Alternatives to Ansys PathFinder

OrCAD® X is a unified PCB design software platform. It offers significant improvements to ease of use, performance and automation. Our product suite includes applications for schematic, PCB layout, simulation and data management. OrCAD X Capture, a schematic design solution for electrical circuit creation and documentation, is one of OrCAD's most popular products. PSpice®, our virtual SPICE simulation engine integrated into Capture, allows you to prototype and verify your designs using industry-leading native analog, mixed signal, and advanced analysis engines. OrCAD X Presto and OrCAD X PCB editor are two PCB layout tools that allow designers to easily collaborate between ECAD/MCAD teams and build better PCBs faster. OrCAD X Presto is our new, simplified interface for novice designers, electrical engineers and PCB designers focused on quick turn PCB designs.

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

DigitalClone®, for Engineering is the only software that integrates multiple scales of analysis into a single package. It is the world's best gearbox reliability prediction tool. DC-E, in addition to the modeling and analysis capabilities at the level of the gearbox and the gear/bearing, is the only software that models fatigue life using detailed, physics-based models (US Patent 10474772B2). DC-E allows the construction of a digital twin of a gearbox. This includes all stages of the asset's lifecycle, from design and manufacturing optimization to supplier selection to failure root cause analysis to condition based maintenance and prognostics. This computational environment reduces the time and cost of bringing new designs to market and maintaining them over time.

Ansys MotorCAD is a dedicated tool for electric machine design. It allows you to quickly simulate multiphysics across the entire torque-speed operating range. Motor-CAD allows engineers to evaluate motor topologies across the entire operating range. This allows them to create designs that are optimized for size, efficiency, and performance. Motor-CAD software's four modules, Emag, Therm Lab, Mech, allow multiphysics calculations to be performed quickly, iteratively, and users can move from concept to final design in a shorter time. Motor-CAD users can explore more motor topologies and fully evaluate the impact of advanced loss effects during the initial stages of an electrical mechanical design with Motor-CAD's streamlined data input process. This release features powerful new features for design optimization and multi-physics analysis, as well as system modeling for electric motors. Multiphysics simulations are fast across the entire torque-speed range.

Ansys Totem SC is the industry's trusted leader in power noise and reliability signoffs for analog and mixed signal designs that are built on cloud-native elastic computing infrastructure. Ansys Totem SC is the industry's most trusted standard for voltage drop and electromigration multiphysics signoff solutions for transistor-level and mixed signal designs. Totem-SC has a proven track record of thousands upon thousands of tapeouts. Its cloud-based architecture gives it speed and capacity to handle full-chip analyses. All major foundries have certified signoff accuracy for all finFET nodes below 3nm. Ansys Totem SC is a transistor level power noise and reliability analysis platform that can analyze analog mixed-signal IP as well as fully custom designs. It generates IP models for RedHawk SC-level power integrity signoff and compact chip models for power delivery networks at the chip- and system-level. Industry-proven, foundry-certified analog/mixed-signal EM/IR solution.

Ansys RedHawk SC is the industry's most trusted standard for voltage drop and electromigration multiphysics sign off solutions for digital designs. Its powerful analytics quickly detect weaknesses and allow for what-if explorations to optimize power efficiency and performance. Redhawk-SC's cloud-based architecture allows it to perform full-chip analysis. All major foundries have certified signoff accuracy for all finFET Nodes down to 3nm. Ansys RedHawk SC enables robust digital designs that are low-power and perform well. This is possible thanks to advanced power analytics which give designers detailed techniques to detect and correct dynamic voltage drops. Ansys RedHawk SC's trusted multiphysics signingoff analysis is a powerful tool to reduce technology and project risk. RedHawk's algorithms have been proven to be accurate by all major finFET process foundries and are certified by all major findries.

Pharos combines Ansys’ unparalleled EM engine power with a proprietary circuit simulation engine to perform coupling analysis. It also provides a ranking of potential EM-crosstalk aggressors per victim. Designers can identify the most vulnerable nets to help them make design decisions that will manage EM crosstalk and reduce risk. Pharos combines an unparalleled extraction engine power with a built in simulation engine to perform EM analysis. It also ranks potential EM crosstalk aggressors per victim network. This allows designers to concentrate on the most important nets in the design. It is difficult, if not impossible to identify all EM crosstalk vulnerable victim/aggressor net pair due to increasing design complexity and the wide range of magnetic field interference.

