Alternatives to Sigrity X PowerSI

Embrace the future with the Sigrity X Platform, where cutting-edge innovation harmonizes with peak optimization. Gain access to unparalleled signal and power integrity for your PCB and IC package designs, propelling you far past the existing boundaries of signal integrity (SI) and power integrity (PI) technology. Picture yourself skillfully navigating the intricate challenges of electronic design, achieving not just your targets but exceeding them with remarkable efficiency and accuracy. With Sigrity X, you’re engaging with a transformative tool that fosters a seamless integration of in-design analysis within the Allegro X PCB and IC Package platforms. Immerse yourself in an extensive array of SI/PI analysis, in-design interconnect modeling, and PDN analysis tools that are specifically engineered to elevate your performance, ensuring that your projects consistently surpass expectations and stay within timeframes and budgets. Leverage the capabilities of the Sigrity X Platform to guarantee exceptional performance and reliability in your upcoming designs, setting a new standard for success. This is your opportunity to redefine what is possible in electronic design and lead the way in innovation.

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.

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.

Cadence®, Sigrity X OptimizationPI™ technology performs a complete AC frequency analyzer of boards and IC package to ensure high performance and save between 15% and 50 % in decoupling capacitor costs. It supports both pre-and post-layout studies and quickly pinpoints the most cost-effective decap selections. Sigrity X OptimizePI is based on proven Cadence hybrid magnetic circuit analysis technology combined with the unique Sigrity Optimization engine to help you quickly identify the best possible placement and decap locations.

Advance your approach to RF simulation by focusing on the comprehensive design, analysis, and verification of radio frequency integrated circuits (RFICs). Gain assurance through the use of steady-state and nonlinear solvers for both design and verification processes. The availability of wireless standard libraries expedites the validation of intricate RFICs. Prior to finalizing an RFIC, it is essential to confirm IC specifications through RF simulation. These simulations take into account various factors such as layout parasitics, intricate modulated signals, and digital control circuitry. With PathWave RFIC Design, you can perform simulations in both frequency and time domains, facilitating seamless transitions between your designs and Cadence Virtuoso. Achieve accurate modeling of components on silicon chips, and enhance your designs using optimization techniques like sweeps and load-pull analysis. Integration of RF designs into the Cadence Virtuoso environment is streamlined, while the implementation of Monte Carlo and yield analysis can significantly boost performance. Additionally, debugging is made easier with safe operating area alerts, allowing for immediate utilization of cutting-edge foundry technology to stay at the forefront of innovation. This holistic approach to RFIC design not only improves efficiency but also elevates the overall quality and reliability of the final products.

HyperLynx offers integrated capabilities for signal integrity, power integrity, 3D electromagnetic modeling, and electrical rule checking tailored for high-speed digital designs. By merging user-friendly features with automated processes, HyperLynx makes high-speed design analysis accessible for mainstream system designers, enabling early identification and resolution of potential issues within the design cycle. It seamlessly integrates with various PCB tools, making it a valuable addition to any PCB design workflow. The HyperLynx suite ensures a comprehensive analysis pipeline, fusing best-practice design rule checking with in-depth simulations for both signal and power integrity. Equipped with advanced 3D electromagnetic solvers, it produces precise interconnect models that enhance the design process. Users can assess design trade-offs during the pre-layout phase and confirm their designs before fabrication with thorough post-layout analyses. This tool supports a range of applications, including SerDes channels, DDRx memory interfaces, and general signal integrity assessments. Additionally, it simplifies the design and validation of a board's power-delivery network (PDN), facilitating compliance with impedance goals in a user-friendly setting. With its robust features, HyperLynx empowers engineers to create high-performance designs with confidence.

Sigrity X Aurora, seamlessly integrated with all Allegro X Platforms, empowers designers to quickly identify and rectify signal and power integrity challenges early in the process, thereby reducing reliance on expert reviews and helping projects remain on track and within financial constraints. This integrated in-design analysis approach facilitates thorough signal and power integrity evaluations at each phase of the design process, allowing for detailed "what if" scenario assessments that establish accurate constraints and decrease the need for multiple iterations. Step into a future where signal and power integrity in PCB and IC design is transformed by an intuitive, user-friendly platform that enhances efficiency. With Sigrity X, innovation converges with optimization, providing the tools needed for impeccable signal and power integrity in your PCB and IC package designs. Propel your projects beyond the existing boundaries of signal integrity (SI) and power integrity (PI) technology, and envision a world where navigating the challenges of electronic design is effortless. Not only will you meet your deadlines, but you will exceed your time-to-market goals with remarkable accuracy and speed. The future of electronic design is bright with Sigrity X.

