Alternatives to Ansys HPC

Ansys Cloud Direct’s powerful, easy-to-access HPC cloud solution will change the way you think about simulation. Unlike other simulation cloud solutions, Ansys Cloud Direct is simple to set up and navigate, will not break your workflow and does not require cloud experts to operate. Ansys Cloud Direct is all about Workflow, Performance, Support.

Simr (formerly UberCloud) is revolutionizing the world of simulation operations with our flagship solution, Simulation Operations Automation (SimOps). Designed to streamline and automate complex simulation workflows, Simr enhances productivity, collaboration, and efficiency for engineers and scientists across various industries, including automotive, aerospace, biomedical engineering, defense, and consumer electronics. Our cloud-based infrastructure provides scalable and cost-effective solutions, eliminating the need for significant upfront investments in hardware. This ensures that our clients have access to the computational power they need, exactly when they need it, leading to reduced costs and improved operational efficiency. Simr is trusted by some of the world's leading companies, including three of the seven most successful companies globally. One of our notable success stories is BorgWarner, a Tier 1 automotive supplier that leverages Simr to automate its simulation environments, significantly enhancing their efficiency and driving innovation.

TotalView debugging software offers essential tools designed to expedite the debugging, analysis, and scaling of high-performance computing (HPC) applications. This software adeptly handles highly dynamic, parallel, and multicore applications that can operate on a wide range of hardware, from personal computers to powerful supercomputers. By utilizing TotalView, developers can enhance the efficiency of HPC development, improve the quality of their code, and reduce the time needed to bring products to market through its advanced capabilities for rapid fault isolation, superior memory optimization, and dynamic visualization. It allows users to debug thousands of threads and processes simultaneously, making it an ideal solution for multicore and parallel computing environments. TotalView equips developers with an unparalleled set of tools that provide detailed control over thread execution and processes, while also offering extensive insights into program states and data, ensuring a smoother debugging experience. With these comprehensive features, TotalView stands out as a vital resource for those engaged in high-performance computing.

The Ansys Additive Suite provides essential insights that help designers, engineers, and analysts prevent build failures while ensuring that parts meet precise design specifications. This all-encompassing solution covers the full spectrum of the workflow, which includes design for additive manufacturing (DfAM), validation, print design, process simulation, and material exploration. Within the Additive Suite, users have access to tools such as Additive Prep, Print, and Science, along with Ansys Workbench Additive. Many features in Ansys Workbench allow for the creation of parametric analysis systems, enabling the examination and optimization of various parameters like part orientation and positioning. This suite is offered as an additional module for those holding an Ansys Mechanical Enterprise license. The integration of these tools facilitates a more streamlined approach to additive manufacturing, enhancing the overall efficiency and reliability of the production process.

Ansys Gateway powered with AWS is the solution to developers, designers, engineers, and others who want to manage their Ansys Simulation & CAD/CAE development in the cloud. You can access cloud computing resources anywhere, on any device, via your web browser. Cloud applications can be created, customized, and connected with minimal technical knowledge. You can simply install third-party applications alongside Ansys apps. AWS cloud can help you accelerate innovation by removing the hardware barrier on-premises for High Performance Computing (HPC). Ansys' expertise in the configuration and deployment of Virtual Desktop Interfaces (VDI), and High Performance Computing (HPC) is your advantage Your AWS subscription allows you to manage and control your cloud CAD/CAE consumption and costs.

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 Icepak serves as a computational fluid dynamics (CFD) solver specifically designed for managing thermal issues in electronic devices. It offers insights into airflow, temperature distributions, and heat transfer phenomena within integrated circuit packages, printed circuit boards (PCBs), electronic assemblies, and power electronics. By leveraging the top-tier Ansys Fluent CFD solver, Ansys Icepak delivers robust cooling solutions tailored for electronic components, allowing for thorough thermal and fluid flow evaluations. The software operates through the Ansys Electronics Desktop (AEDT) graphical user interface (GUI), facilitating comprehensive analyses of heat transfer involving conduction, convection, and radiation. Moreover, it boasts sophisticated features for modeling both laminar and turbulent flow conditions, as well as conducting species analysis that incorporates radiation and convection effects. Ansys’ extensive PCB design platform empowers users to perform simulations on PCBs, ICs, and packages, enabling a precise assessment of complete electronic systems, thereby enhancing design efficiency and performance optimization. Thus, Ansys Icepak stands out as an essential tool for engineers aiming to improve thermal management in their electronic designs.

