Alternatives to FLOW-3D

Azore is software for computational fluid dynamics. It analyzes fluid flow and heat transfers. CFD allows engineers and scientists to analyze a wide range of fluid mechanics problems, thermal and chemical problems numerically using a computer. Azore can simulate a wide range of fluid dynamics situations, including air, liquids, gases, and particulate-laden flow. Azore is commonly used to model the flow of liquids through a piping or evaluate water velocity profiles around submerged items. Azore can also analyze the flow of gases or air, such as simulating ambient air velocity profiles as they pass around buildings, or investigating the flow, heat transfer, and mechanical equipment inside a room. Azore CFD is able to simulate virtually any incompressible fluid flow model. This includes problems involving conjugate heat transfer, species transport, and steady-state or transient fluid flows.

DigitalClone for Additive Manufacturing (DCAM) is a comprehensive suite of metal additive manufacturing simulation and modeling capabilities that allows for seamless design and analysis support. DC-AM uses a multiscale, multi-physics analysis approach to link the process - microstructure and fatigue relationship of additively produced parts to enable computational assessment for quality and performance. DC-AM encourages the adoption of AM in safety-critical sectors by providing unprecedented insight into build conditions and the characteristics and final parts. This allows for a reduction in time and cost, as well as allowing for a reduction in the time and costs required to qualify parts.

Ansys Motor-CAD serves as a specialized tool for the design of electric machines, facilitating rapid multiphysics simulations throughout the entire torque-speed operating range. It allows design engineers to assess various motor configurations and concepts to create designs that maximize performance, efficiency, and compactness. With its four integrated modules—EMag, Therm, Lab, and Mech—Motor-CAD enables quick and iterative multiphysics calculations, significantly reducing the time from initial concept to finalized design. This efficiency in calculations and streamlined data input processes provides users with the opportunity to investigate a broader array of motor topologies and thoroughly evaluate the effects of advanced loss mechanisms in the early phases of electromechanical design. The latest release boasts enhanced capabilities for design optimization, multiphysics analysis, and system modeling tailored specifically for electric motors, ensuring that engineers have the tools they need for cutting-edge development. Ultimately, Motor-CAD's fast multiphysics simulation capabilities across the full torque-speed range empower engineers to innovate and refine electric motor designs with unprecedented efficiency.

Utilize COMSOL's multiphysics software to replicate real-world designs, devices, and processes effectively. This versatile simulation tool is grounded in sophisticated numerical techniques. It boasts comprehensive capabilities for both fully coupled multiphysics and single-physics modeling. Users can navigate a complete modeling workflow, starting from geometry creation all the way to postprocessing. The software provides intuitive tools for the development and deployment of simulation applications. COMSOL Multiphysics® ensures a consistent user interface and experience across various engineering applications and physical phenomena. Additionally, specialized functionality is available through add-on modules that cater to fields such as electromagnetics, structural mechanics, acoustics, fluid dynamics, thermal transfer, and chemical engineering. Users can select from a range of LiveLink™ products to seamlessly connect with CAD systems and other third-party software. Furthermore, applications can be deployed using COMSOL Compiler™ and COMSOL Server™, enabling the creation of physics-driven models and simulation applications within this robust software ecosystem. With such extensive capabilities, it empowers engineers to innovate and enhance their projects effectively.

FEATool Multiphysics – "Physics Simulator Made Easy" – a fully integrated physics simulation, FEA and CFD toolbox. FEATool Multiphysics provides a fully integrated simulation platform that includes a unified user interface for several multi-physics solvers such as OpenFOAM and Computational fluid dynamics (CFD), including SU2 Code and FEniCS. This allows users to model coupled physics phenomena, such as those found in fluid flow and heat transfer, structural, electromagnetics acoustics and chemical engineering applications. FEATool multiphysics is a trusted tool for engineers and researchers in the energy, automotive and semi-conductor industries.

Dive CAE is a cloud-based software platform designed for computational fluid dynamics that empowers engineers to model intricate fluid dynamics phenomena, including free-surface flows, multiphase interactions, heat transfer, and the dynamics of moving machinery, all through a mesh-free Smoothed Particle Hydrodynamics approach. Accessible directly from a web browser and optimized for high-performance computing systems, it eliminates the need for local hardware or installation processes. This innovative mesh-free method facilitates the modeling of complex geometries, accounts for surface tension, handles non-Newtonian fluids, and addresses transient flow scenarios without the cumbersome meshing and adjustments typical of traditional CFD methods. Users can quickly onboard, usually within a single day, while the software is designed to support parallel design-of-experiment workflows, allowing for numerous iterations to be completed in just hours rather than days. Dive CAE prioritizes collaboration among users, offers a straightforward licensing model (a single license for all), ensures transparent cost management, adheres to data usage governance, and provides scalability through its cloud-based architecture, making it an attractive choice for engineering teams looking to enhance their fluid dynamics simulations. This combination of features not only streamlines the simulation process but also fosters efficient teamwork and innovation in project development.

