Alternatives to Simcenter Flotherm

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

Orbital Stack, an AI and CFD web-based program, provides earlier qualitative guidance. It compares a wide range of land-use options and shapes, and highlights any red flags. It allows for climate-conscious, high performance developments that are not possible with traditional studies. Orbital Stack was developed by world-renowned experts in microclimate engineering and wind. It is a game-changer in the architecture and building design industry, providing our clients direct access for wind comfort and safety analysis as well as thermal comfort and shadowing analysis and cladding pressure simulations. This allows architects to quickly understand the climate effects of their proposed building designs and make better decisions, resulting in more resilient and high-performing projects.

ColdStream is an engineering platform for thermal simulation that runs in the cloud. It supports your entire thermal management process, from thermal design to thermal analysis. Diabatix's Thermal Simulation Software allows your business to accelerate product development by using only the latest technologies. Get insights on temperature distribution, heat dissipation and fluid flow, thermal resistance and thermal radiation, cooling capability, and more. ColdStream will find the most suitable heat sinks for your electronic devices and products. In just a few simple clicks, you can upload your geometry, configure the thermal simulator operating conditions, and set the design objectives for your heat sinks.

SimSolid is the revolutionary simulation technology for engineers, designers, and analysts. It performs structural analyses on fully-featured CAD assemblies in minutes. SimSolid eliminates geometry preparation, meshing, and other errors that are time-consuming and difficult to perform in conventional structural simulations. Multiple design scenarios can be simulated quickly under real-life conditions. You can use any CAD model, even an early one. SimSolid tolerance for imprecise geometry means SimSolid simulation tools don't need to be simplified before analyzing designs. SimSolid supports all types of connections (bolt/nuts, bonded, rivets and sliding) and analysis for linear static, modal, and thermal properties. It also supports complex coupled, nonlinear, dynamic effects.

Ansys Sherlock, a reliability-physics-based electronic design tool, provides fast and accurate life predictions at the component and board levels for electronic hardware in early design stages. Ansys Sherlock automates the design analysis of electronic hardware. It provides accurate and fast life predictions at the component, board, and system levels during early design stages. Sherlock bypasses the 'test-fail-fix-repeat' cycle by empowering designers to accurately model silicon-metal layers, semiconductor packaging, printed circuit boards (PCBs) and assemblies to predict failure risks due to thermal, mechanical and manufacturing stressors--all before prototype. Sherlock quickly converts embedded libraries containing more than 500,000 parts into computational fluid dynamics and finite element analysis models. Each model includes accurate geometries, material characteristics, and stress information.

6SigmaET is an electronic thermal modeling tool that uses advanced computational Fluid Dynamics (CFD), to create precise models of electronic equipment. Our thermal simulation software is specifically designed for electronics. It offers unparalleled intelligence, automation, and accuracy to help you meet all your requirements and overcome any thermal design challenges. 6SigmaET is the fastest-growing thermal simulator software in the electronics cooling market since its inception in 2009. 6SigmaET's versatility allows you to simulate the thermal performance electronic components, from the smallest ICs up to the most powerful servers. Watch one of our videos to learn more about 6SigmaET's benefits for your industry. Or, browse our case studies. You can import the entire CAD geometry and PCB designs into 6SigmaET to perform thermal analysis. This will reduce the time it takes to create models.

Simulate all heat transfer phenomena from convection and radiation to storage and dissipation. Simulate both steady-state and dynamic environmental influences. TAITherm is as powerful as it is easy to use. It can solve for solar and thermal radiation as well as convection and conduction in ever-changing environments. TAITherm eliminates the need for complex thermal simulations, and ensures your design will perform optimally in real-world scenarios. TAITherm has been used by thousands engineers and teams worldwide. TAITherm is used by our customers for a wide range of applications, including the latest advancements and technologies in automotive, electronics wearables, military, architecture, and other fields. Thermal simulations and thermal analyses are helping our customers push the boundaries of technology. They increase usability, safety and effectiveness for their industries.

Simcenter Nastran is a leading finite element method (FEM), solver for computational performance and accuracy, reliability, and scalability. Simcenter Nastran offers powerful solutions for structural analysis, optimization, aeroelasticity, thermal analysis and rotor dynamics. Simcenter Nastran provides all the solutions in one solver. This simplifies modeling and makes it easier to use all solution types. Simcenter Nastran is available as a standalone enterprise solver and as an integrated solver within Simcenter 3D. It helps manufacturers and engineering suppliers in aerospace, electronics, heavy machine, medical device, and other industries with their critical engineering computing requirements so they can produce safe and reliable designs in shorter design cycles.