Design Force is a revolutionary innovation in electrical design. It allows you to break down the boundaries of your electrical design process. The process of designing a product is becoming more complex. This often involves technologies that are difficult or impossible to use ECAD tools to address. Design Force allows design teams to access system-level design information as early as the planning and conceptual phases. This allows them to layout each product board while simultaneously considering the entire system view. Design Force uses the most current industry hardware and software. Users can design in a native 3D environment. This allows them to achieve optimal performance by using native 64-bit, multithreading, multicore processors. Design Force is compatible with multiple client-server implementations. You can also work from your corporate cloud.

Altium's PDN Analyzer tool integrates with Altium Designer. This allows you to easily troubleshoot issues such as insufficient or excessive copper or uncontrolled voltage drops. You can also detect marginal voltage at critical power points, copper islands or peninsulas, and other issues that could be present in your PCB power system. PDN is the power system for active circuits on printed circuit boards. This includes all interconnections between the voltage regulator module, the metallization pads and die on integrated devices that are used for supply and return power. The entire length of the power delivery network must meet the IC supply voltage limits. Validating your power budget accurately means taking into account the minimum and maximum device limits, worst case voltage drops, combined return-path currents, and other factors. PDN Analyzer will show you exactly where these problems are.

Ansys Maxwell serves as a powerful electromagnetic field solver tailored for electric machines, transformers, wireless charging systems, permanent magnet latches, actuators, and various electromechanical devices. It adeptly addresses the challenges of static, frequency-domain, and time-varying electric and magnetic fields. Additionally, Maxwell comes equipped with specialized design interfaces specifically for electric machines and power converters. With the capabilities of Maxwell, users can accurately analyze the nonlinear and transient behaviors of electromechanical components, as well as their impact on drive circuits and control system designs. By utilizing Maxwell’s state-of-the-art electromagnetic field solvers in conjunction with integrated circuit and systems simulation technologies, engineers can gain insights into the performance of electromechanical systems well before any physical prototypes are created. Moreover, Maxwell is recognized for delivering reliable simulations of low-frequency electromagnetic fields pertinent to industrial components, making it a valuable tool in the design and analysis process. This comprehensive approach not only enhances design efficiency but also aids in minimizing potential issues during the development stage.

In today's fast-paced business environment, companies encounter intricate design obstacles while managing limited budgets. eCADSTAR transcends being just a PCB layout tool, as it integrates simulation, 3D MCAD capabilities, and wire harness support, all harnessed through cutting-edge technology that offers enterprise-level performance at a budget-friendly price point. Its user-friendly interface makes eCADSTAR an attractive choice for designers of all levels. By utilizing eCADSTAR’s robust design features, teams can streamline and expedite the overall design workflow. The software includes a digitally connected library and intuitive schematic capture, allowing PCB layout engineers to focus more on innovation and less on tool manipulation. Among the various stages of the design process, developing a test plan can be particularly labor-intensive. Without proper upfront simulation, the validation phase can lead to significant time and financial expenditures, but eCADSTAR addresses this challenge with its advanced capabilities in Spice simulation and SI/PI analysis, resulting in reduced test cycle times and increased efficiency overall. Ultimately, eCADSTAR stands out as a powerful ally for engineers striving to navigate the complexities of modern design.

Ansys Exalto serves as an advanced post-LVS RLCk extraction software that empowers integrated circuit (IC) designers to effectively address unknown crosstalk between various components within the design hierarchy by extracting lumped-element parasitics and creating precise models for electrical, magnetic, and substrate coupling. This tool seamlessly integrates with a wide range of LVS software and can enhance the performance of any RC extraction tool you prefer. With Ansys Exalto's post-LVS RLCk extraction capabilities, IC designers are equipped to make accurate predictions regarding electromagnetic and substrate coupling effects, allowing for signoff on circuits that may have previously been deemed "too complex to analyze." The models that are extracted can be back-annotated to the schematic or netlist, ensuring compatibility with all circuit simulators. As the prevalence of RF and high-speed circuits continues to rise in contemporary silicon systems, electromagnetic coupling has become a primary factor that necessitates precise modeling to ensure the successful fabrication of silicon. Overall, Ansys Exalto represents a crucial advancement in circuit design, helping engineers navigate the complexities associated with modern electronic systems.

