forces from measured data, either by the mounting stiffness method or the inverse matrix method. For example, in an inverse matrix method, operational vibration data can be measured under operating conditions and transfer func tions (FRFs) can be measured under controlled laboratory conditions or obtained from simulations. This data is then combined into a reverse load identification case. In addition, Simcenter 3D Load Identification supports a modal expansion solution to create enriched vibration results in a complete FE model based on measured vibrations at just a few points. Finally, a second method for deriving structural surface vibrations is provided through inverse numerical acoustics, in which pressure responses measured at just a few points close to the structure are used together with acoustic transfer vectors to identify total surface vibrations. The obtained vibration field can then be used for acoustic radiation analysis. The Simcenter 3D Environment for BEM Acoustics software supports the generation of a ready-to-run acoustic or vibroacoustic simulation model for direct BEM and indirect BEM and provides comprehensive post-processing tools to analyze the acoustic or vibroacoustic results. The Simcenter 3D Acoustics BEM solver is used to predict the acoustic response in closed and unbounded domains using a mesh only for the boundary of the fluid domain. The vibroacoustic analysis is supported by coupling the acoustic fluid with a structural modal model. Structural vibrations can also be imposed on the BEM fluid using weak vibroacoustic coupling. Simcenter 3D Acoustics Accelerated BEM software provides hierarchical matrix (H-Matrix) BEM and fast multipole (FM) BEM solvers to extend the computational limits of standard solvers . These solvers are suitable for outdoor acoustics of large structures such as vehicles and large engines, aircraft, ships, submarines, as well as high frequency applications such a ultrasonic sensors. Simcenter 3D Acoustics' time domain BEM software enables BEM solutions to resolve transient acoustic and vibroacoustic phenomena. In opposition to frequency domain based BEM solvers , Simcenter 3D Acoustics Time Domain BEM Solver offers the possibility to solve problems involving short term excitation impulsive signals in time domain. This BEM solver is suitable for applications such as parking sensor design and door slam analysis, for example. Simcenter 3D Acoustics HPC software allows you to run acoustic FEM or BEM calculations in multiprocessing mode on the parallel hardware of your choice. Parallel calculation sequences are implemented using the message passing interface (MPI) communication standard. In the case of FEM vibroacoustics, this product incorporates Simcenter Nastran's Distributed Memory Parallelization (DMP) feature. Simcenter 3D Ray Acoustics is used to predict acoustic responses up to very high frequencies and very large geometries, in closed and unlimited domains. Unlike finite element method (FEM) or boundary element method (BEM) acoustic solvers , ray acoustic solutions are not based on a fine domain discretization. Therefore, the solution is not limited by an upper frequency limit or the size of the model and the resolution is done orders of magnitude faster compared to FEM or BEM. Simcenter 3D Ray Acoustics integrates an engineering environment into Simcenter 3D to generate and post-process a ray acoustic model, as well as a ray acoustic solver , which is the CSTB ICARE solver. Module benefits: Start from a structural FEM model or CAD geometry Accelerate the acoustic meshing process for complex geometries Main features: Hybrid polygon-based thickening, hole filling, and rib removal tools Interior and exterior surface wrapping technology based on CAD or CAE model input Easy creation of convex outer boundary surface to build FEM meshes for outdoor acoustics Dominant hexadecimal hybrid hexa and tetra mesher for fluid volumes facilitating efficient solution Shell mesh thickening (reverse of mid-surface) to derive boundary surfaces of fluid cavities, which is useful for muffler and other fluid FEM meshes Module benefits: Runs vibroacoustic simulations (SOL108/SOL111) for indoor or outdoor noise Study outdoor acoustics with lean FEM models thanks to built-in AML technology Efficiently simulate broadband acoustic problems using the adaptive FEMAO solver Main features: Supports standard loads and boundary conditions, as well as specific acoustic boundary conditions such as duct modes and acoustic diffuse field (random) loads 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 Module benefits: Use ATV to calculate the noise of rotating machines with loads of several revolutions per minute (RPM) up to 100 times faster Use VATV to quickly assess cabin noise due to various flow-induced pressure loads load cases such as wind loads and turbulent boundary layers Main features: ATV results are efficiently stored in a Nastran (op2) or Sysnoise (ssndb) result file ATV can be interpolated when used in a forced response context Evaluate acoustic