SINDA/FLUINT is a powerful and proven heat transfer and fluids simulation tool that has been providing users with these capabilities for decades. These capabilities continue to grow each year. SINDA/FLUINT provides a generalized, comprehensive tool for simulating thermal/fluid system simulations, such as those used in the electronics, automotive and petrochemical industries, power generation, medical and aerospace industries. SINDA/FLUINT allows you to gain a better understanding and save time and money through a faster and easier design process. You decide what is important, and how you want to answer your design performance questions. The application is also completely extensible, making it the most versatile software product for thermal and fluids on the market. You can choose which features you want and decide on the accuracy and approximation levels that are appropriate. Also, you can decide on what outputs you need.

Simcenter MAGNET provides a powerful electromagnetic simulation solution to predict the performance of motors and generators. It can also be used for predicting the performance of sensors, transformers. actuators, solenoids or any other component with permanent magnets. Simcenter MAGNET allows you to predict the performance of any part with permanent magnets or coils. Simulate low-frequency electromagnetic fields. Simcenter MAGNET has the ability to accurately model electromagnetic devices. This includes the ability to model manufacturing processes, temperature-dependent material properties, magnetization and de-magnetization modeling, and vector hysteresis models among others. Simcenter MAGNET also has a built-in motion solver with a six-degree-of-freedom capability. It allows complex problems such as magnetic levitation and complex motions to be accurately modelled and analyzed. A unique smart remeshing technology makes this possible.

MSC Nastran is a multidisciplinary application for structural analysis that engineers use to perform static, dynamic and thermal analysis in the linear and nonlinear domains. It also includes automated structural optimization and award-winning embedded fatigue analysis technologies. All of this is enabled by high performance computing. MSC Nastran is used by engineers to ensure structural systems are strong, stiff, and durable. This helps to prevent structural failures (excess stress, resonance, buckling or other detrimental deformations) which could compromise structural function and safety. MSC Nastran can also be used to improve structural designs' economy and passenger comfort. Creating industry-leading product differentiations or optimizing existing designs can lead to industry advantages. Reduce downtime and costs by resolving structural problems that may arise during product service.

Take advantage of the power of thermal analysis for natural solidification in a software package that is affordable and capable. CAPlite has a simple, step-by-step graphical user interface that is ideal for anyone who does not have experience with casting software. CAPlite takes you from a CAD model through to the post-processing. Natural solidifications provide results in minutes. CAPlite can identify casting problems in all types of castings, from die casting to sandcasting. Natural solidifications are easy to use and can be used to enhance your entire casting process at any stage. They can help identify defects or visualize the otherwise abstract solidification process. CAPlite gives you the power of natural sinterings and more, allowing you to improve your castings for a fraction of their cost.

SimScale, a web-based cloud application, plays an important role in simulation software for many industries. The platform supports Computational Fluid Dynamics, Finite Element Analysis (FEA), as well as Thermal Simulation. It also provides 3D simulation, continuous modeling, motion & dynamic modelling.

Energy2D, a multiphysics simulation program based on computational physics and combining particle dynamics, models all three modes for heat transfer: conduction, convection and radiation. Energy2D runs fast on most computers, eliminating the need to switch between preprocessors and solvers and postprocessors that are usually required for computational fluid dynamics simulations. It allows you design "computational experiment" to test a hypothesis or solve a problem in engineering without resorting complex mathematics. There are also plans to support different fluid types and incorporate other types energy transformations. Energy2D's conduction is very accurate, but its convection and radioactivity parts are not. Energy2D should therefore be considered qualitative in cases involving convection and/or radiation. Energy2D has been used in more than 40 scientific publications.

Thermal Desktop is a complete model creation tool. Objects such as finite element, lumped capacitance, and built-in finite differences can be combined in any way. Thermal-specific objects, such as insulation, heat loads and heaters, can be added to any model, from automotive components to manned satellites. Thermal Desktop allows full parameterization by using variables and arbitrarily complicated expressions instead of hardwired numbers. These variables, also known as symbols, enable models to be quickly manipulated by a few keystrokes. This makes it easy to update or maintain the model, perform sensitivity studies, and investigate what-if scenarios. This gives you access to SINDA/FLUINT’s optimization and reliability modules, as well as automatic model correlation.