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.

AWS High Performance Computing (HPC) services enable users to run extensive simulations and deep learning tasks in the cloud, offering nearly limitless computing power, advanced file systems, and high-speed networking capabilities. This comprehensive set of services fosters innovation by providing a diverse array of cloud-based resources, such as machine learning and analytics tools, which facilitate swift design and evaluation of new products. Users can achieve peak operational efficiency thanks to the on-demand nature of these computing resources, allowing them to concentrate on intricate problem-solving without the limitations of conventional infrastructure. AWS HPC offerings feature the Elastic Fabric Adapter (EFA) for optimized low-latency and high-bandwidth networking, AWS Batch for efficient scaling of computing tasks, AWS ParallelCluster for easy cluster setup, and Amazon FSx for delivering high-performance file systems. Collectively, these services create a flexible and scalable ecosystem that is well-suited for a variety of HPC workloads, empowering organizations to push the boundaries of what’s possible in their respective fields. As a result, users can experience greatly enhanced performance and productivity in their computational endeavors.

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 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.

AWS ParallelCluster is a free, open-source tool designed for efficient management and deployment of High-Performance Computing (HPC) clusters within the AWS environment. It streamlines the configuration of essential components such as compute nodes, shared filesystems, and job schedulers, while accommodating various instance types and job submission queues. Users have the flexibility to engage with ParallelCluster using a graphical user interface, command-line interface, or API, which allows for customizable cluster setups and oversight. The tool also works seamlessly with job schedulers like AWS Batch and Slurm, making it easier to transition existing HPC workloads to the cloud with minimal adjustments. Users incur no additional costs for the tool itself, only paying for the AWS resources their applications utilize. With AWS ParallelCluster, users can effectively manage their computing needs through a straightforward text file that allows for the modeling, provisioning, and dynamic scaling of necessary resources in a secure and automated fashion. This ease of use significantly enhances productivity and optimizes resource allocation for various computational tasks.

Integrated version control along with straightforward management tools eliminates the expensive requirement for a separate PDM system, ensuring that you and your team always have access to the most current design data. Every alteration made by users is meticulously logged, allowing for a history of changes that can be reversed at any moment, thus offering limitless undo/redo options alongside a thorough audit trail. The option to branch and merge facilitates the simultaneous development of various product concepts. One of the standout features of SolidFace is its parameterization capability, which is utilized throughout all phases of design. 3D motion simulation benefits from this as it updates in real-time with any movement. Additionally, the software can simulate 2D mechanisms, allowing for analysis in either a 2D drawing space or within the 3D sketch environment. Furthermore, SolidFace provides direct access to an extensive online part library, boasting over 100 million part numbers sourced from numerous top manufacturers and distributors, as well as thousands of standards such as ISO, ANSI, DIN, NF, GB, and ASME. This comprehensive resource enhances the design process, making it more efficient and effective for users.

Ansys Autodyn enables the simulation of material responses to various events, including short-duration severe mechanical loadings, high pressures, and explosions. This software combines advanced solution techniques with user-friendly features, making it accessible for quick comprehension and simulation of significant material deformation or failure. It offers a diverse range of models to accurately capture complex physical phenomena, such as the interactions between liquids, solids, and gases, as well as phase transitions in materials and shock wave propagation. With seamless integration into Ansys Workbench and its intuitive user interface, Ansys Autodyn stands out in the industry by facilitating the generation of precise results efficiently. The inclusion of the smooth particle hydrodynamics (SPH) solver enhances its capabilities for explicit analysis, ensuring comprehensive support for various simulation needs. Furthermore, Ansys Autodyn allows users to choose from multiple solver technologies, ensuring that the most suitable solver is applied for different components of the model, thus optimizing performance and accuracy.

