Alternatives to Ansys Autodyn

Ansys LS-DYNA stands out as the leading explicit simulation software widely utilized for various applications, including drop testing, impact analysis, penetration scenarios, collisions, and ensuring occupant safety. Renowned as the most extensively used explicit simulation tool globally, Ansys LS-DYNA excels in modeling the behavior of materials subjected to brief yet intense loading conditions. Its comprehensive suite of elements, contact formulations, and material models enables the simulation of intricate models while allowing precise control over every aspect of the issue at hand. The software offers a broad range of analyses, boasting rapid and effective parallel processing capabilities. Engineers can investigate simulations that involve material failure, examining how such failures evolve through components or entire systems. Additionally, LS-DYNA adeptly manages models with numerous interacting parts or surfaces, ensuring that the interactions and load transfers between complex behaviors are accurately represented. This capability makes LS-DYNA an invaluable tool for engineers facing multifaceted simulation challenges.

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.

Simcenter Femap is a sophisticated simulation tool designed for the creation, modification, and analysis of finite element models pertaining to intricate products or systems. This software allows users to implement advanced workflows for modeling individual components, assemblies, or entire systems, enabling them to assess how these models react under realistic conditions. Moreover, Simcenter Femap offers robust data-driven capabilities and graphical visualizations for results interpretation, which, when paired with the top-tier Simcenter Nastran, provides a holistic CAE solution aimed at enhancing product performance. As manufacturers strive to develop lighter yet more robust products, there is a growing emphasis on the utilization of composite materials. Simcenter stands at the forefront of composite analysis, continually advancing its material models and element types to meet industry demands. Furthermore, Simcenter accelerates the simulation process for laminate composite materials by providing an integrated connection to composite design, streamlining workflows for engineers in the field. This integration ultimately fosters innovation and efficiency in product development, paving the way for more sustainable manufacturing practices.

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.

DIGIMU® creates digital polycrystalline microstructures that accurately reflect the material's heterogeneities, ensuring compliance with the intricate topological features of the microstructure. The boundary conditions applied to the Representative Elementary Volume (REV) mimic the experiences of a material point at the macroscopic level, particularly during the thermomechanical cycles relevant to that specific point. Utilizing a Finite Element formulation, the software simulates the various physical phenomena occurring in metal forming processes, such as recrystallization, grain growth, and Zener pinning caused by second phase particles. To enhance digital accuracy and minimize computation times, DIGIMU® employs advanced automated anisotropic meshing and remeshing adaptation technology, which allows for a detailed representation of grain boundaries while optimizing the number of elements used. This innovative approach not only streamlines the computational process but also improves the reliability of the simulations, making it a powerful tool for material scientists.

Ansys Lumerical Multiphysics serves as advanced software for simulating photonic components, allowing for the integrated design of these elements by effectively capturing the interplay of various multiphysics phenomena such as optical, thermal, electrical, and quantum well interactions, all within a cohesive design platform. Designed specifically for engineering workflows, this user-friendly product design software enhances the user experience, enabling quick design iterations and delivering in-depth insights into actual product performance. By merging real-time physics with precise high-fidelity simulations in an accessible interface, it promotes a shorter time-to-market for innovative designs. Among its key offerings are a finite element design environment, integrated multiphysics workflows, extensive material models, and robust automation and optimization capabilities. The suite of solvers and streamlined processes in Lumerical Multiphysics effectively reflects the complex interactions of physical effects, facilitating accurate modeling of both passive and active photonic components. This comprehensive approach not only enhances design efficiency but also leads to improved product reliability and performance evaluations.

Ansys Fluent stands out as the premier fluid simulation software, distinguished by its cutting-edge physics modeling features and unmatched precision. By utilizing Ansys Fluent, you can dedicate more time to innovation and enhancing product efficiency. This software is backed by extensive validation across diverse applications, ensuring you can rely on its simulation outcomes. With Ansys Fluent, creating sophisticated physics models and evaluating various fluid dynamics phenomena is seamless within a user-friendly and customizable interface. This robust simulation tool significantly expedites your design process, allowing for quicker iterations and improvements. Boasting top-tier physics models, Ansys Fluent can effectively and accurately tackle intricate, large-scale simulations. The software unveils new possibilities for computational fluid dynamics (CFD) analysis. Additionally, its rapid pre-processing capabilities and swift solving times empower you to be the quickest in bringing your products to market. Fluent's unmatched features foster boundless innovation while maintaining a steadfast commitment to precision and reliability. Ultimately, Ansys Fluent not only enhances your design capabilities but also positions you ahead of the competition in a fast-paced industry.