Ansys Path FX lets you calculate timing with variation on a full SoC without any shortcuts. Its unique cell modeling allows SPICE accuracy timing for any voltage and variation condition using a single library. Path FX is fully threaded, distributed and can scale up to thousands of CPUs. Ansys Path FX's path based timing analysis can account for all contributors to delay or constraints across multiple process, voltages, temperature corners, and scenarios. It can also simulate and identify every clock path in your design. Today's biggest challenges in chip design are to limit power consumption using lower supply voltages, and manage the complexity of advanced silicon processing at 7nm or below.

Beyond traditional RF simulation, design, analyze, verify radio frequency integrated circuits. Design and verification can be done with confidence using both nonlinear and steady-state solvers. Complex RFICs can be validated faster using wireless standard libraries. Verification of IC specifications via RF simulation must be done before taping out an RFIC. Simulators can simulate the effects of layout parasitics, complex modulated signal, and digital control circuitry. PathWave RFIC Design allows you to simulate in both frequency and time domains and can bring your designs to Cadence Virtuoso. Simulate components on silicon chips accurately. Optimize designs using sweeps and load-pull analysis. Incorporate RF designs into the Cadence Virtuoso environment. Performance can be increased with Monte Carlo and yield analysis. Safe operating area warnings simplify debugging. Use the most recent foundry technology right away.

Ansys Exalto, a post-LVS RLCk extractor software solution, allows IC designers to capture unknown crosstalk between different blocks in their design hierarchy. It extracts lumped-element parasitics from the design hierarchy and generates an accurate model for electrical and magnetic coupling. Exalto interfaces well with most LVS tools, and can be used in conjunction with the RC extraction tool you choose. Ansys Exalto post LVS RLCk extraction allows IC designers to accurately predict electromagnetic and substrate-coupling effects for signoff on circuits previously "too large to analyze." The extracted models can be back-annotated to any schematic or netlist and support all circuit simulators. Modern silicon systems have seen a rise in RF and high speed circuits. This has made electromagnetic coupling a first-order effect that must be accurately modelled to ensure silicon success.

Fusion 360 brings together design, engineering, electronics and manufacturing in one software platform. Get integrated CAD, CAM, CAE & PCB on a single development platform. EAGLE Premium, HSMWorks and Team Participant are also included. You also have access to consumptive services such as cloud simulation, generative design, and cloud rendering. A comprehensive range of modeling tools is available to help you design products. You can ensure the form, fit and function of your products using a variety of analysis methods. You can create and edit sketches using sketch constraints, dimensions, as well as a powerful suite if sketch tools. Edit and repair imported geometry from non native file formats. You can make design changes without worrying too much about time-based features. Edit complex parametric surfaces to repair, patch or design geometry. You can create history-based features such as extrude, revolve and loft that are updated with design changes.

Ansys RaptorH electromagnetic modeling software can model power grids, full custom blocs, spiral inductors and clock trees. High-speed distributed processing allows for accurate, silicon-proven RLCk and S-parameter models. RaptorH is capable of analysing partial and unfinished layouts in the design phase. It makes it easy to use either RaptorX, the silicon-optimized RaptorX engines for silicon structures, or the general purpose HFSS engine. Ansys RaptorH extracts electromagnetic model at the pre-LVS stage to allow for arbitrary routing and layout. This includes planes (solid and perforated), spiral inductors and MiM/MoM capacitators - with automatic setting boundary conditions. The GUI allows for point-and-click net selection as well as what-if analyses. RaptorH can be used to create analyses using either the HFSS engine or the Raptor engine. It is supported by all major silicon findries.

Multipurpose, full-wave 3D electromagnetic (EM), simulation software for designing, simulating and optimizing high-frequency electronic products, such as antennas, components and interconnects. Ansys HFSS 3D electromagnetic (EM), simulation software is used to design and simulate high-frequency electronic products, such as antennas and antenna arrays, RF and microwave components, high speed interconnects and filters, connectors and IC packages. Ansys HFSS software is used by engineers around the world to design high-frequency, fast electronics for communication systems, advanced driver assistance system (ADAS), satellites, IoT products, and other areas. Engineers can address complex EMI, RF, microwave, IC and PCB problems with HFSS's unmatched capability. Ansys HFSS simulation suite includes a wide range of solvers that can be used to solve diverse electromagnetic problems.