Rocky DEM efficiently models the flow behavior of bulk materials, accommodating complex particle geometries and diverse size distributions. It uniquely harnesses the combined processing power of multiple GPU cards, significantly speeding up simulations and allowing for the management of larger datasets in reduced timeframes. The software supports precise modeling of particle shapes, incorporating custom 3D forms, 2D shells, and fibers that can be either rigid or flexible, enhancing the versatility of simulations. Users can enable their equipment components to respond dynamically to various forces, including particle interactions and gravitational effects. With its advanced Application Programming Interface (API), Rocky DEM utilizes cutting-edge technology to enhance customization and improve the user experience. This leads to exceptional usability, remarkable portability, and superior solver performance. Additionally, Rocky DEM seamlessly integrates with Ansys Workbench, including Fluent, Mechanical, Optislang, and DesignXplorer, offering both one-way and two-way coupling capabilities that ensure consistent physical results. Such integration not only streamlines workflows but also enhances the accuracy of simulations across different engineering applications.

The Lustre file system is a parallel, open-source file system designed to cater to the demanding requirements of high-performance computing (HPC) simulation environments often found in leadership class facilities. Whether you are part of our vibrant development community or evaluating Lustre as a potential parallel file system option, you will find extensive resources and support available to aid you. Offering a POSIX-compliant interface, the Lustre file system can efficiently scale to accommodate thousands of clients, manage petabytes of data, and deliver impressive I/O bandwidths exceeding hundreds of gigabytes per second. Its architecture includes essential components such as Metadata Servers (MDS), Metadata Targets (MDT), Object Storage Servers (OSS), Object Server Targets (OST), and Lustre clients. Lustre is specifically engineered to establish a unified, global POSIX-compliant namespace suited for massive computing infrastructures, including some of the largest supercomputing platforms in existence. With its capability to handle hundreds of petabytes of data storage, Lustre stands out as a robust solution for organizations looking to manage extensive datasets effectively. Its versatility and scalability make it a preferable choice for a wide range of applications in scientific research and data-intensive computing.

Ansys Chemkin-Pro stands at the forefront of modeling intricate, chemically interactive systems. It has undergone rigorous validation for a wide array of chemistry-related applications and is recognized for its remarkably rapid simulation capabilities. In the current landscape of energy regulations, there is a pressing demand for high yields, efficiency, and quality while minimizing byproducts and waste. Ansys Chemkin-Pro serves as a chemical kinetics simulator that accurately represents idealized reacting flows, offering valuable insights into outcomes prior to production testing. Relying solely on experimental testing for confirming chemical processes can be economically challenging, especially with the rapid design cycles of today. Consequently, effective simulation plays a pivotal role in developing cost-efficient designs, facilitating quicker market entry for new products. Notably, Mitsuo Koshi, an esteemed chemical kineticist and passionate fireworks enthusiast, has gained recognition for judging prestigious fireworks competitions throughout Japan. Each year, the displays become increasingly spectacular; however, this escalation comes with the downside of rising emissions, raising concerns about environmental impact. As such, the balance between artistry in fireworks and environmental responsibility is becoming an ongoing challenge for both chemists and pyrotechnicians alike.

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.

Streamline your simulation toolchain and link it to advanced algorithms for robust design optimization. Prepare for your future requirements in parametric and simulation-driven virtual product development by utilizing Ansys optiSLang. This innovative platform continuously evolves to meet the demands of CAE-based Robust Design Optimization (RDO). Its cutting-edge algorithms are designed to efficiently and automatically identify the most robust design configurations, thus replacing the tedious, manual methods previously employed in RDO. By incorporating optiSLang as your solution for process integration and design optimization, you will be empowered to make informed decisions more quickly. Enhance the search for optimal and robust design configurations by leveraging the automation of the search process, complemented by interactive visualization and AI technologies. With its advanced algorithms for design exploration, optimization, robustness, and reliability analysis, you can achieve superior decision-making with reduced effort, ultimately leading to a more efficient design optimization process. Embrace this transformative approach to elevate your product development and stay ahead in a competitive landscape.

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.

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.