Ansys Granta products, cultivated over a quarter-century, empower organizations to harness, protect, and leverage their Material Intelligence effectively. By facilitating the digitalization of materials knowledge, Ansys assists businesses in selecting appropriate materials for their products and provides educational resources related to materials. The suite of materials information management software offered by Ansys Granta enables companies to fully utilize their internal Material Intelligence. Ansys Granta MI™ serves as a flexible solution, allowing for the creation, management, and storage of crucial material data, while ensuring smooth integration with top CAD, CAE, and PLM systems to maintain consistency across the enterprise. With Ansys Granta Selector, users can make informed material selections by evaluating various properties from an extensive database, ensuring optimal material choices for their specific applications. Additionally, access to an unparalleled materials data library significantly enhances the accuracy of simulations conducted by engineers.

Thermo-Calc is an advanced thermodynamic modeling tool utilized by materials scientists and engineers to derive data on material properties, deepen their understanding of materials, clarify specific phenomena, and address targeted inquiries regarding certain materials and their processing techniques. This software comes equipped with a variety of standard calculators included in all licenses, such as the Equilibrium Calculator, Scheil Solidification Simulations, Property Model Calculator, General Model Library, Material to Material Calculator, Pourbaix Diagram Module, and the Data Optimization Module (PARROT). Additionally, users can enhance Thermo-Calc's capabilities with multiple Add-on Modules and access over 40 databases, all seamlessly integrated into a single platform, creating a cohesive working environment. The software allows for the calculation of the state of a specified thermodynamic system, yielding valuable insights into phase quantities and compositions, transformation temperatures, solubility thresholds, and the driving forces behind phase formation, among other important metrics. Furthermore, this powerful modeling tool facilitates innovative research and development in materials science by enabling users to simulate various scenarios and predict outcomes effectively.

Ansys Mechanical stands out as an exceptional finite element solver, featuring capabilities in structural, thermal, acoustics, transient, and nonlinear analyses to enhance your modeling processes. This powerful tool allows you to tackle intricate structural engineering challenges, facilitating quicker and more informed design choices. The suite's finite element analysis (FEA) solvers permit the customization and automation of solutions for structural mechanics issues, enabling the examination of various design scenarios through parameterization. With its extensive array of analysis tools, Ansys Mechanical provides a versatile environment, guiding users from geometry preparation to integrating additional physics for enhanced accuracy. Its user-friendly and adaptable interface ensures that engineers at any experience level can swiftly obtain reliable results. Overall, Ansys Mechanical fosters an integrated platform that leverages finite element analysis (FEA) for comprehensive structural evaluations, proving invaluable for modern engineering projects.

Induction heat treatment simulation offers detailed insights into the temperature variations from the outer surface to the core and identifies specific regions where phase changes take place. With SIMHEAT®, users can assess how factors like current frequency, coil design, and the positioning of concentrators influence the heat-affected zone. The material modeling aspect accounts for the electrical and magnetic characteristics that vary with temperature. Moreover, SIMHEAT® can operate independently or work in conjunction with Transvalor software, ensuring a flawless transfer of results between the two platforms. This high level of interoperability guarantees that users can rely on consistent and accurate outcomes. Furthermore, all the features and functionalities available in SIMHEAT® are also incorporated into our FORGE® software, which is tailored for simulating hot, semi-hot, and cold forming processes, thereby expanding its utility in various manufacturing applications.