A dedicated solution for analyzing power integrity, signal integrity, and electromagnetic interference in integrated circuit packages and printed circuit boards, this tool addresses challenges within power delivery systems and high-speed channels found in electronic devices. SIwave is instrumental in modeling, simulating, and validating the high-speed channels and comprehensive power delivery systems prevalent in cutting-edge high-performance electronics. It proficiently extracts multi-gigabit SERDES interfaces and memory buses, ensuring compliance with product sign-off requirements across diverse designs. With its full wave extraction capabilities, SIwave meticulously assesses complete power distribution networks (PDN), enabling users to verify noise margins and meet impedance profiles through automated decoupling analysis, particularly in low-voltage applications. This comprehensive functionality positions SIwave as an essential asset for engineers striving for excellence in modern electronic design. Its ability to streamline the validation process significantly enhances design reliability and performance.

Advance your RF simulation capabilities to effectively design, analyze, and verify radio frequency integrated circuits (RFICs) beyond conventional methods. Gain assurance through the use of steady-state and nonlinear solvers tailored for both design and verification processes. Accelerate the validation of intricate RFICs with wireless standard libraries designed for efficiency. Ensure precise modeling of components on silicon chips to achieve optimal accuracy. Enhance your designs using load-pull analysis and parameter sweeps for better performance outcomes. Conduct RF simulations within the Cadence Virtuoso and Synopsys Custom Compiler environments to streamline your workflow. Employ Monte Carlo simulations and yield analysis to further boost performance metrics. Early in the design phase, evaluate error vector magnitude (EVM) in alignment with the latest communication standards to ensure compliance. Leverage cutting-edge foundry technology right from the start of your project. It is essential to monitor specifications like EVM through RF simulation during the early stages of RFIC design. The simulations account for the effects of layout parasitics, intricate modulated signals, and digital control circuitry. Utilizing Keysight RFPro Circuit allows for comprehensive simulation in both frequency and time domains, enhancing the overall design process and accuracy. This multifaceted approach ensures that your RFICs not only meet but exceed industry standards.

The award-winning mPower solution offers comprehensive power integrity analysis for digital, analog, and 3D integrated circuits across various design flows and scales. By seamlessly integrating analog, semi-custom, and digital power integrity analysis into current design workflows, it efficiently adapts to circuits and chips of any dimension. The mPower tool suite is designed for quick, scalable, and effective analysis, ranging from small blocks to expansive full-chip layouts, ensuring that power-related design objectives and performance standards are met with confidence for all technology types and design variations. Additionally, the mPower analog power integrity analysis solution features simulation-driven, high-capacity dynamic EM/IR analysis to ensure impeccable power integrity verification for analog designs across all design flows and scales. Furthermore, it utilizes industry-standard inputs and optimized memory specifications to enhance scalability while reducing the runtime of digital power integrity assessments, making it an invaluable resource for engineers. This tool not only streamlines the design process but also elevates the reliability of power analysis in complex projects.

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

The Cadence AWR Design Environment Platform streamlines the development cycles of RF/microwave products through design automation, which boosts engineering efficiency and shortens turnaround times. This all-in-one platform equips engineers with sophisticated high-frequency circuit and system simulations alongside in-design electromagnetic (EM) and thermal analyses, enabling the creation of manufacturing-ready high-frequency intellectual property with exceptional accuracy and effectiveness. With a focus on enhancing productivity, the interface is both robust and user-friendly, featuring smart and customizable design workflows tailored to meet the demands of modern high-frequency semiconductor and PCB technologies. Moreover, its integrated design capture system supports a seamless front-to-back physical design process. The dynamic linking between electrical and layout design entries ensures that any components added to an electrical schematic automatically result in a corresponding synchronized physical layout, fostering a more cohesive design experience. This innovative approach not only minimizes errors but also significantly accelerates the overall design process.