pressure and power and panel, network, and mode contributions to ATV response Module benefits: Conservative mapping of CFD pressure results to acoustic or structural mesh Equivalent aeroacoustic surface dipole sources Equivalent aeroacoustic fan sources for tonal and broadband noise Wind loads, using semi-empirical turbulent boundary layer models or pressure loads mapped from CFD results Derive aeroacoustic sources based on lean surface pressure for stationary and rotating surfaces Provides easy-to-use, scalable load preparation for aerovibroacoustic wind noise simulations Import binary files with load data directly into Simcenter Nastran for response calculation Main features: Conservative mapping of CFD pressure results to acoustic or structural mesh Equivalent aeroacoustic surface dipole sources Equivalent aeroacoustic fan sources for tonal and broadband noise Wind loads, using semi-empirical turbulent boundary layer models or pressure loads mapped from CFD results 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 operational measurements and simulation data Simple application and reuse of forces or vibrations identified in the simulation model Module benefits: Provide a user-friendly interface to simplify the creation of acoustic BEM models for standard and accelerated BEM solvers Supports pure acoustic issues as well as weak or fully coupled vibroacoustic response via modal-based framework definition Leverage dedicated post-processing capabilities to improve engineering insight and user productivity Main features: Provide all standard structural and acoustic loads and boundary conditions to accurately describe your vibroacoustic issues Prepare deterministic and random acoustic and vibro-acoustic analysis Standard post-processing of acoustic results such as acoustic pressure and power and structural vibrations Dedicated diagnostic graphs showing panel contributions and structural modal contributions to acoustic pressure or power Module benefits: BEM solvers , fast and efficient to solve purely acoustic and vibroacoustic problems A multitude of acoustic and structural loads and boundary conditions are supported for an accurate description of your vibroacoustic simulation model Automatic BEM model corrections for free and seam edges Main features: Direct and indirect decoupled acoustic solutions Indirect, loosely coupled and strongly coupled vibroacoustic solutions Deterministic and random acoustic and vibroacoustic analysis Returns standard acoustic and structural response results Provides structural panel contributions and modal contributions to acoustic pressure or power Solutions Guide | Simcenter 3D for acoustic simulation Module benefits: Provides faster calculations for large BEM models (larger geometry and/or higher frequencies) Requires less system memory than standard BEM Supports uncoupled acoustic response as well as coupled vibro-acoustic response simulation Main features: Includes a fast iterative multipole solver as well as a direct hierarchical H-Matrix solver Both solvers support parallel computing, including up to four processes for free, or using more than four processes, when combined with Simcenter 3D Acoustics High Performance Computing (HPC) software Supports the convection effect of a medium (uniform) flow on acoustic wave propagation Module benefits: Allows accurate modeling of transient infinite domain problem Provides solutions to purely acoustic and vibroacoustic problems Provides fast and efficient time-domain solver , also for large models Main features: Dedicated Simcenter 3D Acoustics Transient BEM solver environment for time-domain BEM calculations, i ncluding two analysis types: acoustic transient and vibro-acoustic transient Supports various loads and boundary conditions: Acoustic transient: acoustic monopole, plane wave, infinite plane, acoustic absorber, transfer admittance Transient vibro-acoustics: force applied to the structure (with defined mode representation), pre-computed vibrations, infinite plane, acoustic absorber, transfer admittance, panel Solutions guide | Simcenter 3D for acoustic simulation Module benefits: Accelerates acoustic calculations using multithreading , shared memory parallelization (SMP), multiprocessing, and DMP This product supports high performance computing for Simcenter 3D Acoustics FEM and BEM solvers Main features: Solvers can run in high-performance computing mode on multi-node clusters as well as on multi-core workstations Allows you to solve high frequency problems with DMP for which near linear parallel speed can be expected Module benefits: Solve high-frequency acoustic simulations for large models in a fraction of the time required with FEM or BEM solvers A coarse mesh can be used as it captures model geometry, simplifying model creation Standard acoustic loads and boundary conditions are supported for accurate description of the simulation model Advanced results and post-processing to explore ray path arrivals or sound quality criteria Main features: Returns acoustic results in both frequency and time domains