Pyris™, the benchmark for high-sensitivity thermal analyses, brings your PerkinElmer thermal instruments and data to life. Pyris, the most popular choice for thermal analysis, is user-friendly and intuitive. It also offers a variety of standard features to maximize flexibility. Pyris is the perfect software for any application, whether it's a fully automated research lab, an automated QA/QC laboratory, or a standalone instrument. Pyris software is constantly improved based on feedback from customers to ensure maximum user satisfaction. A common platform for the instruments makes it simple to use and easy to learn. Pyris software is simple to use, but does not lose its capabilities. The software allows you to run multiple analyzers at the same time and conduct data acquisition and analyses in one window. Data import/export flexibility and a wide range of analytical options.

AnyCasting Software has been a leading simulation program for castings for over 20 years. We are currently working with companies that manufacture automobiles, ships and heavy material industries. We have sold over 600 copies in the world and solved and provided technical consulting on over 470 projects. AnyCasting offers stress analysis that can be used to simulate deformation, heat and stress analysis. It can also help users design the best mold by providing automatic mold designing. Hyundai Motors and Hyundai Heavy Industries are among the domestic customers who have been satisfied. Identify the location of gas defect caused by the isolation air during the filling process and flow of the melt. Our software locates defects by comparing air pressure to the pressure in the melt.

RadCAD uses an ultra-fast Monte-Carlo ray-tracing algorithm that is accelerated by octa-trees to compute radiation exchange and view factors. C&R Technologies' innovations to the ray-tracing process resulted in a highly efficient thermal radiation software. RadCAD models diffuse or specular surfaces accurately, regardless of the density of nodes. The number of nodes is determined by the thermal solution, not by the accuracy requirements for the radiation. RadCAD uses user-defined databases for optical properties. Each surface coating defines absorptivity and transmissivity as well as reflectivity and specularity for both solar and infrared spectrum regimes. These properties can be defined in relation to incident angle, or even wavelength dependence.

Simcenter Amesim, the most integrated and scalable platform for system simulation, allows system engineers to simulate and optimize mechatronic system performance. This will increase overall system engineering productivity, from the initial development stages to the final performance validation and controls calibration. Simcenter Amesim is a combination of ready-to-use multiphysics libraries and industry-oriented solutions. It supports powerful platform capabilities that allow you to quickly create models and perform analysis. This open environment can be easily integrated with major computer-aided designing (CAD), computer-aided engineering and controls software packages.

Ansys Fluent, the industry-leading fluid sim software, is known for its superior physics modeling capabilities as well as industry-leading accuracy. Ansys Fluent allows you to innovate and optimize your product performance. You can trust your simulation results when you use software that has been thoroughly tested across a variety of applications. Ansys Fluent allows you to create advanced physics models, analyze fluid phenomena, and more - all in an intuitive and customizable environment. This powerful fluid simulation software will accelerate your design cycle. Ansys Fluent has the best-in-class physics models. It can efficiently and accurately solve large, complex models. Ansys Fluent unlocks the potential for CFD analysis. Fluid simulation software that is fast and efficient. This software will help you to be the best in the market. Fluent's industry-leading features allow for endless innovation without compromising on accuracy.

FloCAD®, a fluid dynamics module for Thermal Desktop®, and together they provide a complete thermohydraulic tool for integrated fluid flow analysis and heat transfer analysis. FloCAD is very similar to building thermal models. Many of the commands can be used to build fluid flow models. FloCAD models are available in two formats: they can be free-form (non geometric), sketchpad-style flow network modeling for abstraction, simplification, and convection to finite differences of finite element representations. FloCAD is a generalized software tool for capturing pressure drops in a piping system due to bends and valves, tees and changes in flow area.

Our STARe software sets the standard for thermal analysis. It offers virtually limitless evaluation options. Modularity, flexibility and automation are some of its unique features. The software helps you stay compliant in a regulated field. All of our thermal systems can be controlled by a single powerful software platform. We offer the most comprehensive line of thermal systems and instruments. Our thermal analysis software, STARe, is easy to use and powerful. The instruments receive measurements and experiments, and the curves are evaluated instantly based on user preferences. STARe is the industry standard in thermal analysis software. It is a software that is extremely flexible and offers almost limitless possibilities for evaluation. STARe is the comprehensive software that powers METTLER TOLDEO’s thermal analysis systems. It simplifies workflows.