The Synopsys 3DIC Compiler, which is founded on the premier digital implementation platform in the industry and leverages a unified fusion data model, facilitates a smooth transition to 2.5/3D heterogeneous integration. This comprehensive platform supports analysis-driven feasibility studies, multi-die partitioning, and the selection of foundry technology for both prototyping and floor planning in a single environment. As a result, it promotes effective design implementation that encompasses advanced packaging and die-to-die routing, coupled with golden signoff verification. Additionally, the 3DIC Compiler collaborates with Synopsys 3DSO.ai, the first autonomous AI optimization solution in the market for multi-die designs, enhancing system performance and ensuring quality outcomes regarding thermal integrity, signal integrity, and power network design. Widely embraced by clients, the 3DIC Compiler platform has also received certification from prominent foundries, validating its capabilities in advanced process and packaging technologies. This combination of features positions the 3DIC Compiler as a vital tool for engineers aiming to innovate in the realm of integrated circuit design.

Certified by Foundry, the AFS Platform provides nm SPICE accuracy, achieving speeds five times greater than conventional SPICE and more than twice as fast as parallel SPICE simulators. It stands out as the quickest nm circuit verification platform suitable for analog, RF, mixed-signal, and custom digital circuits. The latest addition of eXTreme technology enhances its capabilities. Specifically designed for large post-layout circuits, the AFS eXTreme technology accommodates over 100 million elements and operates three times faster than typical post-layout simulators. It is compatible with all leading digital solvers. With its top-tier usability, the platform maximizes the reuse of existing verification infrastructures, while its advanced verification and debugging features significantly enhance verification coverage. This results in improved design quality and reduced time-to-market. The platform guarantees SPICE accuracy and offers high-sigma verification, being a staggering 1000 times faster than brute-force simulation methods. It is user-friendly and easy to deploy, with access to AFS eXTreme technology provided at no extra cost; thus, it represents a comprehensive solution for modern circuit verification needs.

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

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.

Our advanced web platform significantly enhances the productivity of chip developers and verification engineers, allowing them to design and troubleshoot at a pace ten times quicker than before. With Verilator, users can effortlessly initiate and execute thousands of tests simultaneously with just one click. It also facilitates the easy sharing of test outcomes and waveforms within the organization, allows for tagging colleagues on specific signals, and provides robust tracking of test and regression failures. By utilizing Verilator to create Dockerized simulation binaries, we efficiently distribute test executions across our computing cluster, after which we gather the results and log files and have the option to rerun any tests that failed to produce waveforms. The incorporation of Docker ensures that the test executions are both consistent and reproducible. SiLogy ultimately boosts the efficiency of chip developers by shortening the time required for design and debugging processes. Prior to the advent of SiLogy, the leading method for diagnosing a failing test entailed manually copying lines from log files, analyzing waveforms on personal machines, or rerunning simulations that could take an inordinate amount of time, often spanning several days. Now, with our platform, engineers can focus more on innovation rather than being bogged down by cumbersome debugging processes.

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.

Microwave Office facilitates the design of various RF passive components, including filters, couplers, and attenuators, along with active devices functioning under small-signal (AC) conditions, such as low noise and buffer amplifiers. Its linear configuration allows for the simulation of S-parameters (Y/Z/H/ABCD), small-signal gain, linear stability, noise figure, return loss, and voltage standing wave ratio (VSWR), complemented by features like real-time tuning, optimization, and yield analysis. Each E-series Microwave Office portfolio encompasses synchronous schematic and layout editors, 2D and 3D viewers, and extensive libraries featuring high-frequency distributed transmission models, as well as surface-mount vendor component RF models complete with footprints. Additionally, it offers measurement-based simulations and RF plotting capabilities. Microwave Office PCB further enhances the design process by enabling both linear and nonlinear RF circuit design through the advanced APLAC HB simulator, which provides powerful multi-rate HB, transient-assisted HB, and time-variant simulation engines for comprehensive RF/microwave circuit analysis. This extensive toolset empowers engineers to push the boundaries of RF design and streamline their development workflows effectively.

PowerPro provides an extensive array of features tailored for RTL designers focused on low-power design. It includes power estimation tools applicable to both RTL and gate-level designs, facilitating early power checks that help identify potential power issues during the RTL development phase. Additionally, it incorporates clock and memory gating techniques to enhance power optimization. With highly accurate estimations that remain within 10% of final signoff, PowerPro's technology leverages sophisticated engines to offer a wide range of analytical capabilities. Furthermore, its automatic power optimization process generates low-power RTL seamlessly while ensuring integrated logic equivalence checking. Notably, PowerPro stands out as the only validated low-power RTL generation technology currently available in the market, solidifying its position as a leader in this domain. This unique combination of features not only streamlines the design process but also significantly reduces power consumption in electronic products.