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.

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.

PrimeSim HSPICE circuit sim is the industry's standard for circuit simulation. It features foundry-certified MOS model models with state of the art simulation and analysis algorithms. HSPICE, with over 25 years of success in design tape outs and a comprehensive circuit simulator, is the industry's most trusted. On-chip simulation: analog designs, RF, custom digital, standard cell design and character, memory design and characterisation, device model development. For off-chip signal integrity simulation, silicon-to-package-to-board-to-backplane analysis and simulation. HSPICE is a key component of Synopsys analog/mixed signal (AMS) verification suite. It addresses the most important issues in AMS verification. HSPICE is the industry's standard for circuit simulation accuracy and offers MOS device models that have been foundry-certified. It also includes state-of-the art simulation and analysis algorithms.

Microwave Office is a powerful tool for the design of passive components, such as filters, couplers and attenuators. It also supports active devices that operate under small-signal conditions, such as buffer amplifiers and low noise amplifiers. The linear configuration allows for simulation of S parameters (Y/Z/H/ABCD), linear stability, noise figure and return loss/voltage-standing-wave ratio (VSWR) as well as real time tuning, optimization and yield analysis. All E-series Microwave Office Portfolios include synchronous schematic/layout editors, 2D/3D viewer, libraries of high-frequency transmitted transmission models, surface mount vendor component RF model with footprints and measurement-based simulations. Microwave Office PCB supports analysis of RF/microwave systems with the APLAC HB Simulator and its powerful multirate HB, time-variant simulation engine and transient-assisted-HB.

The Electromagnetic simulation (EM) gives you insight before physical prototyping. You can customize EM simulations to increase speed and accuracy. Integrate EM analysis into your circuit simulations. EM simulations can take several hours to run. Integrating your EM simulation software and PathWave circuit design software can reduce import and export times. To maximize efficiency, integrate EM analysis and circuit simulations. 3D EM solid modeling environment to create arbitrary 3D objects or import existing 3D models from other CAD settings. Prerequisite to prepare a 3D geometry for 3DEM simulation. This includes defining ports, boundary conditions, and material properties. 3D EM solid modeling and Finite Difference Time Domain simulator. Compliance testing for Specific Absorption Rates (SAR) or Hearing Aid Compatibility.

MapleSim can be used to create digital twins for virtual commissioning and system-level models for complex engineering designs projects. It is an advanced modeling tool that allows you to reduce development time, lower costs, diagnose real-world performance issues, and reduce development time. You can eliminate vibrations using better control code and not hardware upgrades. With detailed simulation results, diagnose root-cause performance issues. Validate new designs before they are physically prototyped. MapleSim is an advanced system-level simulation and modeling tool that uses modern techniques to significantly reduce model development time, provide more insight into system behavior and produce high-fidelity simulations.

Cadence®, Sigrity X PowerSI® technology helps you to tackle increasingly difficult issues related switching noise, signal coupling and target voltage levels. It provides fast, accurate and detailed electrical analyses of full IC packages and PCBs. It can be used to develop power and signal integrity guidelines before layout, or after layout to verify performance and improve the design without a prototype. Sigrity X's electromagnetic (EM) solver technology allows you to perform a wide range of studies, including identifying trace and via coupling problems, power/ground fluctuation caused by simultaneously switching out put, and designing regions that are below or above voltage targets. PowerSI technology allows you to extract frequency-dependent parameter models for network networks and visualize complex spatial relationships.

Ansys VeloceRF reduces the design cycle by significantly reducing the time required to synthesize complex spiral devices and T lines. It takes just a few seconds for an inductor or transformer to be compiled, and only a few minutes to model it and analyze it. It integrates with the leading EDA platforms to generate ready-to-tape layouts. Ansys VeloceRF allows for the creation of devices with tight packing. Analyzing the coupling between any number of inductive device before detailed layout will reduce design dimensions and reduce or eliminate guard rings. The die size can be affected by inductor size and inductor-to–inductor crosstalk. Ansys VeloceRF allows you to design smaller devices by using optimization criteria and geometry constraints. It also calculates the coupling between any number of inductors, to better optimize silicon real-estate and inductor circuit context.