Ansys Icepak solves thermal management problems using CFD. It predicts airflow, temperature, and heat transfer in IC packages, PCBs, electronic assemblies/enclosures, and power electronics. Ansys Icepak offers powerful electronic cooling solutions using the industry-leading Ansys Fluent CFD solver to perform thermal and fluid flow analysis of integrated circuits, packages, printed circuit board (PCBs), electronic assemblies and enclosures. Ansys' Icepak CFD solution uses the Ansys Electronics Desktop GUI (GUI). Perform heat transfer analysis conjugated with conduction, convection and radiation. Advanced capabilities include laminar and turbulent flow modeling, species analysis, including radiation and convection. Ansys PCB Design Solution allows you to simulate PCBs and ICs and accurately evaluate a system.

CoTherm, a coupling software and process automation program, acts as a liaison between CAE programs. CoTherm simplifies process automation. It can be used to run sensitivity studies, design of experiments or multiple CAE models in a single process. This capability can streamline preprocessing, thermal analysis or transient analysis. CoTherm provides templates for common coupling and automation tasks. CoTherm has optimization capabilities to determine the best inputs for your design. The general optimization sub-processes can be used to optimize any CAE analysis. CoTherm’s mathematically rigorous solution, including multiple global and local methods, removes guesswork from your design process. CoTherm supports a wide range of thermal and CFD code. CoTherm’s powerful tools enable the coupling of any program that can be run from the command line or config files.

Simulating and analyzing your product design will reduce the cost of physical prototyping and increase your products' durability and reliability. It is crucial to your product development to use digital prototypes to understand the performance of your designs in real-world situations. Creo Simulation was designed exclusively for engineers. It includes structural, thermal and vibration analysis solutions, as well as a comprehensive set finite element analysis (FEA). You can validate and analyze the performance of 3D virtual prototypes with Creo Simulation before you even make the first part. We offer unique and flexible simulation solutions to our customers. This section will give you a better understanding of what we can do to meet your needs. Contact a Creo representative if you have any questions regarding our tool stack.

AI advances will eliminate the need for trial and error in medical practice. Our digital twins allow for confident and rapid clinical trials. We work in neurology, immunology and metabolic disease. TwinRCTs achieve full enrollment faster because they need fewer patients in order to achieve the same power of traditional trial designs. Enrollment time in late-stage trials can be shortened. TwinRCTs increase the power of early-stage studies without adding additional patients, allowing them to observe treatment effects. Early-stage studies can be used to make confident decisions and attract participants. TwinRCTs increase the chances of participants receiving experimental treatments because they use smaller controls groups. Position clinical trials using digital twins to achieve regulatory success. Unlearn engineers the future of medicine using artificial intelligence. We create and deploy new types generative models based on patient-level data.

Cadence Celsius PowerDC technology offers efficient DC analysis to ensure reliable power delivery. This includes electrical/thermal simulations for maximum accuracy. The Celsius PowerDC technology quickly identifies areas of excessive IR drop and thermal hotspots to minimize the risk of failure of your design. Highly accurate, even with complex designs that have multiple voltage domains, complex plane structures and multiple voltage domains, providing conclusive IR analysis for board and package. DC simulations can be automatically set up using PowerTree Technology (source/sink defintions) captured during the schematic stage of design. Support for multi-structures, including stacked boards, multiple die, and all popular packaging types.

MacroFlow is an extremely powerful software tool that allows for the rapid and accurate design of flow and thermal systems in a variety of engineering applications. The underlying technique for Flow Network Modeling is the representation of a system as a web of components and flow paths, with the overall flow characteristics. The system behavior can be determined by solving the mass, momentum and energy conservation equations at a system level. MacroFlow's intuitive Graphical User Interface allows for quick creation of complex network models. MacroFlow has a very large component library. It includes vendor libraries, standard geometric components, and components used in electronics cooling and semiconductor processing. The solution method is robust and efficient, with an analysis of a typical flow system being completed in less than one minute.