The Solido variation-aware design solutions, alongside IP validation, library characterization, and simulation technologies driven by cutting-edge AI, are utilized by thousands of designers at leading semiconductor firms across the globe. This integrated suite features AI-enhanced SPICE, Fast SPICE, and mixed-signal simulators that empower clients to significantly expedite crucial design and verification processes for advanced analog, mixed-signal, and custom IC designs. It delivers the industry's quickest and most thorough integrated IP validation solution, ensuring complete and seamless IP quality assurance from the design phase all the way to tape-out, encompassing all design perspectives and IP updates. Moreover, this comprehensive AI-driven design environment facilitates both nominal and variation-aware verification of custom IC circuits, achieving full design coverage with far fewer simulations while maintaining the accuracy comparable to brute-force methods. Furthermore, it offers rapid and precise library characterization tools that leverage machine learning for enhanced performance and reliability.

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

PathWave ADS streamlines the design process by providing integrated templates that help users start their projects more efficiently. With a comprehensive selection of component libraries, locating the desired parts becomes a straightforward task. The automatic synchronization with layout offers a clear visualization of the physical arrangement while you create schematic designs. This data-driven approach enables teams to assess if their designs are in line with specifications. PathWave ADS enhances design confidence through its display and analytics features, which generate informative graphs, charts, and diagrams. Users can expedite their design process with the help of wizards, design guides, and templates. The complete design workflow encompasses schematic design, layout, as well as circuit, electro-thermal, and electromagnetic simulations. As frequencies and speeds continue to rise in printed circuit boards (PCBs), ensuring signal and power integrity is critical. Issues arising from transmission line effects can lead to electronic device failures. It is essential to model traces, vias, and interconnects accurately for a realistic simulation of the board, ensuring that potential problems are identified and mitigated early in the design phase. This multifaceted approach not only improves efficiency but also enhances the overall reliability of electronic designs.

Power Analyzer offers an easy-to-use interface that allows you to visualize voltage distribution, current density, the direction of current flow, and identify "hot spots." The outcomes are directly integrated into the Altium Designer PCB editor, enabling you to observe how your power grids interact with the overall design. This tool allows for the swift identification and resolution of DC voltage and current density issues during the PCB design stage, even if you lack prior experience in DC analysis. You can design with assurance, as it provides precise energy measurements for your projects. Power Analyzer enables interactive measurements of voltage and current density or tracks current at specific points, whether at a single location or differentially between two points within Altium Designer. You can visualize the results to make necessary adjustments throughout your design process. Moreover, the configurable HTML reports facilitate easy documentation of simulation activities, including voltage and current margins, power consumption statistics, and custom screenshots, ensuring you have comprehensive records of your design efforts. This functionality not only enhances design accuracy but also streamlines the overall development workflow.

Ansys RaptorH is a sophisticated electromagnetic modeling tool that excels in simulating power grids, entirely custom blocks, spiral inductors, and clock tree structures. It employs high-speed distributed processing to generate precise, silicon-validated S-parameter and RLCk models. One of its standout features is the ability to analyze partial or incomplete layouts during the design process, offering users the flexibility to utilize either the versatile HFSS engine or the specialized RaptorX engine optimized for silicon applications. Additionally, Ansys RaptorH extracts electromagnetic models even at the pre-LVS stage for various routing and layout designs, including solid or perforated planes, circular shapes, spiral inductors, and MiM/MoM capacitors, all while automatically configuring boundary conditions. Its user-friendly graphical interface facilitates point-and-click net selection and enables what-if scenarios for better design insights. Moreover, RaptorH is fully compatible with all leading silicon foundries and supports encrypted technology files, ensuring seamless setup for analyses using either the HFSS or Raptor engines. This comprehensive integration not only streamlines the design workflow but also enhances the accuracy of electromagnetic simulations significantly.

The speed at which your product goes to manufacturing will depend on how testable your design is. Unfortunately, testing at the physical stage can't catch common mistakes that can lead to costly delays. XJTAG®, DFT Assistant integrates directly into your Altium Designer unified designer environment, running Design For Tests (DFT) checks directly on the schematic diagram. You can easily confirm that the scan chains are connected to each JTAG enabled device in your design and that each signal has been correctly connected and terminated. XJTAG®, DFT Assistant checks your JTAG-enabled devices before you finalize your layout. XJTAG®, Chain Checker helps you identify common errors and alerts you early to avoid any potential problems that could affect JTAG testing.