Our next-generation platform enables chip developers and verification engineers design and debug 10x quicker. Verilator allows you to run thousands of parallel tests at the touch of a button. Share test results and waveforms seamlessly with anyone in your company, tag coworkers on signals and track test and regression errors. Verilator is used to distribute test runs and Dockerized simulation binaries across our compute cluster. We collect the log files, results, and optionally rerun failed tests to generate waveforms. Docker allows us to ensure that our test runs are consistent, reproducible and repeatable. SiLogy increases chip developer productivity by enabling faster debugging and design times. Before SiLogy the only way to debug a failing test was by copying lines from logs, debugging using waveforms on local machines, or rerunning simulations that could take days to run.

The MPLAB®, Mindi™, Analog Simulator reduces design time and design risks by simulating analog circuits before hardware prototyping. The simulation tool uses a SIMetrix/SIMPLIS simulation platform, which allows for the use of SPICE and piecewise linear modeling. This simulation environment can be used to simulate a wide range of simulation requirements. This simulation interface can be paired with Microchip's proprietary model files to model specific Microchip components as well as generic circuit devices. This simulation tool runs locally on your computer. The simulation tool is free to download and does not require an Internet connection. Also, the simulation run time does not depend on remote servers. The simulation results are fast and accurate. The simulation tool can be run directly on your PC.

With powerful optimization tools and fast simulation, analyze RF and microwave systems. Automatic circuit synthesis technology allows you to explore performance trade-offs. PathWaveRF Synthesis (Genesys), provides basic functionality that is suitable for all RF and microwave circuit board and subsystem designers. PathWave Circuit Design allows you to identify RF design mistakes that are not obvious from spreadsheet calculations. This entry-level environment includes circuit, system and electromagnetic simulators. It will give you confidence in your design reviews prior to hardware realization. You can see your matching network being synthesized and optimized in just a few mouse clicks. Transfer the design to PathWave Advanced Designer System (ADS), and it will be included in a more complicated design.

Ultiboard is a software for designing and layout printed circuit boards. It integrates seamlessly with Multisim, allowing for faster prototyping. Ultiboard software allows for efficient PCB layout and routing in a configurable environment. It allows you to place copper and parts with manual precision, defining critical board elements. You can quickly create a design using its automated functionality. You can easily manage, control, and create any board layout using the advanced spreadsheet view, toolbox, or design wizards. Integration with Multisim software is seamless. This allows for easy schematic transfer to the PCB. Forward and backward annotations allow for design iteration management. Export industry-standard file formats like Gerber and DXF are available to complete the design flow, from schematic to layout. Our software-connected, tailored approach is designed to help you engineer the next step.

Ansys PowerArtist, the comprehensive RTL design for power platform, is the choice of low-power semiconductor companies. It allows them to quickly analyze and reduce power. PowerArtist features interactive power debug, RTL power accuracy, RTL power accuracy and power analysis. It also includes unique metrics for power efficiency and vector coverage. PowerArtist allows for seamless RTL-to physical power grid integrity. PowerArtist's unique physically aware modeling ensures predictable RTL power accuracy and quick turnaround, allowing leading semiconductor companies to make reliable early decisions. It is too late to analyze power after synthesis. PowerArtist is used by design teams to quickly profile millions of cycles, identify power-inefficient RTL codes, and every wasted toggle.

Ansys Maxwell solves EM fields for electric machines, transformers and wireless charging. It also works with actuators, permanent magnet latches and other electrmechanical devices. It can solve static, frequency-domain, and time-varying electric fields. Maxwell also offers specialized interfaces for power converters and electric machines. Maxwell allows you to precisely characterize the transient, nonlinear motion of electromechanical components as well as their effects on the drive circuit design and control system design. Maxwell's electromagnetic field solvers can be seamlessly linked to the integrated circuit or systems simulation technology to enable you to understand the performance of electromechanical system before you build a prototype in hardware. Maxwell provides a reliable simulation of low-frequency electromagnetic field in industrial components.