Simulates ray propagation of acoustic waves with adaptive beam-tracking technology Accurately simulates reflections on curved surfaces despite coarse mesh discretization Capture multi-order diffraction effects and creeping waves Captures late reflections and diffusion effects with particle tracking technology Supports standard acoustic loads including point source directivity ___________________________________________________________________________ Simcenter 3D Meshing for Acoustics ___________________________________________________________________________ Simcenter Nastran Advanced Acoustics ___________________________________________________________________________ Simcenter 3D Acoustic Transfer Vector ___________________________________________________________________________ Simcenter 3D Aero-Vibro-Acoustics ___________________________________________________________________________ Simcenter 3D Load Identification ___________________________________________________________________________ Simcenter 3D Environment for BEM Acoustics ___________________________________________________________________________ Simcenter 3D Acoustics BEM solver ___________________________________________________________________________ Simcenter 3D Acoustics Accelerated BEM solver ___________________________________________________________________________ Simcenter 3D Acoustics Time Domain BEM solver ___________________________________________________________________________ Simcenter 3D Acoustics HPC ___________________________________________________________________________ Simcenter 3D Ray Acoustics ⇐ Back to Simcenter

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

State-of-the-art software; 3D Multiphysics Simulation; SIMCENTER 3D; STAR CCM+; FloEFD; FEMAP; Simulation Systems; Flomaster; AMESIM; Simulation and Electromagnetic Design; Magnet; SPEED; Motorsolve; Mentor; Multidisciplinary Optimization; HEEDS; CAD / ECAD design; NX Design Simulation; Solid Edge Mechanical and Electrical and PCB Simcenter 3D Complete and integrated CAE solution Pre/Post Processing Efficient meshing Structural analysis Durability and fatigue analysis Electromagnetic simulations Composite materials Motion simulation Thermal and acoustic simulation Parameterization Know more STAR CCM+ Computational fluid dynamics Particle flow Electrochemical simulation Moving objects Multiphase flow simulation Reactive flow Thermal simulation Battery simulation Electric machines Mechanics of Solids Know more FloEFD Computational fluid dynamics Friendly and intuitive interface Integrated with CAD Cartesian mesh generation Innovative workflow Engineering database Analysis "What-IF" Integration with FloMASTER Compressible flows Combustion processes Know more Products State-of-the-art software, with the Siemens quality seal. Entre em contato WhatsApp 3D Multiphysics Simulation Âncora 1 Femap Inspect finite elements Pre/Post-processing Comprehensive mesh generation FE mount management A multi-CAE solver Meshing 1, 2 and 3D (manual/auto.) Composite materials Basic fluid simulation Thermal simulation Optimization Know more Âncora 2 1D Systems Simulation Âncora 3 Flomaster Simulation of fluid systems Eng. of thermofluid systems Simulation of the propulsion system System integration Piping systems Connection to PLM, CAD and IoT Cost reduction Project acceleration Extensive library and database Model based design Know more Amesim Systems simulation Performance optimization Multiphysics libraries Virtual prototyping Mechanical and electrical systems Fluid and propulsion systems Thermal management systems ROM builder System integration Coupling with CAD software Know more Simulation and Electromagnetic Design Magnet Low frequency simulation AC electromagnetic simulations Hotspot analysis Virtual prototyping Advanced material modeling Effects of hysteresis embedding Modeling of circuits and systems Electric Field Simulations Electromag Movement Simulation. Transient simulation Know more Motorsolve Electric motor design Electric motor winding Importable engine profiles FEA automation Thermal analysis of the engine Performance analysis Extensive template export Model based interface Automated typical operations Hassle-free customization Know more SPEED Electric machine design 2D magnetostatic analysis Includes theoretical and physical models Link to multiphysics software Supports various machine types Exploration and Optimization Automated design space Model based design Model based design Integration with HEEDS Know more Âncora 4 Otimização Multidisciplinar Âncora 5 HEEDS Interface design and optimization Integration to all CAD/CAE Process automation Distributed execution polycarbonate Collaboration Efficient search Insight & Discovery Performance comparison Digital twin Know more Design CAD / ECAD Âncora 6 NX Intuitive design environment Define, reuse and validate Generative Engineering Integrated simulation and manufacturing Electromechanical design Collaborative processes Industrial Additive Manufacturing Mold and die design Electrode design Reverse engineering Know more Solid Edge Multi CAD platform Design, simulation and manufacturing Synchronous and Ordered Technology 2D/3D, sheet metal and assembly PCB design Rendering Additive/subtractive manufacturing Automatic template correction Structural/fluid dynamic analysis Reverse engineering Know more Solid Edge Electrical Wiring project Electrical whip Electrical routing Simulation of electrical systems Collaborative PCB design 2D control panel layout Electrical/mechanical integration Robust library Adjustable and reusable layout Sync with Teamcenter Know more