BIOVIA Materials Studio serves as an all-encompassing platform for modeling and simulation, specifically tailored to assist researchers in the fields of materials science and chemistry in forecasting and comprehending how a material's atomic and molecular configurations correlate with its characteristics and functionalities. By adopting an "in silico first" strategy, researchers can enhance material performance in a budget-friendly virtual environment before moving to physical experimentation. This versatile software accommodates a diverse array of materials, such as catalysts, polymers, composites, metals, alloys, pharmaceuticals, and batteries. With capabilities that span quantum, atomistic, mesoscale, statistical, analytical, and crystallization simulations, it streamlines the development of innovative materials across multiple sectors. Additionally, its features promote rapid innovation, decrease research and development expenditures through virtual screening, and boost productivity by automating established practices within Pipeline Pilot, making it an indispensable tool for modern material research and development. This comprehensive functionality not only enhances research efficiency but also positions users at the forefront of material advancements.

Ansys HFSS is a versatile 3D electromagnetic (EM) simulation tool used for the design and analysis of high-frequency electronic devices such as antennas, interconnects, connectors, integrated circuits (ICs), and printed circuit boards (PCBs). This powerful software allows engineers to create and evaluate a wide range of high-frequency electronic products, including antenna arrays, RF and microwave components, and filters. Renowned among engineers globally, Ansys HFSS is essential for developing high-speed electronics utilized in various applications like communication systems, advanced driver assistance systems (ADAS), satellites, and Internet of Things (IoT) devices. The software's exceptional performance and precision empower engineers to tackle complex challenges related to RF, microwave, IC, PCB, and electromagnetic interference (EMI) issues. With a robust suite of solvers, Ansys HFSS effectively addresses a myriad of electromagnetic challenges, making it an indispensable resource in the field of electronic design. As technology progresses, the relevance of such simulation tools becomes increasingly critical in ensuring optimal performance in modern electronic systems.

GENOA 3DP is a comprehensive software suite and design tool tailored for additive manufacturing across polymers, metals, and ceramics. Its simulate-to-print capabilities highlight strong performance and user-friendly interaction, making it an effective choice for diverse applications. With the ability to deliver precision at the micro-scale and significantly minimize material waste and engineering time, GENOA 3DP can be swiftly incorporated into any manufacturing process to ensure optimal additive manufacturing outcomes. Rooted in advanced failure analysis techniques and enhanced by multi-scale material modeling, this tool empowers engineers to reliably forecast issues like voids, net shapes, residual stress, and crack propagation in as-built additive manufacturing components. By offering a consistent approach to enhance part quality, decrease scrap rates, and adhere to specifications, GENOA 3DP effectively connects the fields of material science and finite element analysis, ultimately driving innovation in the manufacturing sector. This integration fosters a deeper understanding of material behaviors, paving the way for more efficient production methodologies.

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.

Ansys Motion, now incorporated within the Mechanical interface, represents a cutting-edge engineering solution built upon a sophisticated multibody dynamics solver. This innovative tool facilitates rapid and precise assessments of both rigid and flexible entities, allowing for a comprehensive evaluation of physical phenomena through a holistic approach to mechanical systems. Ansys Motion employs four closely linked solving methodologies: rigid body, flexible body, modal, and meshfree EasyFlex, providing unmatched capabilities for analyzing various systems and mechanisms in any desired combination. It can effectively handle large assemblies with millions of degrees of freedom while accounting for both flexibility and contact effects. Standardized connections and joints enable seamless integration and loading of these systems. Moreover, the ability to conduct simulations within Ansys Motion using the same interface as traditional structural analysis promotes the reusability of a single model for multiple applications, resulting in significant reductions in time and effort required for complex projects. This streamlined workflow enhances productivity and fosters innovation in engineering design.

Khimera serves as a tool for determining the kinetic parameters associated with microscopic processes, as well as the thermodynamic and transport characteristics of various substances and their mixtures within gases, plasmas, and at the gas-solid interface. Its main users include engineers and researchers who focus on developing kinetic models and engaging in thermodynamic and kinetic simulations pertinent to fields such as chemical engineering, combustion, catalysis, metallurgy, and microelectronics. This software is particularly well-suited for multi-scale modeling, as it connects the fundamental molecular properties of individual molecules with the ensemble-averaged characteristics of the reactive medium, encompassing thermodynamic and transport properties along with the rates of chemical reactions. Additionally, Khimera allows for the integration of quantum-chemical simulation results, enabling users to derive properties without requiring any experimental data from their side. By bridging the gap between different scales of modeling, Khimera enhances the understanding of complex systems in various scientific domains.