Simcenter STAR-CCM+ is an advanced multiphysics computational fluid dynamics (CFD) software that enables the simulation of products in conditions that mimic real-life scenarios. This software stands out by incorporating automated design exploration and optimization into the CFD toolkit accessible to engineers. With a unified platform that encompasses CAD, automated meshing, multiphysics CFD capabilities, and advanced postprocessing, it empowers engineers to thoroughly investigate the entire design landscape, facilitating quicker and more informed design choices. By leveraging the insights offered by Simcenter STAR-CCM+, the design process becomes more strategic, ultimately resulting in innovative products that surpass customer expectations. Enhancing a battery's performance across its complete operating spectrum is a complex endeavor that necessitates the concurrent optimization of various parameters. In this context, Simcenter delivers a comprehensive simulation environment tailored for the analysis and design of electrochemical systems, fostering a deeper understanding of their behavior. This holistic approach allows engineers to tackle intricate challenges with confidence and precision.

MFiX, which stands for Multiphase Flow with Interphase eXchanges, serves as an open-source solver designed for multiphase flow and is recognized as NETL’s primary suite of computational fluid dynamics tools for simulating reacting multiphase flows. It has established itself as a benchmark for the comparison, implementation, and assessment of constitutive models in multiphase flow scenarios and has been utilized across a wide variety of multiphase flow devices and industrial applications. Offering various modeling techniques, MFiX includes the Two-Fluid Model, Discrete Element Model, Coarse-Grained Particle DEM, Superquadric Particle DEM, Glued-Sphere Particle DEM, Particle-in-Cell model, hybrid approaches, and a dedicated single-phase solver tailored for granular flows. These advanced models enable the simulation of numerous systems such as gasifiers, circulating fluidized bed combustors, fluidized beds, fluid catalytic crackers, and chemical looping combustion systems, addressing complex interactions involving hydrodynamics, heat transfer, species transport, and various chemical reactions. As a result, MFiX contributes significantly to the understanding and optimization of these intricate processes in both research and industrial settings.

Metariver Technology Co., Ltd. develops innovative and creative computer-aided engineering (CAE) analysis S/W based upon the most recent HPC technology and S/W technologies including CUDA technology. We are changing the paradigm in CAE technology by using particle-based CAE technology, high-speed computation technology with GPUs, and CAE analysis software. Here is an introduction to our products. 1. Samadii-DEM: works with discrete element method and solid particles. 2. Samadii-SCIV (Statistical Contact In Vacuum): working with high vacuum system gas-flow simulation. 3. Samadii-EM (Electromagnetics) : For full-field interpretation 4. Samadii-Plasma: For Analysis of ion and electron behavior in an electromagnetic field. 5. Vampire (Virtual Additive Manufacturing System): Specializes in transient heat transfer analysis.

In industries where the integrity of welded structures is critical, TRANSWELD® provides a cutting-edge and comprehensive solution for predicting potential welding imperfections. This advanced simulation software employs multi-physical models to accurately reflect the actual behavior of metal in both liquid and mushy phases, enabling an in-depth analysis of material transformations. Furthermore, TRANSWELD® facilitates the examination of the microstructure in solid-state assemblies. With this tool, you can ensure that your welded components meet required standards without the need for physical prototypes. Our software is entirely predictive, allowing users to digitally observe welding processes under realistic conditions. For instance, it enables the visualization of the heat source movement during simulations of techniques such as laser welding or arc welding, enhancing understanding and efficiency in the welding process. Such capabilities not only streamline production but also significantly reduce the risk of defects in the final product.

Enhance engineering processes with the only comprehensive and user-friendly CFD platform designed for multidisciplinary design and optimization. Computational fluid dynamics (CFD) plays a crucial role in multiphysics system analysis, allowing for the simulation of fluid behavior and thermodynamic characteristics through advanced numerical models. Engineers leverage the Cadence Fidelity CFD platform for various design tasks, including propulsion, aerodynamics, hydrodynamics, and combustion, to enhance product efficiency while minimizing the need for costly and time-intensive physical testing. This robust Fidelity CFD platform offers a seamless end-to-end solution tailored for applications across aerospace, automotive, turbomachinery, and marine sectors. With its efficient workflows, massively parallel architecture, and cutting-edge solver technology, the platform delivers remarkable performance and accuracy, significantly boosting engineering productivity in addressing contemporary design challenges. Ultimately, Fidelity stands out by not only simplifying complex processes but also enabling engineers to innovate rapidly and effectively.

iGRAF is a comprehensive simulation tool that integrates powder and multiphase flow dynamics, effectively bridging the gap between these two domains. This innovative solution is tailored to accurately replicate a diverse array of powder behaviors while setting new benchmarks in simulation technology. With its advanced DEM-CFD solver, iGRAF provides users with the capability to perform precise analyses of both single-phase and multiphase flows, thereby enhancing the understanding of particle-fluid interactions within a unified platform. The tool's dynamic geometry control features allow for translations, rotations, vibrations, and customizable motion, enabling teams to effectively capture the intricate dynamics of complex systems. Additionally, it incorporates validated models for liquid bridging and van der Waals forces to evaluate the effects of moisture and adhesion on particle behavior, with its liquid bridge force model confirmed for moisture levels of up to 15%. Furthermore, iGRAF employs the Signed Distance Function along with the Immersed Boundary Method to adeptly identify and manage arbitrary solid geometries, ensuring flexibility in various applications. This versatility makes iGRAF an invaluable asset for researchers and engineers working with complex multiphase systems.