Autodesk CFD, a computational fluid dynamics simulation program, is used by engineers and analysts to predict how liquids will perform. Autodesk CFD reduces the need for physical prototypes and provides deeper insight into fluid flow design performance. Autodesk CFD offers engineers a variety of powerful tools to optimize system design. Fluid flow and surface movement are possible. Thermal management for electronics cooling. BIM integration to ensure occupant comfort in HVAC systems in AEC and MEP. The Decision Center allows customization and automation of common tasks through the Application Programming Interface (API), and scripting functions. The Decision Center automates system design comparisons in order to accelerate design-based decision making.

Simcenter Femap is an advanced simulation program that allows you to create, edit, and inspect finite element models of complex products and systems. Simcenter Femap allows you to create complex models of components, assemblies, and systems. This allows you to determine the model's behavior when it is exposed to real-world conditions. Simcenter Femap, which is a powerful data-driven and graphically driven results visualization and evaluation, can be combined with Simcenter Nastran to provide a comprehensive CAE solution that enhances product performance.

Electronic designs are becoming more complex, making them harder to detect errors. These errors can result in high costs and hundreds or hours of work. It is important to detect these errors early on in order to prevent damage. In many cases, these mistakes are only discovered during the testing phase or on the customer's premises. BQR CircuitHawk, a unique and powerful (patent-based) tool for electrical circuit stress analysis and design error detection is available. CircuitHawk detects errors in the design phase before layout and production. So, during the final verification, no errors in schematics, connectivity, or stress are detected. CircuitHawk reduces design cycles and the time to market. This saves money and improves corporate reputation. CircuitHawk integrates design error detection, thermal, MTBF, and service life predictions at the schematic level before PCB layout and manufacturing.

Altair Activate is a tool that can be used to model and simulate a wide range of products. It's a system-of systems that allows you to find better designs faster. Every industry is becoming more complex and electrified. They are also smarter and more connected. Multi-disciplinary system-level simulation capabilities allow for smart, complex mechatronics systems to be developed holistically. This allows for more efficient product development teamwork and workflows. Altair Activate breaks down silos between mechanical subsystems, electrical subsystems, control subsystems, electronic subsystems, software, hardware-in-the-loop, data analytics, and more. To model thermal-fluid system dynamics with 1D modeling simulation, rather than 3D CFD, to produce nearly as-accurate results much faster - to allow more design exploration and optimized performance.

MuSES's electro-optic and IR renderings achieve global benchmark accuracy by following a step-by-step workflow. The first step is to render heat sources like engines, exhausts, bearings and electronics. Next, a diffuse in-band radiosity solution is applied. Place your sensor at the range and render multibounce, spectrally summed radiance with DeltaTRSS contrast metrics. Have you got the sensor response curve? Import it to see what you have been missing. MuSES puts reality at your fingertips. MuSES is a comprehensive physics tool that covers heat sources, environmental loads and thermal signatures. This allows you to manage thermal signature contrasts and evaluate control kits in any location. Heat shields, cooling systems, and even camouflage surface treatments can all be evaluated for in-band radiation, complete with atmospheric attenuation on the sensor line-of sight. MuSES can help you prioritize and triage your engineering early in the development cycle.

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.

Simcenter STAR -CCM+ is a multiphysics fluid dynamics (CFD), software that simulates products under real-world conditions. Simcenter STAR–CCM+ is a unique CFD simulation toolkit that allows for automated design exploration and optimization. This integrated environment contains everything you need, including CAD, automated meshing and multiphysics CFD. It also includes sophisticated postprocessing and design exploration. Engineers can efficiently explore the entire design space and make better design decisions quicker. Simcenter STAR -CCM+ provides additional insight that can be used to guide your design process, resulting in more innovative products that meet customer expectations.

Our unique, transient Lattice Boltzmann physics PowerFLOW CFD solution allows simulations to accurately predict real-world conditions by leveraging this unique technology. PowerFLOW suite allows engineers to evaluate product performance before any prototype is built. This is when budgets and design impact are most important. PowerFLOW imports complex model geometry and performs accurate and efficient aerodynamic, thermal management and aeroacoustic simulations. Automated domain modeling and turbulence modeling without the need to manually volume mesh or boundary layer mesh can be done with PowerFLOW. PowerFLOW simulations can be run confidently on a large number of compute cores running on common High Performance Computing platforms (HPC).