Simcenter Femap is an advanced simulation tool for creating, editing and inspecting finite element models of complex products or systems. Pre/Post-processing; mesh; composites; Structural simulation; Thermal simulation; Structural Optimization; capture CAE processes, standardize and automate them Simcenter Femap Simcenter Femap is an advanced simulation tool for creating, editing and inspecting finite element models of complex products or systems. You can use advanced workflows in Simcenter Femap to model components, assemblies, or systems to then determine a model's behavioral response when subjected to real-world conditions. In addition, Simcenter Femap offers a powerful data-driven graphical results visualization and evaluation tool, which, in combination with industry-leading Simcenter Nastran, provides a complete CAE solution, ensuring that products reproduce design performance in the real environments and makes it possible to improve this performance. Contact an Expert Pre /Post Processing Mesh Composites Basic fluid simulation Structural simulation Thermal simulation Optimization Simulation of automation and scalability Reduce time spent preparing analysis models and get more time to evaluate results. Rapidly advance manipulation of multi-CAD geometries to prompt execution of CAE models, comprehensive meshing, FE assembly management, multi-CAE solver environments, and simulation data post-processing. Efficiently mesh your models using comprehensive automatic and/or manual modeling functions of 1D, 2D, and 3D elements, as well as numerous techniques for applying loads and boundary conditions. User-defined geometry edits, meshes, and boundary conditions are all tied to the base design, which means that when the base design geometry changes, you can quickly update your model. This approach greatly reduces downstream modeling time , which results in huge time savings in the many iterations of analysis and design of a product. In their quest to create lighter yet stronger products, manufacturers are increasingly using composite materials. It is at the forefront of component analysis through the continuous development of material models and element types. Simcenter accelerates the entire laminated composite simulation process through a seamless connection to composite design, accurate solvers , and comprehensive post-processing. Simcenter Femap allows a view of the basic behavior of a fluid together with all associated physics in the FEA model. Understanding how a product component or assembly reacts under stress or vibration is critical in any industry. However, as products and materials become increasingly complex, engineers need tools that go beyond linear-static analyses. Simcenter Femap provides the structural analysis software you need to simulate a wide range of applications in a single environment and in conjunction with industry-leading Simcenter Nastran. Simcenter Femap includes first-class and complete thermal simulation capabilities that can help you understand your product's thermal characteristics and subsequently tailor your thermal management solution for optimal performance. How can I reduce material in a component or change its properties, ensuring it continues to meet performance targets? Simcenter Femap offers engineering optimization techniques that can help you answer these questions by systematically looking for the best design that satisfies certain criteria. Reduce component weight or find the right combination of parameters to improve product performance through full topology, geometry and parameter optimization capabilities. As companies increase their reliance on simulation, they are looking for ways to speed up the analysis process and increase simulation throughput. One of the ways to increase simulation throughput is to capture repetitive CAE processes, standardize and automate them. Simcenter allows you to capture the experience of senior analysts and make it available to junior engineers in your organization for use in the form of wizards or templates. ⇐ Voltar para Produtos

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