The convergence of high-performance computing (HPC) and machine learning is placing unprecedented requirements on storage solutions, as the input/output demands of these two distinct workloads diverge significantly. This shift is occurring at this very moment, with a recent analysis from the independent firm Intersect360 revealing that a striking 63% of current HPC users are actively implementing machine learning applications. Furthermore, Hyperion Research projects that, if trends continue, public sector organizations and enterprises will see HPC storage expenditures increase at a rate 57% faster than HPC compute investments over the next three years. Reflecting on this, Seymour Cray famously stated, "Anyone can build a fast CPU; the trick is to build a fast system." In the realm of HPC and AI, while creating fast file storage may seem straightforward, the true challenge lies in developing a storage system that is not only quick but also economically viable and capable of scaling effectively. We accomplish this by integrating top-tier parallel file systems into HPE's parallel storage solutions, ensuring that cost efficiency is a fundamental aspect of our approach. This strategy not only meets the current demands of users but also positions us well for future growth.

Ansys Nuhertz FilterSolutions offers a streamlined and efficient process for the automated design, synthesis, and optimization of RF, microwave, and digital filters. The process begins with inputting the desired performance specifications, after which it synthesizes both lumped component designs and physical layouts while automatically configuring analysis and optimization within the Ansys HFSS electromagnetic simulator. This innovative solution significantly accelerates the development of lumped element (surface mount) and planar filters. Additionally, it incorporates synthesis tools for various filter types, including active, switched capacitor, and digital filters. Users can export the netlist of active filters in SPICE format, and the digital filter synthesis module allows for the generation of C-code for the resulting filters. Overall, Ansys Nuhertz FilterSolutions enhances efficiency and versatility in filter design, making it a valuable tool for engineers.

Conducting a 2D throughflow simulation is an essential phase in the design process of rotating machinery. Ansys Vista TF not only delivers swift results but also enhances your understanding of the design, uncovering potential issues that may not have been previously recognized. By engaging in initial design iterations in a 2D format, you can streamline the transition to comprehensive 3D analysis, ultimately saving both development time and engineering resources. This software empowers users to gain deeper insights into their rotating machinery designs, allowing for refinement of product performance during the early stages of design. The significance of a high-performance turbocharger cannot be overstated, as it plays a vital role in overall engine efficiency. Engineers at PCA sought a solution to optimize turbocharger functionality while also identifying the most effective strategies for their challenges. Ansys Vista TF emerged as the optimal solution, thanks to its capacity to provide rapid, high-quality insights within an efficient workspace, thereby significantly aiding their design process. Additionally, the ability to quickly iterate designs using this software has proven invaluable for maintaining competitive advantages in the 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.

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.

Ansys PathFinder-SC serves as a robust and scalable solution designed to facilitate the planning, verification, and approval of IP and full-chip SoC designs, ensuring their integrity and resilience against electrostatic discharge (ESD). This innovative tool effectively identifies and isolates the underlying sources of design problems that could lead to chip failures due to charged-device model (CDM), human body model (HBM), or various ESD incidents. With its cloud-native architecture capable of harnessing thousands of compute cores, PathFinder-SC significantly accelerates full-chip turnaround times. Endorsed by leading foundries for current density assessments and ESD approval, it stands out as a reliable choice in the industry. The platform's comprehensive data modeling, extraction, and transient simulation engine provides an all-encompassing solution for ESD verification. Utilizing a single-pass model, it seamlessly reads industry-standard design formats, establishes ESD rules, extracts RCs for the power network, and conducts ESD simulations to pinpoint root causes while offering repair and optimization suggestions, all consolidated within one powerful tool. This streamlined process not only enhances efficiency but also reduces the time-to-market for critical design projects.

AWS Parallel Computing Service (AWS PCS) is a fully managed service designed to facilitate the execution and scaling of high-performance computing tasks while also aiding in the development of scientific and engineering models using Slurm on AWS. This service allows users to create comprehensive and adaptable environments that seamlessly combine computing, storage, networking, and visualization tools, enabling them to concentrate on their research and innovative projects without the hassle of managing the underlying infrastructure. With features like automated updates and integrated observability, AWS PCS significantly improves the operations and upkeep of computing clusters. Users can easily construct and launch scalable, dependable, and secure HPC clusters via the AWS Management Console, AWS Command Line Interface (AWS CLI), or AWS SDK. The versatility of the service supports a wide range of applications, including tightly coupled workloads such as computer-aided engineering, high-throughput computing for tasks like genomics analysis, GPU-accelerated computing, and specialized silicon solutions like AWS Trainium and AWS Inferentia. Overall, AWS PCS empowers researchers and engineers to harness advanced computing capabilities without needing to worry about the complexities of infrastructure setup and maintenance.