Synopsys OptoCompiler, the industry's leading unified electronic-photonic design platform combines mature and dedicated photonic technologies with Synopsys industry-proven electronics design tools to allow engineers to quickly and accurately produce and verify complex integrated circuit designs. OptoCompiler, by combining schematic-driven layout with advanced photonic layout generation in a single platform to bridge the gap between photonic specialists and integrated circuit designers, makes photonic design more accessible, flexible, and fast. OptoCompiler offers features for hierarchical and electronic-photonic design to allow multiple designers to work together in order to reduce product development cycle time. The platform includes native photonic simulations in conjunction with electrical simulators that are industry standard. This allows for accurate simulations that take into account statistical variations.

CST Studio Suite is a powerful 3D EM analysis package that allows you to design, analyze, and optimize electromagnetic components and systems. CST Studio Suite contains electromagnetic field solvers that can be used for applications across the EM spectrum. The solvers are able to be coupled together to perform hybrid simulations. This gives engineers the flexibility to analyze entire systems consisting of multiple components efficiently and in a straightforward manner. The integration of EM simulation into the design flow is made possible by co-designing with other SIMULIA software. This drives the development process at the earliest stages. EM analysis is often used to analyze the performance and efficiency in antennas and filters, electromagnetic interference and compatibility, the exposure of the body to EM field, electro-mechanical effects of motors and generators and thermal effects of high-power devices.

By deliberately introducing faults to simulate real-world outages, chaos engineering and testing can improve application resilience. Azure Chaos Studio is an experimentation platform that allows you to quickly find problems in late-stage development and production. Disrupt your apps deliberately to identify gaps and plan mitigations, before your customers experience a problem. To better understand application resilience, subject your Azure apps in a controlled way to faults that are real or simulated. With chaos engineering and testing, you can observe how your apps respond to real-world disruptions, such as network latency or an unexpected storage failure, expiring secrets or even a complete data center outage. Validate product quality where and when it makes sense for your company. Use a hypothesis-based method to improve application resilience by integrating chaos into your CI/CD pipeline.

Simulate complex engineering problems to improve simulation efficiency. Simcenter 3D is a comprehensive, fully integrated CAE solution. Simcenter 3D allows you to model and evaluate complex product performances through revolutionary improvements in simulation efficiency. By integrating multiple physics models into a single simulation environment, you can gain a better understanding of your product's performance. Simcenter 3D provides an integrated environment where you can perform all your CAE post-processing. Unrivaled geometry manipulating tools allow you to intuitively defeature or abstract computer-aided designs (CAD) geometry. Multi-application modeling and meshing tools are available to support multiple simulations and give you the ability to link your analysis model and design data. This allows you to speed up the modeling process and keep the analysis models in sync.

Digimat-AM, a Digimat Software solution, simulates the printing process and assists printer manufacturers and end-users in identifying manufacturing issues. It optimizes the printing parameters to maximize productivity and ensure the best possible performance of final parts before printing the first one. Digimat-AM allows you to convert hundreds of errors and trials into just a few clicks. Digimat-AM empowers engineers by providing a process simulation solution that works. Simulate the FFF and FDM of unfilled and reinforced materials. Predict the process-induced microstructure, residual stresses, and part warpage of as-printed parts. Analyze the thermal-structural coupling of the process for both unfilled and reinforced polymers. You can set up the right manufacturing parameters to achieve high precision printing. This will help bridge the gap between the printing process, the material, and the part performance.

Frost 3D software lets you create scientific models of permafrost temperatures under the thermal influence from pipelines, production wells and hydraulic constructions. This software takes into account the thermal stability of the ground. The software package is based upon ten years of experience in programming, computational geometry and numerical methods. It also allows for parallelization of computational algorithm. 3D computational domain created with soil lithology and surface topography. 3D reconstruction of pipes, boreholes and basements and foundations of buildings; Importation of 3D objects, including Wavefront (OBJ), StereoLitho(STL), 3D Studio Max (F3O), and Frost 3D Objects (3DS), Library of thermophysical property of ground, building elements and parameters of cooling units; Specification and heat transfer parameters on objects' surfaces and thermal and hydrological characteristics.