Ansys Granta EduPack, previously known as CES EduPack, is an exceptional collection of educational materials aimed at assisting educators in enriching courses focused on materials in engineering, design, science, and sustainable development. This resource serves to bolster undergraduate education in materials science, offering a comprehensive database of materials and processes, selection tools, and various supplementary resources. The program is structured into three distinct levels, allowing students to engage with the appropriate depth of information as they advance through their academic journey. Furthermore, Granta EduPack accommodates a diverse range of teaching methodologies, catering to both design-oriented and science-driven approaches, as well as problem-based learning environments. As students progress from pre-university to postgraduate studies, they can utilize the database and tools tailored to their educational stage, ensuring effective learning at every level. This thoughtful organization makes Granta EduPack an invaluable asset for educators and students alike.

e-Xstream engineering specializes in the development and commercialization of the Digimat software suite, which features advanced multi-scale material modeling technology that accelerates the creation of composite materials and structures. Serving as a fundamental component of the 10xICME Solution, Digimat enables in-depth analyses of materials at the microscopic level and facilitates the creation of micromechanical models that are essential for integrating micro- and macroscopic interactions. The material models provided by Digimat allow for the combination of processing simulations with structural finite element analysis (FEA), paving the way for more accurate predictions by considering how processing conditions affect the final product's performance. Utilizing Digimat as an efficient and predictive tool significantly aids users in the design and manufacturing of cutting-edge composite materials and components, leading to substantial savings in time and costs. Ultimately, this capability empowers engineers to push the boundaries of innovation in composite material applications.

Ansys Sherlock stands out as the sole reliability physics-based tool for electronics design that delivers quick and precise life expectancy assessments for electronic components, boards, and systems during the initial design phases. By automating the design analysis process, Ansys Sherlock enables the rapid generation of life predictions, thus eliminating the "test-fail-fix-repeat" cycle that often hampers development. Designers can effectively model the interactions between silicon–metal layers, semiconductor packaging, printed circuit boards (PCBs), and assemblies, allowing for accurate predictions of potential failure risks stemming from thermal, mechanical, and manufacturing stresses, all prior to creating prototypes. Additionally, Sherlock's extensive libraries, which house over 500,000 components, facilitate the seamless transformation of electronic computer-aided design (ECAD) files into computational fluid dynamics (CFD) and finite element analysis (FEA) models. Each of these models is equipped with precise geometries and material properties, ensuring that stress information is accurately conveyed for reliable predictions. This capability not only enhances design efficiency but also significantly reduces the risk of costly errors in the later stages of product development.

Transforming materials data into superior products at an accelerated pace enhances research and development, streamlines scaling processes, and optimizes quality control and supply chain decisions. This approach enables the discovery of innovative materials while utilizing machine learning guidance to predict outcomes, leading to swifter and more effective results. As you progress towards production, you can construct a model that tests the boundaries of your products, facilitating the design of cost-effective and resilient production lines. Furthermore, these models can forecast potential failures by analyzing the supplied materials informatics alongside production line parameters. The Materials Zone platform compiles data from various independent sources, including materials suppliers and manufacturing facilities, ensuring secure communication between them. By leveraging machine learning algorithms on your experimental data, you can identify new materials with tailored properties, create ‘recipes’ for their synthesis, develop tools for automatic analysis of unique measurements, and gain valuable insights. This holistic approach not only enhances the efficiency of R&D but also fosters collaboration across the materials ecosystem, ultimately driving innovation forward.

QSimulate presents an array of quantum simulation platforms that harness the principles of quantum mechanics to address intricate, large-scale challenges in life sciences and materials science. The QSP Life platform introduces innovative quantum-enhanced techniques for drug discovery and optimization, facilitating pioneering quantum simulations of ligand-protein interactions that are relevant throughout the entire computational drug discovery journey. Meanwhile, the QUELO platform enables hybrid quantum/classical free energy calculations, empowering users to conduct relative free energy assessments via the free energy perturbation (FEP) method. Furthermore, QSimulate's advancements enable significant progress in quantum mechanics/molecular mechanics (QM/MM) simulations tailored for extensive protein modeling. In the realm of materials science, the QSP Materials platform opens up quantum mechanical simulations to a broader audience, allowing experimentalists to streamline complex workflows without requiring specialized expertise, ultimately fostering greater innovation in the field. This democratization of technology marks a pivotal shift in how researchers can approach and solve scientific problems.