Ansys Lumerical FDTD, the gold-standard in modeling nanophotonic devices and processes, is the Ansys Lumerical FDTD. The integrated design environment allows for scripting, advanced post-processing and optimization routines. This finely tuned implementation delivers the best-in-class solver performance across a wide range of applications. The integrated design environment allows you to focus on your design while we take care of the rest. Flexible and customizable models and simulations are possible with a variety of benefits. Ansys Lumerical FDT Models nanophotonic devices, processes, and materials so that you can concentrate on creating. Lumerical FDTD, the gold-standard in modeling nanophotonic devices and processes, is the Lumerical FDTD. This carefully crafted implementation of the FDTD method provides reliable, powerful, and scalable solver performance across a wide range of applications.

Sigrity X Advanced SI Technology offers advanced signal integrity analysis for PCBs and IC packaging, covering DC up to 56GHz, with features such as automated die-todie SI analysis, topology exploring, and simulation of high-speed interfaces. It supports IBIS-AMI and customizable compliance kits to ensure that your designs meet rigorous standards.

It is essential to model light propagation and its effect in order to measure product performance, human comfort, perception, and safety. Ansys Optics simulates a system's optical performance, evaluates its final illumination effect, and predicts and validates the effects of lighting and material variations on appearance. All this is done in real-world conditions. To create the ultimate virtual customer experience, visualize your product before it is actually made. No matter what style of project you have, Ansys Optics and optical simulation software can help you find the best solution. The software solves complex optical problems quickly and improves visual appearance to increase perceived quality. You can significantly improve the quality of your final product by combining engineering and design processes into one, connected workflow. In a live, immersive environment, prepare and evaluate virtual prototypes of a cockpit HMI.

High-speed digital designs with integrated signal integrity, power integration, 3D electromagnetic modelling & electrical rule checks. HyperLynx makes high-speed design analyses accessible to mainstream designers by combining ease of use and automated workflows. This allows for problems to be identified early in the design process and resolved. HyperLynx is compatible with multiple PCB design tools and makes a great addition to any PCB flow. The HyperLynx Family provides a complete flow of analysis that combines design rule checking and comprehensive signal integrity simulation. Interconnect models are created using highly accurate 3D EM solvers. Validate designs before fabrication with post-layout analyses and evaluate design tradeoffs using pre-layout analyses. Supports SerDes memory interfaces and general-purpose signal integrity. Power-delivery networks (PDNs) can be designed and validated in a simple-to-use environment to meet impedance targets.

Working Model is the most popular motion simulation product in the entire world. Use powerful analytical tools to confirm your design. Optimize designs before creating physical prototypes by using the "run-analyze - refine" process. Reduce the time required for physical prototyping. The simulation environment is yours to control. You can quickly build, run, and refine simulations using pre-defined constraints and objects. You can pause, stop, reset, single-step or pause the simulation at anytime. Measure force, torque, acceleration and other parameters to analyze your latest design. Any object can be acted upon. View output in vectors, numbers, and graphs in English and metric units. Import 2D CAD drawings into DXF format. You can import equations, sliders, and DDE links to Excel and MATLAB. You can create bodies and specify their mass properties, initial velocity, and electrostatic charge. To optimize simulations and document models, run or edit scripts. Attach pictures to create visually appealing presentations.

Creator, which is natively based on OpenFlight 3D simulation models, is the original software to create optimized 3D models for your virtual environment. Creator is the industry standard software for creating optimized 3D models for virtual environments. Content creators are continually challenged to create more detailed models, better performance, and greater realism. Content creators have a wide range of tools to help them create models, modify or import existing models, and enhance objects for use with sensor-capable simulations. Creator gives you complete control over the modeling process and allows you to quickly create highly optimized, physically accurate 3D models. Creator allows you to create models faster and more precisely by allowing you to interact with your models at every level, from the database to the single vertex attribute.

ProModel is an event simulation and predictive analytics software that can help you make the best decisions. ProModel AI simulation software can accelerate your system's performance and reduce risk. We offer data-driven solutions for industries that require precise forecasting and planning to ensure operations run smoothly and efficiently. You need to know what changes in your operations will mean for production and scheduling today and tomorrow. Our AI simulation products enable organizations to design, simulating and optimizing factory layouts using a digital twin. They can also forecast patient census and bed capacities, uncover and prevent operational bottlenecks, optimize capacity planning and schedules, while streamlining production flow. Use dynamic simulation models to improve process management. Visual insights can be used to identify bottlenecks.