PathWave ADS provides integrated design guidance via templates to make it easier to get started. It is easy to find the part that you need with the extensive component libraries. Automatic sync allows you to visualize the physical layout and create schematic designs. Data allows teams to visualize whether their designs are meeting specifications. PathWave ADS's data display and analytics capabilities produce graphs, charts and diagrams that will give you design confidence. With wizards, templates, and design guides, you can quickly accelerate your design. The entire design flow includes schematic, layout and circuit. As frequency and speed increase on printed circuit boards (PCBs), signal and power integrity become more important. Electronic device failures can be caused by transmission line effects. To simulate the board accurately, it is necessary to model vias, traces, and interconnects.

SOLIDCast Casting Simulator software is the most widely used pc-based solidification model system and cast design software in the casting industry. SOLIDCast was developed by analyzing and focusing real-time issues and problems when designing and making solid castings. The Casting Simulation software developers are not academic software engineers. They have real experience in the casting industry and foundries. Since 1985, they have used their experience to improve SOLIDCast's Casting Simulation software as well as the SOLIDCast product family. SOLIDCast is the most practical software for the casting industry because of their combined experience in Software engineering as well as foundries.

Ansys Lumerical Multiphysics, a photonics simulation software, allows for the seamless design of components by capturing multiple physics effects such as optical, thermal, electric, and quantum well interactions within a unified environment. This intuitive product design software is tailored for design engineering workflows. It offers a fast experience that facilitates rapid design exploration, and provides detailed insights into the real-world performance of products. It combines accurate high-fidelity simulation with live physics in an easy-to use interface that supports faster time-to market. The key features include a finite-element design environment, integrated workflows for multiphysics, comprehensive material models and capabilities for optimization and automation. Lumerical Multiphysics' solvers and workflows are designed to capture the interaction of physical effects when modeling passive and active photonics components.

ExacTrac Dynamics unites the power and precision from cutting-edge tracking technology. High-precision treatments are available for a wide variety of patient positioning and monitoring workflows, including cranial or prostate. The revolutionary thermal-surface camera technology in this all-in-one system works in tandem with real time X-Ray tracking to provide extraordinary accuracy. The 4D Thermal Camera creates an extremely accurate and reliable hybrid thermal-surface by linking the patient's heat signature with their 3D surface reconstruction. This is possible by acquiring 300,000 3D surfaces points and matching them to the heat signal generated from the thermal camera. This creates another dimension to track their position.

Complex technical systems, such as machines and manufacturing plants are common. They are made up of many components and subsystems. These systems are often based on different technical domains and more often equipped with sensors and controls. Their dynamic interactions can have a significant effect on safety, performance, comfort, and quality. SimulationX is a single platform that allows you to model, simulate, and analyze technical systems. This includes mechanics, hydraulics and pneumatics, controls, electronics, and controls as well as thermal and magnetic behavior. You will have all the tools you need with comprehensive component libraries that include application-oriented elements.

BQR’s fiXtress provides a powerful tool for electronic product reliability analysis. Derating analysis can identify components that are over-stressed or over-designed and may need to be changed. Stress-based MTBF predictions provide a realistic estimate for the mean time until product failure after derating analysis. FiXtress is an advanced Design for Reliability suite that can be added to any Electronic Design Automation tool. FiXtress modules are available as standalone modules or in combination with other modules to create a comprehensive DfR solution. Unique thermal analysis that estimates average temperature rise on the cold plate for accurate stress derating.

Simufact welding is a modular product line that provides extensive functionality for modeling the elastic-plastic behavior and structural weld simulation. The software can be used to simulate different welding processes. Simufact Welding allows you to simulate a wide variety of thermal joining processes using structural welding simulation. This includes brazing, arc and beam welding processes. Simufact Welding also allows you to model heat treatment, variations of cooling, unclamping setups, and mechanical loading of welded structures.

The Cadence AWR Design Environment Platform is a powerful tool that accelerates the development of RF/microwave products by enhancing engineering productivity and reducing turnaround time. This seamlessly integrated platform provides engineers with advanced high frequency circuit and system simulations coupled with in-design electromagnetic/thermal analyses to create manufacturing-ready high-frequency intellectual property. The user interface is intuitive and powerful, designed to increase engineering productivity. It offers smart, customizable designs flows that cater to today's high frequency semiconductor and PCB technologies. A unified design system facilitates front-to back physical design flow. Electrical and layout design entries can be dynamically linked to ensure that components placed into an electrical schematic will automatically generate a synchronized layout.