BIOVIA ONE Lab serves as a robust laboratory informatics platform aimed at optimizing workflows, fostering collaboration, and expediting research efforts in diverse scientific fields. This solution offers a cohesive environment for the management of laboratory data and processes, allowing researchers to make informed decisions more swiftly. It is utilized by organizations in various sectors such as Life Sciences, Consumer Packaged Goods, and Energy & Materials, among others. ONE Lab is adaptable for use in Research, Development, and Quality Assurance/Quality Control, catering to the unique requirements of scientists within each discipline. It effectively oversees samples, experiments, data, inventory, and equipment, as well as workflows, by integrating seamlessly with a variety of laboratory instruments and software. By utilizing a singular data model across all functional areas, ONE Lab eliminates artificial barriers that typically exist between Electronic Lab Notebooks (ELN), Laboratory Information Management Systems (LIMS), Laboratory Execution Systems (LES), and inventory management. This cohesive integration promotes efficiency and enhances the overall productivity of laboratory operations. Ultimately, BIOVIA ONE Lab empowers scientists to focus on innovation and discovery without the hindrances of fragmented systems.

AQChemSim is an innovative cloud-based platform created by SandboxAQ that utilizes Large Quantitative Models (LQMs) based on principles of physics and chemistry to transform the landscape of materials discovery and enhancement. By incorporating techniques such as Density Functional Theory (DFT), Iterative Full Configuration Interaction (iFCI), Generative AI, Bayesian Optimization, and Chemical Foundation Models, AQChemSim facilitates precise simulations of molecular and material dynamics in real-world scenarios. The platform's features allow it to forecast performance under diverse stress conditions, expedite formulation via in silico testing, and investigate eco-friendly chemical processes. Remarkably, AQChemSim has achieved notable progress in battery technology, cutting the prediction time for lithium-ion battery end-of-life by 95%, while also attaining 35 times greater accuracy with a mere fraction of the data previously required. This advancement not only streamlines research but also paves the way for more efficient and sustainable energy solutions in the future.

ENCY is a CAD/CAM of a new generation. It combines advanced CAM technologies with an intuitive interface and a natural workflow. It supports multi-axis milling, G-code generation and 2D and 3-dimensional CAD modeling. Core Features - Advanced Toolpath calculation: Customized toolpaths maximize the machine's capabilities and safety - High-Resolution Simulator: Realistic solid-voxel simulations of material removal, collision-checking, additive and painting processes - Seamless Integration with ENCY Clouds and ENCY Tuner Highlights: - Dark theme with a modern interface - A wide range of technological capabilities - Multiaxis Milling and Swiss Turning Additive and hybrid manufacturing - Machine-Aware Technology : toolpath calculations considering the digital twins of the machine Direct toolpath editing - State-of the-art simulation - Postprocessor generator

Ansys Discovery introduces an innovative simulation-driven design tool that integrates instant physics simulation, high-fidelity simulation, and interactive geometry modeling into a singular, user-friendly platform. This groundbreaking product merges interactive modeling with various simulation features, empowering users to tackle essential design inquiries at the early stages of the design process. By adopting this proactive approach to simulation, teams can significantly reduce time and resources spent on prototyping as they concurrently examine numerous design ideas without delays for simulation feedback. Ansys Discovery effectively addresses vital design questions swiftly and accurately, enhancing overall productivity and performance by removing prolonged waits for simulation outputs. This capability allows engineers to prioritize innovation and optimize product performance, ultimately leading to a reduction in labor costs and physical prototyping expenses. Additionally, by facilitating the early resolution of design challenges, Ansys Discovery contributes to a notable increase in return on investment (ROI) throughout your organization, making it an invaluable asset for engineering teams.