samadii/em oftware that analyzes and calculates the electromagnetic field in 3d space using the Maxwell equation using vector FEM ad GPU computing. it provides electrostatics, magnetostatics as well and induction electronics, including the low-frequency and high-frequency ranges. samadii/em provides a multi-physics approach and high-performance electromagnetics simulation, with Samadii you can quickly address problems from semiconductors and displays to wireless communications, etc.

When utilized early in the product development process, Inspire enhances the creation, optimization, and examination of innovative and structurally efficient components and assemblies through collaborative efforts. Its award-winning interface for geometry creation and modification can be mastered within just a few hours, all while providing the robust power of Altair solvers. The structural analysis capabilities, validated by NAFEMS, allow for swift and accurate evaluations using Altair® SimSolid®, making it possible to analyze extensive assemblies and intricate parts. Additionally, it offers dynamic motion simulation and load extraction through the trusted multi-body systems analysis of Altair® MotionSolve®. Furthermore, Altair® OptiStruct® sets the industry benchmark for structural efficiency with its topology optimization, facilitating generative design that yields practical and manufacturable geometries. Inspire empowers both simulation analysts and designers to conduct what-if analyses more quickly and easily, fostering an environment of collaboration and innovation. This approach not only enhances productivity but also encourages teams to explore a wider range of design possibilities earlier in the development cycle.

Adaptive Research is excited to unveil the CAESIM 2024 simulation platform, which is now available for immediate use, featuring enhanced computational fluid dynamics modeling along with multi-physics functionalities. This latest software version introduces innovative tools and features designed to streamline the modeling process, enabling CFD engineers to achieve rapid simulation results with greater efficiency. Additionally, the platform aims to enhance user experience through improved interfaces and capabilities.

Fusion 360 seamlessly integrates design, engineering, electronics, and manufacturing into one cohesive software environment. It offers a comprehensive suite that combines CAD, CAM, CAE, and PCB capabilities within a single development platform. Additionally, users benefit from features like EAGLE Premium, HSMWorks, Team Participant, and various cloud-based services, including generative design and cloud simulation. With an extensive range of modeling tools, engineers can effectively design products while ensuring their form, fit, and function through multiple analysis techniques. Users can create and modify sketches using constraints, dimensions, and advanced sketching tools. It also allows for editing or fixing imported geometry from other file formats with ease. Design modifications can be made without concern for time-dependent features, enabling flexibility in the workflow. Furthermore, the software supports the creation of intricate parametric surfaces for tasks such as repairing or designing geometry, while history-based features like extrude, revolve, loft, and sweep dynamically adapt to any design alterations made. This versatility makes Fusion 360 an essential tool for modern engineering practices.

Particleworks is a cutting-edge particle-based software designed for computational analysis and fluid dynamics, specifically for simulating liquid and multiphase flows through the innovative Moving Particle Simulation technique. Its unique mesh-less solver, combined with an easy-to-navigate interface, ensures that even intricate geometries with dynamic components such as gear systems, electric motors, and internal combustion engines can be simulated quickly and efficiently. In contrast to traditional mesh-dependent CFD approaches, Particleworks automatically divides the fluid domain using particles, which simplifies the analysis of various phenomena like free-surface flow, splashing, and sloshing, while also facilitating the study of mixing, lubrication, cooling, oil behavior, water interactions, and the characteristics of highly viscous fluids. Additionally, the software offers a comprehensive graphical user interface that streamlines the entire process from model setup and simulation execution to result visualization and performance assessment, making it an invaluable tool for engineers engaged in fluid dynamics. With its ability to handle complex simulations effectively, Particleworks empowers users to tackle a wide range of industrial applications with confidence.

Elevate your product design and development process by utilizing Creo, the advanced 3D CAD/CAM/CAE software that enables you to imagine, design, create, and innovate with ease. In today's competitive landscape, product design and manufacturing teams face increasing demands to enhance efficiency and reduce costs while maintaining high standards of creativity and quality. Thankfully, Creo offers a diverse and scalable suite of 3D CAD tools that stand out in the market. The latest version, Creo 7.0, introduces groundbreaking advancements in generative design, real-time simulation, multibody design, additive manufacturing, and more. Transitioning your ideas from initial concept to digital prototype has never been simpler, more accurate, or more intuitive than with Creo, which has been at the forefront of CAD technology for over three decades. With the release of Creo 7.0, PTC showcases its expertise in enriching an already powerful toolset, leveraging strategic partnerships to further enhance its functionalities and meet evolving industry needs. This evolution points to a future where your design capabilities can grow alongside your business aspirations.