Simcenter SPEED Design and analyze engines and generators analytically. Industry's most used rotating machine design software. Permanent magnet and synchronous, induction, reluctance, DC with brushes, commutated with field winding and axial flux machines, among others. Simcenter SPEED Design and analyze motors and generators analytically in Simcenter SPEED, which provides access to theoretical and physical models of most major classes of electrical machines (for example, electrically excited synchronous and permanent magnet machines, induction, reluctance, DC with brushes, switched with field and axial flux winding), along with their drives. In addition, Simcenter SPEED writes a predefined set of specific parameters and maps that can be imported into Simcenter Amesim, supporting system-level simulation of the electronic machine integrated into its environment. Contact an Expert Electric machine rapid design software Simcenter SPEED features Industry's most used rotary machine design software Link with Multiphysics software Automated Design Space Exploration and Optimization Simcenter SPEED software supports engineers in virtually validating design choices through detailed analytical simulation, fast and intelligent use of 2D finite element magnetostatic analysis. It includes all the theoretical and physical models needed for rapid electrical machine design with a flexible approach and an interface with links to even more accurate and detailed analyzes and simulations such as 2D and 3D Multiphysics Finite Element/Finite Volume (FE/FV) magnetostatic or magnetotransient, thermal, mechanical or vibroacoustic. Electric machine model: set up an electric machine model quickly; Multiphysics software link : model export to finite element software ; Design Exploration: Evaluate the influence of parameters or optimize machine performance for one or more objectives; System-Level Simulation: Export model data for a system-level simulation in Simcenter Amesim. Simcenter SPEED supports the most common machine types including motor, generator and also inverters. The user can benefit from predefined templates for the following machines: Synchronous machines (PC-BDC) Induction machines (PC-IMD) Switched reluctance machines (PC-SRD) Brushed PM-DC machines (PC-DCM) Wound Field Switched Machines (PC-WFC) Axial flow machines (PC-AXM) To improve simulation accuracy, Simcenter SPEED provides links to several general purpose electromagnetic finite element solvers such as Simcenter STAR-CCM+, Simcenter MAGNET or to Simcenter SPEED's dedicated tool, SPEED FEA Solver. They make it possible to model and study the electrical machine more accurately and under specific conditions, with saturation and the occurrence of faults. In general, users can connect Simcenter SPEED with other tools needed for complete electrical machine solution using various scripts or programming languages. More specifically, automation makes use of scripting capabilities , driving Simcenter SPEED alone, or in conjunction with other programs such as STAR-CCM+. This automated workflow follows the scripting approach and uses STAR-CCM+ and its multiphysics solvers for electromagnetic, thermal (full 3D conjugated heat transfer) and mechanical stress analysis, along with Java scripts to provide and provide additional information. Vibroacoustics can also be studied by combining FE models of the stator and frame subsystem with a BE model of the surrounding free space to assess the sound quality of the electrical machine. The objective is to eliminate noise through simulation in Simcenter 3D Acoustics. What is the expected end result of this Model-Based Systems Engineering approach? Answer: a support for making the best design choice , and by “best” I mean the optimized viable choice, again through an efficient and continuous workflow. As mentioned, Simcenter SPEED delivers results almost instantly thanks to its analytical approach, which makes it very suitable for Design Space Exploration programs, supporting clients with “What if” studies and optimization runs. HEEDS is a powerful software package in the Simcenter portfolio that automates this process of exploring the design space, and Simcenter SPEED provides an integrated graphical user interface for accessing HEEDS. ⇐ Back to Tools

Simcenter STAR-CCM+ computational fluid dynamics (CFD) software capable of running complex multiphysics simulations of products operating under real operating conditions. DEM particle flux; Electrochemical Simulation; Moving objects; Multiphasic; Reactive; Rheology; Drums; Motor; solids; Simcenter STAR-CCM+ Simcenter STAR-CCM+ is a computational fluid dynamics (CFD) software capable of running complex multiphysics simulations of products operating under real operating conditions . Simcenter STAR-CCM+ also incorporates design exploration and optimization technology as the basis of the simulation toolkit available to the engineer. The unique integrated environment includes the entire workflow from CAD, automated meshing, multiphysics CFD, sophisticated post-processing and design exploration. This allows engineers to efficiently explore the entire design space to make better decisions faster. The additional insight gained from using Simcenter STAR-CCM+ to guide your design process leads to more innovative products that exceed customer expectations. Contact an Expert Computational fluid dynamics simulation (CFD) Particle