The industrial application of Metal Additive Manufacturing (AM) presents a fresh set of challenges for numerous enterprises. In the initial stages of integrating AM technology, many companies invest weeks in trial and error to refine their build configurations, leading to inefficiencies and unnecessary expenditures. To mitigate these issues, the software AdditiveLab employs advanced simulation technology that forecasts the results of metal-deposition AM processes, thereby minimizing the need for extensive testing. This innovative tool allows for the rapid identification of areas prone to failure, enabling the optimization of manufacturing setups to boost success rates and ultimately conserve both time and financial resources. Designed with the specific engineering requirements of AM professionals in mind, AdditiveLab eliminates the necessity for in-depth simulation expertise. Its intuitive user interface and automated model preparation streamline the simulation process, allowing users to achieve results with just a few clicks. Furthermore, the integration of AdditiveLab into the AM workflow can significantly enhance overall productivity and efficiency in manufacturing operations.

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.

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.

Enhance product development and accelerate the launch process with FLOW-3D, an exceptionally precise CFD software adept at addressing transient, free-surface challenges. Accompanied by our cutting-edge postprocessor, FlowSight, FLOW-3D offers a comprehensive multiphysics suite. This versatile CFD simulation platform empowers engineers to explore the dynamic interactions of liquids and gases across a diverse array of industrial sectors and physical phenomena. With a strong emphasis on multi-phase and free surface applications, FLOW-3D caters to various industries, including microfluidics, biomedical technology, civil water infrastructure, aerospace, consumer goods, additive manufacturing, inkjet printing, laser welding, automotive, offshore enterprises, and energy sectors. As a remarkably effective multiphysics resource, FLOW-3D combines functionality, user-friendliness, and robust capabilities to support engineers in achieving their modeling goals, ultimately driving innovation and efficiency in their projects. By leveraging FLOW-3D, organizations can overcome complex challenges and ensure that their designs are optimized for success in competitive markets.

Quantum computing paves the way for the swift and cost-efficient creation of novel molecules and materials. InQuanto, an advanced platform for quantum computational chemistry, marks a significant advancement towards achieving this objective. The field of quantum chemistry seeks to precisely characterize and forecast the essential properties of matter, making it an invaluable asset for the innovation and formulation of new substances. Nonetheless, the intricacies of industrially relevant molecules and materials present challenges for accurate simulation. Current technologies necessitate a compromise, forcing users to choose between utilizing highly precise methods on minimal systems or resorting to approximations. InQuanto's adaptable workflow allows both computational chemists and quantum algorithm engineers to seamlessly integrate cutting-edge quantum algorithms with sophisticated subroutines and error mitigation techniques, optimizing performance on existing quantum platforms. This flexibility not only enhances research outcomes but also fosters collaboration among experts in the field, driving further innovation.

ExoMatter is revolutionizing the traditionally tedious and expensive process of materials research and development by harnessing advanced AI technologies and data-mining capabilities. The platform offers a tailored selection of the most appropriate materials for your specific needs. By integrating data from various scientific repositories and your own datasets, ExoMatter enhances this information through AI, enabling you to evaluate a diverse array of multidimensional physical, chemical, and engineering factors, alongside sustainability concerns and projected costs. Our commitment to using scientific materials data aims to identify superior and more eco-friendly materials. With our innovative materials research platform, you can swiftly navigate through millions of materials, using AI-driven tools that not only enrich the data but also provide you with comprehensive control over your selection criteria. Leverage ExoMatter’s unique scoring and ranking system to compile a refined list of materials that best suit your application, ensuring that you make informed and efficient choices in your materials selection process. This approach not only streamlines your research efforts but also significantly enhances the overall quality and sustainability of your material choices.