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.

Renowned for its exceptional durability, CFX stands out as the premier CFD software for turbomachinery applications. Its solvers and models are integrated into a sleek, user-friendly, and adaptable graphical interface that offers extensive options for customization and automation through session files, scripting, and an advanced expression language. The software's highly scalable high-performance computing capabilities significantly accelerate simulations for various equipment, including pumps, fans, compressors, and turbines. Recent advancements in manufacturing techniques have enabled the development of more efficient turbine cooling channel geometries, which, while more intricate, promise enhanced performance and efficiency. In pursuit of precise results, a group of engineers from Purdue University opted for Ansys CFX to conduct their simulations. They executed critical calculations with minimal delay, allowing them to delve deeper into comparative analyses and run additional simulations, which ultimately led to a more thorough optimization of their product. This efficiency not only improved their workflow but also contributed to innovative solutions in turbine design.

In recent years, high-performance computing has become a more accessible resource for a greater number of researchers within the scientific community than ever before. The combination of quality open-source software and affordable hardware has significantly contributed to the widespread adoption of Beowulf class clusters and clusters of workstations. Among various parallel computational approaches, message-passing has emerged as a particularly effective model. This paradigm is particularly well-suited for distributed memory architectures and is extensively utilized in today's most demanding scientific and engineering applications related to modeling, simulation, design, and signal processing. Nonetheless, the landscape of portable message-passing parallel programming was once fraught with challenges due to the numerous incompatible options developers faced. Thankfully, this situation has dramatically improved since the MPI Forum introduced its standard specification, which has streamlined the process for developers. As a result, researchers can now focus more on their scientific inquiries rather than grappling with programming complexities.

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.

A digital twin that is driven by analytics and based on simulations serves as a virtual counterpart to a physical asset currently in use, functioning as a comprehensive multidomain system simulation that reflects the asset's lifecycle and performance. These hybrid digital twins facilitate the design and optimization of systems, as well as predictive maintenance strategies, which in turn enhance the management of industrial assets. By utilizing Ansys Twin Builder, organizations can boost their revenue, control expenses, and gain a significant edge over competitors. This tool allows for the rapid development of a digital twin, which acts as an interconnected representation of an operational asset, leading to improved management throughout its lifecycle and enabling effective predictive maintenance. Such capabilities not only help reduce costs but also play a crucial role in sustaining a lasting competitive advantage in the marketplace.

Understanding how light travels and influences both product efficacy and human experience is essential for assessing performance and ensuring comfort, perception, and safety. Ansys Optics stands out by effectively simulating the optical characteristics of a system, assessing the ultimate lighting effects, and forecasting the repercussions of variations in lighting and materials on appearance and perceived quality, all within realistic scenarios. With this advanced visualization tool, you can conceptualize your product prior to its creation, thereby enhancing the virtual experience for customers. Allow Ansys Optics and its optical simulation capabilities to guide you towards optimal solutions for any project style. The software adeptly addresses intricate optical challenges while enhancing visual aesthetic quality. By integrating design and engineering into a seamless workflow, you can significantly boost the final quality of your product, creating true-to-life visualizations that resonate with users. Additionally, you can develop and evaluate virtual prototypes of a cockpit HMI within an immersive, real-time setting, providing a comprehensive understanding of user interaction. This process not only improves design outcomes but also fosters innovation in product development.