Modelon's OPTIMICA Compiler Toolkit is the most powerful Modelica-based mathematical engine available. It allows users to automate, simulate, and optimize system behavior throughout the model-based design process. OPTIMICA is the compiler for Modelon's Impact. It allows users to create multi-domain physical systems using thousands of model components. OPTIMICA's state of the art solvers enable evaluation of complex physical system - supporting both transient simulations and steady-state computations as well dynamic optimization. The sophisticated mathematical engine can simplify and manipulate models to improve performance and robustness. This engine is used in a variety of industries and applications, including automotive, active safety, energy and power plant optimization. Start-up optimization of thermal power plant is essential to meet the increasing demand for power regulation in today's energy market.

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).

FLOW-3D is a highly accurate CFD software that solves transient, free-surface issues. It can help you optimize product designs and reduce time to market. FLOW-3D's multiphysics suite also includes FlowSight, our state-of the-art postprocessor. FLOW-3D is a versatile CFD simulation platform that engineers can use to study the dynamic behavior liquids and gases in a variety of industrial applications and physical processes. FLOW-3D is a free surface and multiphase simulation platform that serves a wide range of industries, including aerospace, microfluidics and bio-medical devices as well as water civil infrastructure and automotive. FLOW-3D is a multiphysics tool that is unique in its power and versatility. It helps engineers achieve their modeling goals.

Software that improves asset performance. All in one integrated suite: maintenance and spares optimizations, availability studies, reliability centered maintenance, cost evaluations of life cycles, and accelerated testing. Connect directly to SAP or MAXIMO and analyze data. Weibull analysis can be used to identify critical equipment and automatically create failure models. Simulate your maintenance plans to optimize them and reduce costs. Predict system availability to optimize your design. Simulation of multiple-product capacities with target cost penalties. Model system dependencies using fault trees or RBDs. Create operational rules to accurately simulate performance. Find the best policy for spares. In the ALT module, you can predict life cycle costs and analyze test data to identify stressed failures. Process reliability module identifies trends in plant performance.

The award-winning mPower software provides power integrity analyses for digital, 3D, and analog ICs across all design flows, at any scale. Analog, semicustom, and digital integrity analysis can easily be integrated into existing design flow while scaling to circuits or chips of any size. The mPower suite of tools performs fast, scalable and efficient analog and digital integrity analysis, from the smallest blocks up to the largest full chip layouts, to verify design goals and performance. It provides high-confidence tape outs for all technologies and designs. The mPower Analog Power Integrity Analysis solution provides simulation-based high-capacity dynamic analysis to ensure power integrity of analog designs at any scale. The mPower tool uses industry-standard inputs, optimized memory requirements and a scalable architecture to increase scalability of digital power integrity analyses and decrease runtimes.

Ansys Additive Suite provides critical insights for engineers, designers, and analysts to avoid failures in build and produce parts that meet design specifications. This comprehensive solution covers the entire workflow, from design for additive manufacture (DfAM), through validation, print design and process simulation, as well as exploration of materials. Additive Suite also includes Additive Print, Science and Additive Prep tools. Access to Ansys Workbench Additive is also available. Parametric analysis systems can be created, as with many features in Ansys Workbench. This allows you to study the optimization of parameters like part position and orientation. This add-on is available as an upgrade to the Ansys Mechanical Enterprise licence.

An analytics-driven, simulation based digital twin is a connected virtual replica of an in service physical asset. It takes the form of an integrated multidomain simulation that simulates the asset's life and experience. Hybrid twins are a way to optimize industrial asset management and system design, optimization, and predictive maintenance. Ansys Twin Builder can help you increase top-line revenue, reduce costs, and maintain a competitive edge. Ansys Twin Maker allows you to quickly create a digital replica of an existing asset. This allows for better lifecycle management and predictive maintenance, which can help you maintain a competitive edge.

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.

Methodics IPLM Platform for Full Traceability With a modern platform, collaborate on worldwide semiconductor design. The development process can be costly and time-consuming for both the semiconductor and chip design teams. There is very little room for error and you must start over. You can speed up time-to-market by sharing and reusing IP. You can also design it once and reuse multiple versions. This will help you drive more revenue for your company. Methodics IPLM makes this possible. Methodics IPLM (IP lifecycle management) is a comprehensive platform that manages IP. It allows companies of any size to have full control over the design and integration both of their internal and external design elements. This includes libraries, new digital and analog design, and standalone IP. Methodics IPLM maximizes internal design traceability and reuse through tight coupling of IP creators and IP consumers.