The Citrine Platform integrates state-of-the-art AI technologies with advanced data management systems, offering user-friendly interfaces and robust security measures that comply with industry standards, all while being securely hosted in the cloud. It effectively captures, organizes, and retains comprehensive information regarding the development of materials and chemicals, spanning from procurement to processing and characterization. By minimizing unnecessary experiments, users can swiftly access pertinent data sets. With its powerful AI features, the Citrine Platform accelerates the identification of high-performing materials. Its predictive models analyze materials' performance based on processing, composition, and synthesis details, guiding users on the next experiments to undertake in order to meet their objectives. Furthermore, the Citrine Platform ensures the integrity and confidentiality of your data, domain expertise, and models through stringent protective measures. The platform is backed by ISO27001 certification and comprehensive documentation, providing additional assurance of its commitment to security and best practices. This attention to detail and dedication to user needs makes the Citrine Platform a valuable tool for the materials science community.

Avogadro serves as a sophisticated molecular editor and visualizer that operates across multiple platforms, catering to fields such as computational chemistry, molecular modeling, bioinformatics, and materials science. With its ability to provide flexible, high-quality rendering alongside a robust plugin architecture, it enhances user experience significantly. This free, open-source tool is compatible with Mac, Windows, and Linux, making it accessible to a wide range of users in scientific disciplines. Its design emphasizes not only functionality but also adaptability to various research needs.

Revolutionize the fields of drug discovery and materials research through cutting-edge molecular modeling techniques. Our computational platform, grounded in physics, combines unique solutions for predictive modeling, data analysis, and collaboration, facilitating swift navigation of chemical space. This innovative platform is employed by leading industries globally, serving both drug discovery initiatives and materials science applications across various sectors including aerospace, energy, semiconductors, and electronic displays. It drives our internal drug discovery projects, overseeing processes from target identification through hit discovery and lead optimization. Additionally, it enhances our collaborative research efforts aimed at creating groundbreaking medicines to address significant public health challenges. With a dedicated team of over 150 Ph.D. scientists, we commit substantial resources to research and development. Our contributions to the scientific community include more than 400 peer-reviewed publications that validate the efficacy of our physics-based methodologies, and we remain at the forefront of advancing computational modeling techniques. We are steadfast in our mission to innovate and expand the possibilities within our field.

ProSteel software enables the efficient creation of precise 3D models for structural steel, metal projects, and steel assemblies. It allows users to swiftly generate design drawings, fabrication details, and schedules that automatically update in response to any modifications made to the 3D model. Furthermore, the software provides detailed outputs for CNC machines, streamlining the steel fabrication process. ProSteel is designed to support your construction and planning efforts for structural steel and metal work within a 3D modeling environment. When used alongside AutoCAD or MicroStation, it offers an intuitive and integrated multi-material modeler that is ideal for designing complex structures, producing shop drawings, assembling connections, and managing bills of materials. You can quickly extract 2D drawings that will adjust automatically when the 3D model is altered. Additionally, ProSteel's interoperability with other Bentley and third-party applications facilitates seamless information exchange across different disciplines, improving collaboration and efficiency throughout the project lifecycle. This capability enhances the overall workflow, making it easier to coordinate tasks among various teams involved in the construction process.

Signals Notebook boasts a contemporary user interface similar to those found in popular personal applications, minimizing the need for extensive training; users can quickly get started. This ease of use is a key factor in why it has become the preferred electronic lab notebook for a wide array of organizations, ranging from small teams of 4-5 research scientists to some of the largest biotech and pharmaceutical companies globally. Its adaptability and capability to accommodate diverse workflows—covering areas such as chemistry, biology, formulations, analytical sciences, and materials sciences—make it a valuable tool now and in the future. With over 1 million scientists across 4,000 organizations relying on Signals Notebook to enhance their workflow efficiency, it is evident that the platform is well-regarded in the scientific community. Additionally, its structured data capture features, coupled with APIs and integration interfaces for instruments, in-house systems, and databases, further enhance its utility. This combination of user-friendliness and advanced functionality is what sets Signals Notebook apart in a competitive market.

Currently, engineering teams frequently rely on specialized simulation tools from various vendors to assess different design characteristics, which can lead to inefficiencies and higher costs due to the use of multiple software solutions. To address these challenges, SIMULIA offers a comprehensive suite of cohesive analysis products that enable users with varying levels of simulation knowledge and expertise to collaborate effectively while sharing simulation data and approved methodologies without compromising information integrity. The Abaqus Unified FEA product suite provides robust and comprehensive solutions for both standard and advanced engineering challenges, catering to a wide range of industrial applications. In the automotive sector, engineering teams can analyze complete vehicle loads, dynamic vibrations, multibody systems, impact and crash scenarios, nonlinear static situations, thermal interactions, and acoustic-structural relationships, all while utilizing a unified model data structure and integrated solver technology. This seamless integration enhances collaboration and improves the overall efficiency of the engineering process, allowing teams to innovate more rapidly.