flow Project Exploration Electrochemical Simulation Moving objects Multiphase Flow Simulation Reactive Flow Modeling and Rheology Thermal simulation Battery simulation Co-simulation Electric machines Engine simulation Mechanics of Solids Simc enter provides industry-leading Computational Fluid Dynamics (CFD) software for fast and accurate CFD simulation of engineering problems involving the flow of liquids, gases (or a combination of both), along with all the associated physics. The discrete element method can be used to simulate the motion of a large number of discrete objects (particles) that interact with each other, such as the granular flow of aggregates, food particles, metal powders, capsule tablets, and wheat or grass. Simcenter is the first commercial engineering simulation tool to include a DEM feature fully coupled with numerical flow simulation. Design exploration software takes simulation to the next level, allowing users to determine appropriate variable values, thereby generating product designs that result in exceptional performance Significantly improving a battery design throughout its operating range is a challenging task and involves the simultaneous optimization of several parameters. Simcenter provides a complete simulation environment for electrochemical system analysis and design and detailed geometry of individual battery cells. Within a single CFD software environment , Simcenter empowers users to simulate not only a wide range of physics, but also a wide range of body and mesh movements to accurately capture their physics. With our motion models for CFD simulations, you can simulate the real-world performance of moving and overlapping objects with an overset mesh , predict the dynamic motion of bodies with 6 degrees of freedom, understand multiphysics interactions to model performance in operation, easily drive geometric changes for design exploration, easily predict machine behavior in rotation/translation, and define sophisticated motions to accurately replicate machine operations. Accurately representing the physical behavior of different fluid and solid phases is critical to capturing the real performance of your product. Simcenter offers a variety of Eulerian and Lagrangian modeling capabilities to meet your multiphase flow simulation needs. Gain insight into the interactions between the turbulent flow field and the underlying chemistry of reaction flows. Simcenter helps you to improve the balance between your device's performance and emissions for different operating conditions. Computational rheology is used to model non-Newtonian or viscoelastic materials in industrial problems. The module for rheology accurately solves the flow of complex rheological material and helps to predict its behavior under real operating conditions. Star CCM+ includes first-class, comprehensive thermal simulation capabilities that can help you understand your product's thermal characteristics and subsequently tailor your thermal management solution for optimal performance. Digitally validate cell design , including cell performance and geometric specifications with battery CFD simulation. Extensive battery cell components are available, as well as a materials database to support the user in model development using CFD analysis. Pair with other simulation tools through dedicated interfaces or an intuitive API. This enables multiphysics simulations with different time scales ranging from microseconds to thousands of seconds, providing faster, more accurate analysis and shorter turnaround times for developing and evaluating complex designs. Complete analytical models cover all aspects of electrical machine design, including thermal, electromagnetic, and drive control. Particularly important in this regard is the efficient use and even disposal of magnets. Our simulation tools are structured to provide seamless design capability across the full range of permanent magnet and reciprocating machines, including hybrid combinations, and cover the full range of power, voltage and speed used in vehicular systems. Engine simulations involve moving components, multiphase flow, combustion and heat transfer. You no longer need to be an expert user to simulate internal combustion engines: using an application-specific workflow and a streamlined interface, you can quickly and easily set up engine simulations. Experienced users can use these simulations as a starting point to perform more complex multiphysics engine simulations, exploiting the full range of Simcenter STAR-CCM+ simulation capabilities. Almost all real-world engineering problems ultimately depend on the interaction between fluids and solid structures. Simcenter STAR-CCM+ offers finite volume (FV) based computational fluid dynamics and finite element (FE) based computational solid mechanics (CSM) in a single, easy-to-use, integrated user interface. Using this approach, you can solve static, quasi-static, and dynamic problems, including those with nonlinear geometry and multiple parts using sliding and glued contacts. ⇐ Back to Tools