Ansys Rocky is an advanced discrete element method simulation solution designed to help engineers accurately model particle behavior in complex industrial processes. The software specializes in analyzing granular materials and particle interactions using highly realistic representations of particle shapes, sizes, and physical properties. With multi-GPU acceleration, Ansys Rocky can process large particle counts efficiently, allowing users to tackle computationally demanding simulations with faster turnaround times. The platform supports sophisticated physics models, including wear analysis, particle breakage, cohesion effects, fluid-particle interactions, and multiphysics simulations. Integration with Ansys Fluent and other engineering tools enables users to combine DEM, CFD, and structural analysis for deeper insight into system performance. Engineers can import 3D scans, simulate non-spherical particles, and model fibers and shell-based materials with high accuracy. The software is used in industries such as manufacturing, mining, pharmaceuticals, agriculture, energy, and consumer products where particle flow behavior plays a critical role. Automation and scripting capabilities help streamline workflows and reduce manual setup effort. By providing detailed insight into particle dynamics and equipment interactions, Ansys Rocky supports better engineering decisions and faster product innovation.

OpenFOAM is a free and open-source computational fluid dynamics (CFD) software that has been developed by OpenCFD Ltd since its inception in 2004. It boasts a vast user community spanning various engineering and scientific fields, including users from both industry and academia. The software offers a comprehensive suite of features capable of addressing a wide array of challenges, such as intricate fluid dynamics involving chemical reactions, turbulence, heat transfer, as well as applications in acoustics, solid mechanics, and electromagnetics. To ensure continuous improvement, OpenFOAM is released biannually, incorporating enhancements funded by users and contributions from the wider community. The software undergoes thorough testing conducted by ESI-OpenCFD's application specialists, development collaborators, and select customers, all supported by ESI's global network and commitment to quality. The assurance of quality is maintained through a stringent testing regime, which entails hundreds of daily unit tests, a moderate set of tests carried out weekly, and an extensive industry-focused test suite. This meticulous approach ensures that OpenFOAM remains reliable and effective for its diverse user base. Moreover, the collaborative nature of its development fosters a vibrant community that continually drives innovation within the software.

Subjecting your designs to real-world scenarios can significantly enhance product quality while simultaneously minimizing the costs associated with prototyping and physical testing. The SOLIDWORKS® Simulation suite offers a user-friendly collection of structural analysis tools that employ Finite Element Analysis (FEA) to forecast how a product will behave in actual physical conditions by virtually evaluating CAD models. This comprehensive portfolio is equipped with capabilities for both linear and non-linear static and dynamic analyses. With SOLIDWORKS Simulation Professional, you can refine your designs by assessing mechanical resistance, durability, topology, natural frequencies, as well as examining heat transfer and potential buckling issues. Additionally, it facilitates sequential multi-physics simulations to enhance design accuracy. On the other hand, SOLIDWORKS Simulation Premium allows for an in-depth assessment of designs concerning nonlinear and dynamic responses, dynamic loading conditions, and composite materials. This advanced tier also features three specialized studies: Non-Linear Static, Non-Linear Dynamic, and Linear Dynamics, ensuring a thorough evaluation of your engineering projects. By leveraging these powerful tools, engineers can achieve greater design confidence and innovation.

Effortlessly combine COMSOL Multiphysics® with MATLAB® to broaden your modeling capabilities through scripting within the MATLAB framework. The LiveLink™ for MATLAB® feature empowers you to access the comprehensive functionalities of MATLAB and its various toolboxes for tasks such as preprocessing, model adjustments, and postprocessing. Elevate your custom MATLAB scripts by integrating robust multiphysics simulations. You can base your geometric modeling on either probabilistic elements or image data. Furthermore, leverage multiphysics models alongside Monte Carlo simulations and genetic algorithms for enhanced analysis. Exporting COMSOL models in a state-space matrix format allows for their integration into control systems seamlessly. The COMSOL Desktop® interface facilitates the utilization of MATLAB® functions during your modeling processes. You can also manipulate your models via command line or scripts, enabling you to parameterize aspects such as geometry, physics, and the solution approach, thus boosting the efficiency and flexibility of your simulations. This integration ultimately provides a powerful platform for conducting complex analyses and generating insightful results.

Simufact Welding is a versatile product line that delivers extensive capabilities for simulating the elastic-plastic behavior of materials alongside structural welding processes. This software encompasses a variety of welding techniques, enabling users to model and simulate numerous thermal joining methods, including conventional arc and beam welding as well as brazing. Furthermore, it allows for the modeling of heat treatment processes, variations in cooling and unclamping setups, and the mechanical loading of welded structures. It is essential to identify critical distortions related to assembly, bulging, imbalances, and clearances during the simulation process. Users can also explore and enhance clamping tools before making any financial commitments to tool investments. This software aids in determining the most effective welding directions and sequences, ultimately leading to improved welding outcomes and more efficient production processes. Additionally, it supports engineers in refining their designs for optimal performance and reliability.