Ansys VRXPERIENCE Perceived Quality delivers a cutting-edge, physics-driven solution for assessing designs that encompass variations in lighting, colors, and materials. This platform enables you to test and validate your product designs within a relevant context. With VRXPERIENCE Perceived Quality, you can swiftly evaluate different design options for both materials and lighting. This method empowers you to confirm your selections against established design specifications, allowing for the identification of optimal lighting and material pairings under realistic conditions. You can produce a virtual prototype from a 3D model with ease, facilitating early decision-making in the design phase through real-time optical simulations. By utilizing Ansys VRXPERIENCE Perceived Quality's immersive virtual reality visualizations, you can incorporate physics-based lighting scenarios to accurately assess how your chosen lighting and material options will manifest in the real world. This comprehensive approach not only enhances design accuracy but also streamlines collaboration among team members throughout the development process.

Utilizing the Ansys Electronics solution suite significantly reduces testing expenses, guarantees adherence to regulations, enhances product reliability, and substantially shortens development timelines. This approach enables you to create advanced and superior products that stand out in the market. By harnessing Ansys' simulation capabilities, you can address the most vital elements of your designs effectively. Our solutions empower you to tackle critical issues in product design through comprehensive simulation. Whether you're involved in antenna, RF, microwave, PCB, package, IC design, or even electromechanical devices, we offer industry-leading simulators that serve as the gold standard. These tools assist you in overcoming various challenges related to electromagnetic forces, temperature variations, signal integrity, power integrity, parasitic effects, cabling, and vibrations in your designs. Furthermore, we enhance this process with thorough product simulation, which facilitates achieving first-pass success in designing complex systems such as airplanes, automobiles, smartphones, laptops, wireless chargers, and more. By integrating our solutions, you position yourself to excel in innovation and engineering excellence.

Ansys SpaceClaim offers a distinctive user interface, innovative modeling technology, and a versatile set of tools that facilitate the creation and modification of imported geometries without the intricacies often found in conventional CAD systems. While managing existing CAD models, users can effortlessly de-feature and streamline geometry using automated tools that are straightforward to master. This software is particularly suited for engineers who require rapid 3D solutions but lack the time to navigate elaborate CAD tools. SpaceClaim equips analysts with capabilities that expedite geometry preparation for simulations, whether that involves de-featuring CAD models, isolating fluid domains, or converting a model to beam and shell elements. By alleviating geometry-related obstacles, SpaceClaim allows analysts to concentrate on their simulations without interruption. With enhanced control over geometry, analysts can foster simulation-driven design, reduce delays between design and analysis teams, and quickly assess how modifications to designs affect outcomes, ultimately leading to more efficient workflows and better project results. Consequently, the integration of SpaceClaim into engineering practices significantly enhances productivity and collaboration.

High-performance tasks associated with data-heavy AI, IoT, and HPC workloads have traditionally relied on costly, top-tier processors or accelerators like Graphics Processing Units (GPUs) to function optimally. Additionally, organizations utilizing cloud-based platforms for demanding computational tasks frequently encounter trade-offs that can be less than ideal. For instance, the outdated nature of processors and hardware in cloud infrastructures often fails to align with the latest software applications, while also raising concerns over excessive energy consumption and environmental implications. Furthermore, users often find certain features of cloud services to be cumbersome and challenging, which hampers their ability to create tailored cloud solutions that meet specific business requirements. This difficulty in achieving a perfect balance can lead to complications in identifying appropriate billing structures and obtaining adequate support for their unique needs. Ultimately, these issues highlight the pressing need for more adaptable and efficient cloud solutions in today's technology landscape.

Ansys Lumerical FDTD stands as the premier choice for simulating nanophotonic devices, processes, and materials. Its integrated design environment features robust scripting capabilities, sophisticated post-processing options, and optimization routines. This meticulously refined application of the FDTD method ensures exceptional solver performance across a wide range of applications. With these tools at your disposal, you can concentrate on the creative aspects of your design while relying on the software to handle the technical complexities. The platform offers a variety of advantages that facilitate flexible and customizable modeling and simulation. By leveraging Ansys Lumerical FDTD, you can effectively model nanophotonic devices, processes, and materials, thus empowering your innovative pursuits. Ultimately, Lumerical FDTD exemplifies excellence in the field, delivering dependable, powerful, and scalable solver performance tailored to meet diverse application needs.