Examine RF and microwave circuits and systems using rapid simulation and robust optimization tools that enhance your design process. Delve into performance trade-offs through the integration of automatic circuit synthesis technology. PathWave RF Synthesis (Genesys) offers foundational features that cater to all designers of RF and microwave circuit boards and subsystems. With PathWave Circuit Design, you can uncover RF design mistakes that conventional spreadsheet analyses often overlook. This introductory design platform, which encompasses circuit, system, and electromagnetic simulators, enables you to approach design reviews with greater assurance prior to the realization of hardware. With just a few clicks, you can observe the automatic synthesis and optimization of your matching network. After that, easily transfer your design to PathWave Advanced Design System (ADS) to incorporate it into more intricate designs, ensuring seamless integration and enhanced functionality. By leveraging these tools, you can streamline the design process and enhance the overall efficiency of your RF and microwave projects.

Precision provides a vendor-independent solution for FPGA synthesis, ensuring top-tier performance and area efficiency while offering robust design capabilities paired with strong connections to simulation and formal equivalency checking tools. Its products integrate seamlessly with Siemens' FormalPro LEC for equivalency verification and HDL Designer, facilitating design capture and verification in conjunction with ModelSim/Questa. The entry-level FPGA synthesis tool, Precision RTL, delivers exceptional quality results as a vendor-agnostic solution. In response to the needs of space and military aerospace applications, which often require specialized FPGAs equipped with inherent protection against SEEs, NanoXplore has launched new FPGA offerings aimed at this sector. Collaborating closely with NanoXplore, Precision Synthesis is the first to provide comprehensive synthesis support for the NG-Ultra device. Additionally, Precision boasts seamless integration with the NXmap place and route tool, effectively completing the design workflow from RTL through to gates and ultimately to bitstream generation. This integration not only streamlines the development process but also enhances the reliability of the final product, ensuring it meets industry standards.

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.

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.

Creating designs at advanced process nodes necessitates a novel approach to place-and-route to handle the growing intricacies involved. Aprisa stands out as a detail-route-focused physical design platform tailored for contemporary SoCs. Operating as a complete RTL2GDSII solution, Aprisa facilitates digital implementation by providing comprehensive synthesis and place-and-route capabilities for both top-level hierarchical designs and block-level executions. Its alignment with signoff tools for STA timing and DRC offers tape-out quality correlation, which minimizes design closure challenges while ensuring peak performance, power efficiency, and area optimization (PPA). With its out-of-the-box performance, Aprisa enables physical designers to streamline each phase of the place-and-route process, accelerating their time-to-market. The unified architecture and shared analysis engines within Aprisa guarantee outstanding timing and DRC correlation throughout implementation stages and with signoff tools, significantly cutting down on the required flow iterations and engineering change orders (ECOs). As a result, this innovative approach ultimately enhances both productivity and design quality in complex projects.

Select a pre-existing power solution or adapt a proposed design, complete with schematics and component lists. You can view or alter your selection and effortlessly export the design files to the MPLAB® Mindi™ Analog Simulator for detailed verification and analysis. Are you looking for assistance in calculating your signal chain's noise budget? The signal chain signal-to-noise calculator tool offers an easy-to-use, intuitive interface for comprehensive noise analysis of your signal chain with minimal required input data. The setup includes integrated design generators, making it straightforward to initiate new power designs or enhance existing ones. Transitioning from selecting a power solution to verifying the design is seamless and efficient. Furthermore, the signal chain signal-to-noise calculator operates entirely online, eliminating the need for any software installation. This flexibility ensures that you can access the tool anytime, anywhere, facilitating your design process.

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.

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.

Multisim™ software combines industry-standard SPICE simulation with an interactive schematic environment that allows for the immediate visualization and analysis of electronic circuit behavior. Its user-friendly interface is designed to assist educators in reinforcing circuit theory and enhancing students' retention of concepts throughout their engineering studies. By integrating robust circuit simulation and analysis into the design workflow, Multisim™ enables researchers and designers to minimize the number of printed circuit board (PCB) prototypes needed, thus reducing development costs significantly. Specifically tailored for educational purposes, Multisim™ serves as a teaching application for analog, digital, and power electronics courses and labs. With its comprehensive suite of SPICE simulation, analysis, and PCB design tools, Multisim™ empowers engineers to efficiently iterate on their designs and enhance the performance of their prototypes while fostering a deeper understanding of electronic principles. This software not only streamlines the design process but also cultivates a hands-on learning experience for students in the field of electronics.