Energy2D is an interactive multiphysics simulation program grounded in computational physics, designed to model the three primary modes of heat transfer: conduction, convection, and radiation, while also integrating particle dynamics. This software operates efficiently on a wide range of computers, simplifying the process by removing the need for switches between preprocessors, solvers, and postprocessors that are usually necessary for computational fluid dynamics simulations. Users can create "computational experiments" to explore scientific hypotheses or address engineering challenges without the need for intricate mathematical formulations. Additionally, development is ongoing to introduce various energy transformation types and to enhance support for different fluid types. While Energy2D excels in accurately modeling conduction, its representations of convection and radiation are not entirely precise, which means results involving these elements should be regarded as qualitative. Over 40 scientific papers have utilized Energy2D as a valuable research instrument, showcasing its adoption in the academic community. As the program evolves, its capabilities are expected to expand further, potentially offering more comprehensive insights into complex physical interactions.

Welding Sequence Optimizer plugin is for Simufact Welding™. It offers a useful digital toolkit of Artificial Intelligence algorithms and Machine Learning algorithms that will allow you to minimize the inherent weld deformation. WSO has different algorithms that are suitable for specific stages of the Product Delivery Process (PDP). WSO is a fast configuration that takes less than 15 minutes and requires no human interaction to find the best sequence. Currently, you can modify the objective function for a critical area, GD&T, or any other Simufact results like XYZ displacement. Multirobot optimization is also supported.

Effective design and operation of production systems necessitates a comprehensive grasp of the behavior of multiphase flow. Utilizing flow modeling and simulation offers critical insights into the dynamics of flow, encompassing the physical principles that govern movement throughout the entire production system, starting from the reservoir's pore spaces and extending to processing facilities. The Olga dynamic multiphase flow simulator is adept at modeling transient flow behaviors, which are crucial for optimizing production capabilities. Such transient modeling is vital for conducting feasibility assessments and designing field developments. In deepwater contexts, dynamic simulation plays a pivotal role and is frequently employed in both offshore and onshore projects to analyze transient behaviors in pipelines and wellbores. By employing the Olga simulator for transient simulation, engineers can gain deeper insights beyond steady-state analyses, enabling them to forecast system dynamics, including fluctuations in flow rates, variations in fluid compositions, changes in temperature, the buildup of solids, and alterations in operational parameters. Consequently, mastering these transient characteristics is essential for improving efficiency and reliability in production operations.

nCode DesignLife serves as a proactive design tool that pinpoints essential areas and estimates realistic fatigue lifespans based on top finite element (FE) analysis results applicable to both metals and composites. This innovative tool empowers design engineers to enhance their approach beyond basic stress assessments, enabling them to simulate real-world loading scenarios and thereby mitigate the risks of both under-design and over-design in their products, which can lead to expensive modifications later on. Additionally, the software offers features like virtual shaker testing, fatigue analysis for welds, vibration fatigue assessments, crack growth monitoring, fatigue evaluation for composites, and thermo-mechanical fatigue studies. It leverages advanced technologies for analyzing multiaxial stress, weld integrity, short-fiber composites, vibrational impacts, crack propagation, and thermal stress fatigue. With a user-friendly graphical interface, it facilitates comprehensive fatigue analysis using data from leading FEA tools such as ANSYS, Nastran, Abaqus, Altair OptiStruct, LS-Dyna, among others. Moreover, it incorporates multi-threaded and distributed processing capabilities, enabling efficient handling of large finite element models and optimizing overall usage schedules. This powerful combination of features ultimately ensures that engineers can deliver more reliable and efficient designs.

Ansys RedHawk-SC stands as the industry's premier solution for voltage drop and electromigration multiphysics sign-off in digital designs, recognized for its reliability. Its advanced analytics swiftly uncover vulnerabilities and facilitate what-if scenarios to enhance both power efficiency and performance. The cloud-based framework of RedHawk-SC ensures it can efficiently manage full-chip analyses with remarkable speed and capacity. The signoff precision is validated by all leading foundries across all finFET nodes, including those down to 3nm. Through its sophisticated power analytics, Ansys RedHawk-SC supports the creation of robust, low-power digital designs without sacrificing performance, offering designers extensive methods to identify and rectify dynamic voltage drop issues. The trusted multiphysics signoff analysis provided by Ansys RedHawk-SC significantly mitigates project and technology risks. Additionally, its algorithms have been rigorously validated by major foundries for all finFET processes and have demonstrated success in countless tapeouts, further solidifying its reputation in the industry. As technology continues to evolve, the capabilities of Ansys RedHawk-SC will adapt to meet future challenges in digital design.