Automate your Simulation toolchain and connect with powerful algorithms for robust design optimization. Ansys optiSLang can address your future needs for simulation-driven and parametric virtual product development. Ansys' optiSLang is an innovative, constantly evolving solution to the challenges presented by CAE-based Robust Design Optimization. Its state of the art algorithms efficiently and automatically search out the most robust design configuration. This eliminates the slow, manual process that was used to define RDO. OptiSLang is your design optimization and process integration solution. You'll be able to make better decisions faster with optiSLang. Automate the search process to find the most robust and best design configuration. Design optimization software uses state-of-the art algorithms to optimize design, robustness, reliability, and exploration. This allows you to make better decisions with less effort.

LTE MAC Lab runs under Matlab and is a system-level simulation program. LTE MAC Lab allows customers the ability to simulate a wireless LTE network deployment and analyse its performance. Customers can also understand the dynamic mechanisms of radio interface. It reflects the dynamic behaviour in a HetNet RAN modelled (Figure 1), focusing on Radio Resource Management features like scheduling, carrier aggregation and handovers, as well as link adaptation. It also includes the implementation of propagation (path, shadowing, multipath and multipath) as well as mobility models.

During interactive editing, automatically heal damaged copper areas. Design selections made by the user can be easily refined. Move components and enclosures interactively in a 3D environment, with real-time detection of clashes. If you have specific technology requirements, you can benefit from advanced features like embedded components, chip-on-board, and flexi-rigid designs. Pulsonix allows you to create your own BOMs, PCB acceptance reports and netlists. You can use our standard formats or create them yourself. Construction lines are unique to Pulsonix and allow you to define your own lines to guide your design. Construction lines allow you to create complex board outlines, or align irregular shapes. Define rules to automatically create naming conventions for existing and new styles.

Simpack is a general multibody simulation (MBS), which allows engineers and analysts to simulate non-linear motions of any mechanical or mechatronic systems. Simpack allows engineers to create and solve virtual 3D models to simulate dynamic motion, coupling forces, and stresses. Simpack is used in the automotive, engine and HIL/SIL/MIL sectors. However, it can also be applied to other branches of mechanical engineering. Simpack simulation software is especially well-suited for high frequency transient analysis, even in the acoustic range. Simpack was originally designed to handle complex nonlinear models with flexible bodies, and severe shock contact.

AutoTURN®, which is used to confidently analyze road- and site-design projects, including intersections and roundabouts as well as bus terminals, loading docks, parking lots, and any other on/off street assignments that involve vehicle access checks, clearances and swept path maneuvers. AutoTURN is the most widely used vehicle swept path analysis program for transportation planners, engineers, drafters and architects. AutoTURN is used by almost every US state DOT and Canadian provincial MOT, making it the standard software for government agencies.

Power systems are constantly evolving, so it is more important to have intuitive and accurate simulation tools. PSCAD allows you to easily build, simulate, or model your power system. This gives you endless possibilities for power system simulation. A comprehensive library of system models is included, ranging from simple passive elements and control function to complex electric machines. PSCAD has benefited over 40 years of continuous research. We are inspired every day by the feedback and ideas of our global users. This philosophy has made PSCAD the most popular power system simulation package today. Software maintenance is the best way to protect, support and maintain your investment. It will allow you to get the most out of your software.

RoboDK is an affordable simulator for industrial robots, programming and programming. RoboDK simulation software will allow you to get the best out of your robot. RoboDK's intuitive interface requires no programming skills. With just a few clicks, you can program any robot offline. RoboDK offers over 500 robotic arms in its extensive library. RoboDK's offline and simulation programming tools allow you to program robots in a different environment. RoboDK allows you to program robots directly from your computer, eliminating production downtime due to shop floor programming. Your robot arm can be used as a 5-axis milling machine (CNC), or a 3D printer. Simulate and convert NC codes to robot programs (Gcode or APTCLS files). RoboDK will optimize the robot path to avoid singularities, axis limits, and collisions. Simulating and off-line programming industrial robots has never been simpler.