SOLIDWORKS® Electrical Schematics offers a set of standalone, user-friendly tools designed for electrical design, allowing for the effective definition of electrical connections within intricate systems. With its straightforward interface, SOLIDWORKS Electrical Schematic simplifies complicated processes such as contact cross-referencing and terminal drawings, thereby speeding up the product development cycle while reducing the redundancy typically involved in creating electrical schematics. The Standard version serves as a single-user tool aimed at expediting the design of embedded electrical systems for various types of equipment and products. It features a comprehensive library of symbols and manufacturer part information that promotes the reuse of common components, enhancing design efficiency. Meanwhile, the Professional variant of SOLIDWORKS Electrical Schematic comprises a suite of collaborative tools intended to further accelerate the development of integrated electrical systems, ensuring teams can work together seamlessly. Overall, these tools are essential for improving productivity in electrical design tasks.

The Synopsys PrimeWave Design Environment serves as a robust and adaptable platform powered by AI for setting up simulations and analyzing various designs, including analog, RF, mixed-signal, custom-digital, and memory designs found within the Synopsys Custom Design Family. It provides an integrated simulation experience that interacts smoothly with all Synopsys PrimeSim simulation engines, enhancing productivity and user-friendliness while offering thorough analytical tools. Functioning as a vital element of the Synopsys AI-Driven Analog Design solution, this environment efficiently optimizes intricate analog designs by navigating through multiple test-benches and numerous process-voltage-temperature (PVT) corners, allowing engineers to swiftly identify design points that align with their requirements. Furthermore, the PrimeWave Design Environment includes a cohesive, workflow-oriented analysis for all PrimeSim Reliability Analysis tools, featuring user-friendly setup, clear visualizations, and capabilities for debugging and identifying root causes, ultimately fostering a design approach that emphasizes reliability. This multifaceted design environment not only improves the efficiency of engineering processes but also empowers users to make informed decisions throughout the design lifecycle.

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.

Create your photonic integrated circuit within a layout-focused workflow that allows designers to utilize either a drag-and-drop interface or a script-based approach. Both methods are facilitated by a comprehensive custom IC design layout editor, which also manages the physical verification and tape-out stages. L-Edit Photonics allows for rapid photonic design creation through its intuitive drag-and-drop functionality, eliminating the need for coding. Upon finalizing the design, a netlist can be generated to support photonic simulations. The PIC design is entirely integrated within an IC layout editor, enabling users to develop layouts without writing any code, thus supporting a layout-centric approach that does not require a schematic. For those who prefer a schematic flow, S-Edit is available as an optional tool. Moreover, a simulation netlist can be produced for input into a photonic simulator, and photonic simulations are seamlessly incorporated through partnerships with various providers. Additionally, multiple foundries offer photonic PDKs to enhance design capabilities. Overall, this comprehensive workflow simplifies the photonic design process while catering to various designer preferences.

Ansys VeloceRF accelerates the design process by significantly cutting down the time required to synthesize and model intricate spiral devices and transmission lines. Compiling the geometry of inductors or transformers takes just a matter of seconds, while modeling and analyzing them can be completed in just a few minutes. This software seamlessly integrates with top EDA platforms, creating layouts that are ready for tape-out. With Ansys VeloceRF, users can synthesize devices that tightly pack multiple components and lines, resulting in a more efficient silicon floorplan. Furthermore, analyzing the coupling effects among various inductive devices prior to detailed layout can decrease the overall design size and potentially eliminate the need for guard rings. The dimensions of inductors, along with crosstalk between them, can significantly influence the size of the die. Ansys VeloceRF assists in designing smaller devices by applying optimization criteria and geometry constraints, leading to enhanced performance. Additionally, it assesses the coupling between any number of inductors, optimizing both silicon area and inductor performance within the circuit context, ultimately contributing to a more efficient design process. By streamlining these aspects, Ansys VeloceRF empowers engineers to achieve their design goals more effectively.