VSim is a sophisticated Multiphysics Simulation Software tailored for design engineers and research scientists who seek accurate solutions for complex challenges. Its exceptional integration of Finite-Difference Time-Domain (FDTD), Particle-in-Cell (PIC), and Charged Fluid (Finite Volume) methodologies ensures reliable outcomes across various applications, including plasma modeling. As a parallel software tool, VSim adeptly tackles large-scale problems, with simulations that execute rapidly thanks to algorithms optimized for high-performance computing environments. Renowned by researchers in over 30 countries and utilized by professionals across fields such as aerospace and semiconductor manufacturing, VSim guarantees results with verified accuracy that users can depend on. Developed by a dedicated group of computational scientists, Tech-X’s software has garnered thousands of citations in scientific literature, and VSim is prominently featured in many leading research institutions worldwide. Furthermore, its continued evolution reflects the commitment to meeting the ever-growing demands of modern scientific inquiry.

Ansys SPEOS offers predictive capabilities for illumination and optical system performance, significantly reducing both prototyping time and costs while enhancing the efficiency of your products. With a user-friendly and detailed interface, Ansys SPEOS boosts productivity through GPU utilization for simulation previews and provides seamless integration with the Ansys multiphysics ecosystem. The tool's accuracy has been validated by the International Commission on Illumination (CIE) against the CIE 171:2006 standards, demonstrating the advantages of its light modeling software. Activate the lighting in your virtual model to easily investigate light propagation in a three-dimensional space. The SPEOS Live preview feature includes both simulation and rendering tools, allowing for an interactive design experience. By conducting accurate simulations on the first attempt, you can reduce iteration times and accelerate your decision-making, all while automatically optimizing the designs for optical surfaces, light guides, and lenses. This innovative approach not only streamlines the design process but also empowers creators to achieve higher precision in their optical designs.

OnScale stands out as the pioneering platform for Cloud Engineering Simulation, merging advanced multiphysics solver technology with the boundless computational capabilities of cloud supercomputers. This innovative solution empowers engineers to execute a vast array of full 3D multiphysics simulations concurrently, enabling the creation of authentic Digital Prototypes that represent the complete operational behavior of intricate high-tech devices. With the aim of delivering an exceptional Cloud Engineering Simulation experience, OnScale Solve is designed to be intuitive, robust, and effective. It operates seamlessly on both public and private cloud supercomputers and features a user-friendly web interface, an API for smooth integration into existing design processes, customizable scripting options for tailored engineering simulations, and plugins that expand its modeling functionalities. Furthermore, OnScale Solve equips engineers with the capability to synthetically generate data crucial for training advanced AI/ML algorithms, thereby enhancing innovation in technology development. This comprehensive platform ensures that engineers have the tools they need to push the boundaries of simulation and design.

Utilizing the distinctive and inherently dynamic Lattice Boltzmann-based physics, the PowerFLOW CFD solution conducts simulations that effectively replicate real-world scenarios. With the PowerFLOW suite, engineers can assess product performance at the early stages of design, before any prototypes are constructed—this is when alterations can have the most substantial effects on both design and budget. The PowerFLOW system seamlessly imports intricate model geometries and conducts aerodynamic, aeroacoustic, and thermal management simulations with high accuracy and efficiency. By automating domain discretization and turbulence modeling along with wall treatment, it removes the need for manual volume meshing and boundary layer meshing. Users can confidently execute PowerFLOW simulations using a large number of compute cores on widely utilized High Performance Computing (HPC) platforms, enhancing productivity and reliability in the simulation process. This capability not only accelerates product development timelines but also ensures that potential issues are identified and addressed early in the design phase.

Bulk Flow Analyst serves as a Discrete Element Method (DEM) simulation tool tailored for engineers seeking to assess and enhance the flow of bulk materials in transfer chutes and conveyor systems. Created by engineers who possess in-depth knowledge of transfer chute design, this software aims to simplify DEM simulations, allowing users to concentrate on the performance of the chutes rather than getting bogged down by intricate DEM settings. The tool is capable of simulating various transfer challenges involving bulk materials traversing through chutes, hoppers, feeders, conveyor transfer points, and other related material-handling devices. It enables designers to visualize and assess how particles flow, collide, accumulate, discharge, and interact with their surroundings under varying operational conditions. By utilizing DEM, the software assists in addressing complex conveyor design issues, such as flow dynamics, chute blockages, wear on belts and chute surfaces, dust generation, material spillage, degradation, and impact behavior, thus providing a comprehensive solution for engineers in the field. Additionally, it helps to ensure that material handling systems operate efficiently, minimizing possible disruptions and enhancing overall productivity.

PoligonSoft offers a suite of advanced simulation software designed to enhance and refine the process of metal casting. This software suite empowers users to anticipate potential defects in the final product. Key Analysis Features Include: Fluid Flow during Pouring Formation of both Large and Microscale Porosity Stresses that Remain After Solidification Distortions and Shape Changes Development of Fractures at Various Temperatures Fluid Pressures Erosion of the Mold Material Our software stands out for its ability to streamline production, reduce material waste, and eliminate the need for repeated designs, thereby ensuring that the production cycle is optimized from the start. PoligonSoft's analytical capabilities are built upon three fundamental systems: fluid dynamics, heat transfer, and mechanical stresses. These, combined with an array of advanced features, facilitate the simulation of a wide range of casting methods, including specialized techniques.