Ansys Path FX provides the capability to perform timing analysis with variations across an entire System on Chip (SoC) without compromising accuracy. With its distinct cell modeling, it achieves SPICE-level timing accuracy for various voltage and variation scenarios using a single library. The architecture of Path FX is fully threaded and distributed, enabling it to scale efficiently to thousands of CPUs. Furthermore, Path FX employs path-based timing analysis technology that effectively considers all significant factors influencing delay and constraints across different process, voltage, and temperature conditions. It also has the functionality to automatically detect and simulate each clock path present in your design. In the current landscape, two major hurdles in chip design include reducing power consumption through lower supply voltages and navigating the complexities associated with advanced silicon processes, particularly at 7nm and beyond. This makes tools like Ansys Path FX indispensable for modern semiconductor development.

AM PravaH® is an advanced simulation software featuring a graphical user interface (GUI) that focuses on high-performance capabilities tailored for the field of additive manufacturing. Developed by Paanduv R&D, this software integrates parallelized computational modeling with cutting-edge numerical techniques sourced from both leading global researchers and internal expertise. Its innovative design allows for efficient simulations, making it a valuable tool for engineers and researchers in the industry.

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.

Ansys Zemax OpticStudio is a sophisticated optical design software that is widely employed by educational institutions and businesses around the world for the creation and evaluation of optical systems, including those used for imaging, illumination, and lasers. The software features an intuitive interface that combines analysis, optimization, and tolerancing capabilities, making it easier to develop intricate optical systems applicable across various fields. It supports both sequential and non-sequential ray tracing, which allows for accurate representation of light behavior as it travels through different optical elements. Additionally, its advanced capabilities include structural and thermal analysis, empowering users to evaluate how environmental conditions might affect optical system performance. With a rich library of materials and optical components, OpticStudio significantly enhances the precision of its simulations. Furthermore, Ansys provides a complimentary version of OpticStudio for students, offering them the opportunity to gain practical experience in optical design and analysis, which is essential for their future endeavors in the optics industry. This initiative not only fosters a deeper understanding of optics but also encourages innovation and creativity among budding engineers.

Kombyne™ represents a cutting-edge Software as a Service (SaaS) tool designed for high-performance computing (HPC) workflows, originally tailored for clients in sectors such as defense, automotive, aerospace, and academic research. This platform empowers users to access a diverse array of workflow solutions specifically for HPC computational fluid dynamics (CFD) tasks, encompassing features like on-the-fly extract generation, rendering capabilities, and simulation steering options. Users can benefit from interactive monitoring and control functionalities, all while ensuring minimal disruption to simulations and eliminating reliance on VTK. By employing extract workflows, the necessity for handling large files is significantly reduced, allowing for real-time visualization. The system incorporates an in-transit workflow that utilizes a distinct process to swiftly receive data from the solver code, enabling visualization and analysis without hindering the operation of the running solver. This specialized process, referred to as an endpoint, facilitates the direct output of extracts, cutting planes, or point samples useful for data science, in addition to rendering images. Furthermore, the Endpoint serves as a conduit to widely-used visualization software, enhancing the overall usability and integration of the tool within various workflows. With its versatile features and ease of use, Kombyne™ is set to revolutionize the way HPC tasks are managed and executed across multiple industries.

Ansys Totem-SC stands out as the established and reliable leader in the realm of power noise and reliability validation for both analog and mixed-signal designs, utilizing a cloud-native elastic compute framework. Recognized as the benchmark solution for voltage drop and electromigration multiphysics sign-off at the transistor level, Ansys Totem-SC has proven its effectiveness across numerous tapeouts, leveraging a cloud-based infrastructure to provide the necessary speed and capacity for comprehensive full-chip assessments. Its accuracy in signoff has been validated by all major foundries, supporting advanced finFET technologies down to 3nm. This platform excels in power noise and reliability analysis specifically for analog mixed-signal intellectual property and fully custom designs. Moreover, it generates IP models that facilitate SOC-level power integrity signoff in conjunction with RedHawk-SC and develops compact chip models for power delivery networks applicable at both chip and system levels. The solution is not only industry-proven but also certified by foundries, making it a highly regarded choice for analog and mixed-signal electromigration and IR analysis. With Ansys Totem-SC, designers can confidently ensure the integrity and reliability of their power delivery systems throughout the design process.