Electromagnetic (EM) simulation provides valuable insights prior to the physical prototyping stage. Tailor your EM simulations to enhance both speed and precision. Seamlessly integrate EM analysis with your circuit simulations to boost overall efficiency. While EM simulations can often require several hours to complete, you can significantly reduce both import and export times by linking your EM simulation software with PathWave Circuit Design software. This integration allows you to maximize your workflow by combining EM analysis with circuit simulations effectively. The 3D EM solid modeling environment enables the creation of custom 3D objects and supports the import of existing models from various CAD platforms. This is essential for preparing a 3D geometry for 3DEM simulation, which involves defining ports, boundary conditions, and material properties. Additionally, the environment includes a Finite Difference Time Domain (FDTD) simulator, which is vital for compliance testing regarding Specific Absorption Rate (SAR) and Hearing Aid Compatibility (HAC), ensuring that your designs meet necessary regulatory standards. By utilizing these advanced features, you can streamline your design process and enhance the effectiveness of your electromagnetic analysis.

Ultiboard is a powerful software solution for designing and laying out printed circuit boards (PCBs), which works hand-in-hand with Multisim to streamline the development of PCB prototypes. The software provides a user-friendly environment for efficient PCB design layout and routing, allowing for customization to suit individual needs. Its versatile tools enable precise manual placement of components and copper, which is essential for defining critical elements of the board. Additionally, the automated features facilitate a faster design process. Users will find that the advanced spreadsheet view, along with various toolboxes and design wizards, simplifies the management and definition of board layouts. The integration with Multisim ensures easy schematic transfers to PCBs, and the capability for forward and backward annotation supports effective design iteration management. Furthermore, Ultiboard allows for the straightforward export of industry-standard file formats like Gerber and DXF, ensuring a seamless transition from schematic creation to layout finalization. This comprehensive approach not only emphasizes data and automation but also supports research and validation, underlining our commitment to helping engineers create innovative solutions for the future. Ultimately, Ultiboard empowers users to bring their electronic designs to life with confidence and efficiency.

The Cadence Allegro X Design Platform is the best solution to navigate modern electronic complexity and support any PCB needs. It is a full-stack platform that provides a highly integrated and scalable environment for advanced system design. The Allegro X Design Platform allows your global teams to collaborate effectively and simultaneously to reduce project risk, lower production costs and guarantee design compliance. With Allegro X, electrical engineers and PCB designers can make data-driven decisions using integrated analysis workflows and constraints to reduce turnaround time, ensure product reliability and first-time right manufacturing success.

Oasys-RTL meets the demand for enhanced capacity, quicker runtimes, elevated quality of results (QoR), and physical awareness by performing optimization at a more abstract level while also incorporating integrated floorplanning and placement features. This tool significantly improves the quality of results by facilitating physical accuracy, efficient floorplanning, and rapid optimization cycles, ensuring timely design closure. Its power-aware synthesis capabilities encompass support for multi-threshold libraries, automatic clock gating, and a UPF-based multi-voltage domain flow. During the synthesis process, Oasys-RTL intelligently inserts the necessary level shifters, isolation cells, and retention registers according to the power intent specified in the UPF framework. Additionally, Oasys-RTL can generate a floorplan directly from the design's RTL by applying dataflow and adhering to timing, power, area, and congestion constraints. It adeptly incorporates regions, fences, blockages, and other physical directives via advanced floorplan editing tools while automatically positioning macros, pins, and pads to optimize the layout. This holistic approach ensures that designers can efficiently manage complex designs and meet stringent performance requirements.

L-Edit MEMS stands out as the premier platform for 3D MEMS design. The initial phase of creating a digital twin for MEMS devices starts with capturing designs in L-Edit. Designers in the MEMS field gain significant advantages from an integrated environment that encompasses device design, modeling for fabrication, and connections to FEM analysis tools. As the leading standard for MEMS design, L-Edit MEMS is uniquely equipped with true native curve support, making it the sole tool crafted specifically for MEMS and integrated circuit design. This platform serves as the cornerstone for the MEMS digital twin, facilitating not only device design but also 3D modeling of fabrication and simulations through established partnerships. Users can generate a 3D solid model based on layout data and descriptions of the fabrication process. It provides an insightful 3D graphical representation of the MEMS fabrication journey. Furthermore, it supports multi-physics simulations in conjunction with widely-used FEM analysis tools, allowing for the export of models to FEM/BEM simulators for thorough 3D evaluations. With its component libraries, design reuse is made simple and efficient, enhancing productivity in the MEMS design process. Ultimately, L-Edit MEMS offers a comprehensive suite of tools that empowers designers to innovate and streamline their workflows effectively.