The mesh significantly impacts the precision, convergence, and speed of a simulation. Ansys offers a suite of tools designed to create the most suitable mesh for delivering precise and efficient solutions. Their general-purpose, high-performance, automated, and intelligent meshing software is capable of generating the optimal mesh for accurate multiphysics solutions, ranging from straightforward automatic meshing to meticulously crafted mesh designs. The software incorporates smart defaults that simplify the meshing process, making it intuitive and effortless, while ensuring the necessary resolution to effectively capture solution gradients for reliable outcomes. Ansys’s meshing solutions cater to a wide variety of needs, from basic automated meshing techniques to advanced, custom meshing options. The available methods encompass a broad range of meshing techniques, including high-order and linear elements, as well as rapid tetrahedral and polyhedral meshes, alongside high-quality hexahedral and mosaic configurations. By leveraging Ansys's meshing capabilities, users can significantly minimize the time and resources required to achieve accurate simulation results, ultimately enhancing productivity and efficiency in their projects. Thus, the integration of Ansys meshing tools can transform the simulation process, leading to a more streamlined workflow and improved outcomes.

Simufact Additive is an advanced and adaptable software tool designed for simulating metal-based additive manufacturing techniques. Learn how to effectively utilize Simufact Additive to enhance your metal 3D printing and rapid prototyping efforts. By employing this software, you can greatly minimize the need for numerous test prints. Our objective is to furnish you with a solution that enables the production of additive manufacturing components with consistent dimensional accuracy on the first attempt. The multi-scale approach of Simufact Additive integrates the most effective methods into a singular software solution, ranging from a rapid mechanical technique to an intricate thermal-mechanical coupled transient analysis that offers exceptional precision in simulation results. Users can select the most suitable simulation method according to their specific requirements. Simufact Additive stands out as a specialized software solution focused solely on the simulation of additive manufacturing processes, which is evident in its streamlined operating framework. This focused approach not only enhances usability but also improves overall efficiency in the design and production workflow.

PFC, which stands for Particle Flow Code, is a versatile distinct-element modeling tool offered in both two-dimensional and three-dimensional versions, known as PFC2D and PFC3D. This framework is engineered to replicate synthetic granular and solid materials by treating them as assemblies composed of rigid particles of varying sizes, which can include shapes like disks, spheres, and various forms of polyhedra. Its design affords an effective and adaptable approach to simulating the dynamics, interactions, fragmentation, flow, deformation, and failure of particle systems in fields such as geomechanics, mining, civil engineering, materials processing, and industrial design. Notably, PFC excels in scenarios where material behavior is dictated by interactions at the particle level, such as contact mechanics, bonding, friction, rearrangement, fracture, and flow, rather than relying on a continuous material mesh. Users have the capability to model bonded materials, including types like rock, concrete, or cemented soil, as well as unbound granular substances such as sand, gravel, ballast, ore, powders, and small grains. This broad applicability makes PFC an invaluable resource for researchers and engineers working with complex material behaviors.

ICEM Surf is widely regarded as the premier reference system for crafting Class-A surfaces, serving as a top-tier tool for explicit geometry modeling focused on curves and surfaces, which allows for the definition, analysis, and high-end visualization of intricate free-form CAD surface models at an exceptional quality level. This software is integral to various product design workflows across industries such as automotive, aerospace, consumer goods, and press-tool design, offering capabilities for direct surface modeling, refinement, reconstruction, and scan modeling. Its advanced features, including global modeling and specialized analysis tools, empower designers to identify minor surface defects and ensure compliance with industry standards while delivering precise surfacing results and enjoying real-time 3D visual experiences. With the core module, users can create, modify, and assess complex free-form shapes that meet high aesthetic Class-A standards, enabling a comprehensive approach to surface design and evaluation. Furthermore, the software's versatility makes it an essential asset in achieving optimal design outcomes while adhering to rigorous quality benchmarks.

Autodesk CFD is a sophisticated software for computational fluid dynamics that allows engineers and analysts to forecast the behavior of liquids and gases with high accuracy. This tool significantly reduces the reliance on physical prototypes while enhancing understanding of fluid flow performance in various designs. It equips engineers with an extensive suite of robust tools aimed at optimizing system designs, managing thermal issues particularly in electronics cooling, and integrating Building Information Modeling (BIM) to improve occupant comfort in HVAC systems within Architecture, Engineering, and Construction (AEC) and Mechanical, Electrical, and Plumbing (MEP) sectors. Furthermore, the Application Programming Interface (API) and scripting capabilities enhance Autodesk CFD's functionalities, enabling customization and automation of routine tasks through the Decision Center. Additionally, the Decision Center streamlines the process of comparing system designs, thereby accelerating decision-making in design processes. This comprehensive approach not only improves efficiency but also empowers engineers to make more informed decisions in their projects.