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.

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.

AGVortex program models airfoils' flows. It includes a 3D editor, control panel and modeling area. The solver is based upon vorticity dynamics. This allows you to solve LES turbulence model using multi-core processors or clusters that use parallel computing.

SPACE GASS is a versatile 3D analysis and design software tailored for structural engineers. Its broad array of features accommodates everything from beams and trusses to complex structures like buildings, towers, tanks, cable systems, and bridges. Users can benefit from a powerful 64-bit multi-core solver, impressive 3D visualizations, and specialized elements including plate, frame, cable, and tension/compression-only types, as well as tools for moving loads and integrations with various CAD and building management systems. Choosing SPACE GASS means optimizing your resources with cost-effective, safe, and efficient designs. The user-friendly graphical interface allows for immediate visual feedback on changes, enhancing the design process. Additionally, a rapid sparse matrix solver takes full advantage of multi-core processing capabilities for increased efficiency. The software features a diverse suite of structural modeling tools, analysis methodologies, and design modules to meet various engineering needs. Moreover, an array of comprehensive video tutorials is available to guide users through complex tasks effectively. Finally, the software can be configured for either stand-alone use or floating network systems, adding flexibility for different working environments.

A robust and adaptable preprocessor designed for generating high-quality finite element meshes at an appealing cost that is significantly lower than international alternatives. It offers strength assessments for both static and dynamic loads, as well as the ability to determine natural frequencies and vibration modes. Users can also analyze critical loads and buckling modes effectively. The software supports both 2D and 3D computations for various structures, including volumetric, thin-walled, and bar configurations. It incorporates elastoplastic deformation analysis based on the Mises and Drucker-Prager models, alongside strength evaluations for large displacements. Additionally, it calculates thermal conditions, heat loss, and temperature-induced deformations in parts and structures, while also providing strength assessments for materials with high elasticity. This comprehensive approach ensures that engineers can conduct thorough analyses across a wide range of applications.

SABR is a comprehensive package specifically designed for the conception and design of shafts, gears, and bearings. Its development focuses on seamlessly integrating into the design workflow to significantly shorten the product development cycle, offering an easy-to-use graphical interface that enables detailed modeling of transmission systems tailored to the current phase of the design. Furthermore, SABR facilitates sensitivity analyses to assess the impact of various geometric characteristics, types of bearings, and gear placements, providing instantaneous feedback. The underlying solvers are rooted in recognized engineering standards and leverage Ricardo’s extensive experience in product design, manufacturing, and testing, ensuring they remain current with practical testing and development initiatives. With a straightforward and user-friendly graphical interface, users can efficiently create accurate models. The software also supports bearing analysis, including life calculations and stress visualizations that take loading and misalignment into consideration. Additionally, it accommodates complex duty cycles with various load paths and supports the design of parallel, epicyclic, and bevel gears, making it a versatile tool in the field.

Utilizing the 3DEXPERIENCE® platform, SIMULIA provides advanced simulation tools that help users better understand and analyze our environment. The applications offered by SIMULIA streamline the assessment of material and product performance, reliability, and safety prior to the development of physical prototypes. These tools deliver robust simulations for various scenarios such as structures, fluids, multibody interactions, and electromagnetics, all while being seamlessly integrated with product data, even for complex assemblies. The comprehensive technology for modeling, simulation, and visualization is fully embedded within the 3DEXPERIENCE platform, which includes capabilities for process capture, publication, and reuse. By allowing simulation data, outcomes, and intellectual property to be linked to the platform, customers can maximize their current investment in simulation capabilities, transforming these assets into valuable resources that foster innovation for all users involved. This integration not only enhances workflow efficiency but also encourages collaborative advancements across different teams and projects.