Accelerate your innovation journey from prototype to launch by having high-quality parts manufactured on-demand. Fictiv provides a streamlined, user-friendly platform that grants you access to a diverse array of manufacturing capabilities, allowing you to focus more on design innovation and less on the tedious process of sourcing parts. Say goodbye to waiting for days or even weeks for quotes; with Fictiv, you can receive pricing information instantly or within an hour for more complex components. Our team will assess your parts for manufacturability, ensuring that you have complete insight into cost factors and any potential manufacturing challenges. You’ll also benefit from on-demand production status updates for your orders, complete with access to part photos and inspection data prior to delivery, enhancing transparency throughout the process. This level of service allows you to make informed decisions quickly, enabling you to maintain your competitive edge in the market.

EMWorks offers top-tier electromagnetic simulation software designed for electrical and electronics engineering, incorporating multiphysics features. Their solutions are fully integrated into SOLIDWORKS and Autodesk Inventor®, catering to a wide range of applications such as electromechanical systems, power electronics, antennas, RF and microwave components, as well as ensuring power and signal integrity in high-speed interconnects. One of their flagship products, EMS, serves as a powerful tool for simulating and optimizing electromagnetic and electromechanical devices like transformers, electric motors, actuators, and sensors within the SOLIDWORKS® and Autodesk® Inventor® environments. Additionally, EMWorks2D is a specialized 2D electromagnetic simulation software that focuses on planar and axis-symmetric geometries, also fully embedded in SOLIDWORKS, allowing users to perform quick simulations prior to transitioning to 3D models. This functionality not only enhances the design process but also accelerates overall product development, making it easier for engineers to refine their designs efficiently. By leveraging these advanced tools, users can achieve optimal performance in their electronic designs while saving valuable time in the engineering workflow.

Netfabb® software offers robust features for preparing builds, enhancing designs for additive manufacturing, simulating metal printing processes, and organizing CNC post-processing. Users can import models from numerous CAD formats and utilize repair features to swiftly fix any issues. To ensure models are ready for production, adjustments can be made to wall thicknesses, surface roughness, and other characteristics. The software identifies support necessities, allowing users to generate support structures with semi-automated tools. It also facilitates the conversion of organic, free-form mesh files into boundary representation models, which can be exported in formats like STEP, SAT, or IGES for CAD applications. Furthermore, 2D and 3D packing algorithms help arrange parts efficiently within the build volume. Custom reports can be created to encompass essential manufacturing and quoting details, while users can formulate build strategies and set toolpath parameters to optimize surface quality, part density, and processing speed. This comprehensive suite makes it easier for manufacturers to streamline their workflows and improve production efficiency.

Cognitive Design by CDS offers an advanced concurrent engineering platform tailored for OEMs and Tier-1 suppliers in the Aerospace, Defense, and Automotive sectors. Utilizing a unique implicit-geometry engine, this platform seamlessly integrates generative design techniques, manufacturing constraints, simulation analysis, and AI-driven design exploration into a single cohesive system. Engineers are able to rapidly generate and evaluate high-performance concepts while incorporating design for manufacturability constraints early in the process, including considerations for Casting, Machining, and Metal Additive Manufacturing. Moreover, it streamlines and automates workflows across entire product lines, significantly reducing design time and minimizing the need for rework at later stages. This innovative solution is utilized by industry leaders not only in Japan but also throughout Europe and the United States, enhancing collaboration and efficiency across global markets.

RecurDyn is a versatile engineering software that specializes in simulating Multi-Body Dynamics across various disciplines. By integrating traditional rigid multibody dynamics with advanced finite element methods, it effectively models both rigid and flexible bodies, a process termed Multi Flexible Body Dynamics. This software is adept at analyzing the dynamic performance of mechanical systems that involve motion, incorporating elements such as joints, constraints, contact points, flexible components, and complex interactions among parts. Its sophisticated solver technology adeptly tackles the differential algebraic equations that govern multibody systems, merging motion equations with algebraic expressions for joint constraints. Furthermore, RecurDyn offers a comprehensive modeling environment tailored for MBD, featuring rapid solvers, extensive post-processing capabilities, animation tools, and graphing functions to assess the motion, loads, stresses, deformation, and overall efficiency of mechanical assemblies. Additionally, the software's user-friendly interface allows engineers to visualize and optimize their designs effectively.

NVIDIA Modulus is an advanced neural network framework that integrates the principles of physics, represented through governing partial differential equations (PDEs), with data to create accurate, parameterized surrogate models that operate with near-instantaneous latency. This framework is ideal for those venturing into AI-enhanced physics challenges or for those crafting digital twin models to navigate intricate non-linear, multi-physics systems, offering robust support throughout the process. It provides essential components for constructing physics-based machine learning surrogate models that effectively merge physics principles with data insights. Its versatility ensures applicability across various fields, including engineering simulations and life sciences, while accommodating both forward simulations and inverse/data assimilation tasks. Furthermore, NVIDIA Modulus enables parameterized representations of systems that can tackle multiple scenarios in real time, allowing users to train offline once and subsequently perform real-time inference repeatedly. As such, it empowers researchers and engineers to explore innovative solutions across a spectrum of complex problems with unprecedented efficiency.