What You Need to Know About ANSYS Electromagnetics Suite 16.2 (x64): A Comprehensive Review
ANSYS Electromagnetics Suite 16.2 (x64): A Comprehensive Solution for Electromagnetic Simulation
Electromagnetic simulation is a vital tool for designing and optimizing electronics systems and components. Whether you are working on antenna, RF, microwave, PCB, IC, package, or electromechanical devices, you need a reliable and accurate software solution that can handle the complexity and diversity of your designs.
ANSYS Electromagnetics Suite 16.2 (x64)
That's where ANSYS Electromagnetics Suite comes in. ANSYS Electromagnetics Suite is a collection of ANSYS products that provide you with the industry gold standard simulators for electromagnetic simulation. With ANSYS Electromagnetics Suite, you can solve any electromagnetic, temperature, signal integrity, power integrity, parasitic, cabling, or vibration challenge in your designs.
In this article, we will introduce you to ANSYS Electromagnetics Suite 16.2 (x64), the latest version of this powerful software suite that offers many improvements and enhancements to help you achieve faster and better results. We will also show you how to use ANSYS Electromagnetics Suite for various applications and scenarios that require electromagnetic simulation.
Ansys Electronics Desktop: A Platform for True Electronics System Design
Ansys Electronics Desktop is the platform that integrates different ANSYS products into a single environment. With Ansys Electronics Desktop, you can access and use Ansys HFSS, Ansys Maxwell, Ansys Q3D Extractor, Ansys SIwave, and Ansys Icepak from a common interface. You can also import and export data between these products and other third-party tools.
Ansys Electronics Desktop enables you to perform true electronics system design by allowing you to simulate the electromagnetic, thermal, mechanical, and circuit behavior of your designs in a seamless and efficient way. You can also perform parametric sweeps, optimization, design of experiments, and statistical analysis using Ansys Electronics Desktop.
Some of the advantages of using Ansys Electronics Desktop for electromagnetics simulation are:
It simplifies the workflow and reduces the learning curve by providing a consistent user interface and data management across different ANSYS products.
It increases the productivity and accuracy by enabling the co-simulation and data exchange between different physics domains and design levels.
It enhances the functionality and performance by leveraging the advanced features and capabilities of each ANSYS product.
It supports the innovation and creativity by allowing you to explore different design scenarios and challenges using various simulation methods and tools.
Some of the examples of how to use Ansys Electronics Desktop for various design scenarios and challenges are:
You can use Ansys HFSS to design a patch antenna, then import it into Ansys SIwave to analyze its signal integrity on a PCB, then export it to Ansys Icepak to evaluate its thermal performance.
You can use Ansys Maxwell to design an electric motor, then import it into Ansys Q3D Extractor to extract its parasitic parameters, then export it to Ansys Simplorer to simulate its circuit behavior.
You can use Ansys Q3D Extractor to design a power bus, then import it into Ansys SIwave to analyze its power integrity, then export it to Ansys Icepak to assess its thermal impact.
You can use Ansys SIwave to design a high-speed PCB, then import it into Ansys HFSS to optimize its antenna placement, then export it to Ansys Icepak to optimize its cooling solution.
Ansys HFSS: The Industry Gold Standard for 3D Electromagnetic Simulation
Ansys HFSS is the industry gold standard for 3D electromagnetic simulation. It is a full-wave finite element method (FEM) solver that can handle any frequency, any material, any geometry, and any boundary condition. It can accurately simulate the electromagnetic fields and interactions of your designs in the frequency domain or in the time domain.
Ansys HFSS is widely used for antenna, RF, microwave, PCB, IC, and package design. It can help you design, optimize, and verify the performance of your devices in terms of radiation, scattering, impedance, S-parameters, gain, directivity, efficiency, bandwidth, resonance, polarization, coupling, crosstalk, interference, noise, distortion, quality factor, etc.
Some of the main features and benefits of Ansys HFSS are:
It supports multiple solver technologies such as FEM, integral equation (IE), asymptotic extraction (AX), hybrid FEM-IE-AX (FIT), shooting bouncing ray (SBR+), etc. that can handle different types of problems and applications.
It provides automatic adaptive meshing that ensures the accuracy and convergence of the solution without manual intervention.
It offers various post-processing tools such as field calculator, near-field to far-field transformation, antenna patterns, radar cross section (RCS), etc. that enable you to analyze and visualize the results in different ways.
It integrates with other ANSYS products such as ANSYS Mechanical for structural analysis, ANSYS Mechanical for thermal analysis, ANSYS Simplorer for circuit analysis, etc. that enable you to perform multiphysics simulation and co-simulation.
It supports various design optimization techniques such as parametric optimization, goal-driven optimization, topology optimization, etc. that enable you to improve the performance and efficiency of your designs.
It supports various design verification methods such as design rule checking (DRC), layout versus schematic (LVS), electromagnetic compatibility (EMC), electromagnetic interference (EMI), etc. that enable you to ensure the quality and reliability of your designs.
Some of the improvements and enhancements in Ansys HFSS 16.2 (x64) are:
It introduces a new solver technology called FIT that combines the advantages of FEM, IE, and AX solvers and can handle large and complex problems with high accuracy and speed.
It improves the performance and scalability of the SBR+ solver that can handle electrically large problems such as antenna placement, RCS, and radome analysis.
It enhances the functionality and usability of the antenna design kit (ADK) that provides a library of parametric antenna models and templates.
It adds new features and capabilities for PCB and IC package design such as differential via modeling, power-aware IBIS-AMI model generation, EMI scanner, etc.
Ansys Maxwell: The Leading Low-Frequency Electromagnetic Field Simulator
Ansys Maxwell is the leading low-frequency electromagnetic field simulator. It is a finite element method (FEM) solver that can handle static, transient, harmonic, and quasi-static problems. It can accurately simulate the electromagnetic fields and interactions of your designs in the low-frequency range from DC to hundreds of kHz.
Ansys Maxwell is widely used for electric machine, transformer, sensor, actuator, and magnet design. It can help you design, optimize, and verify the performance of your devices in terms of torque, force, flux, current, voltage, power, efficiency, loss, temperature, etc.
Some of the main features and benefits of Ansys Maxwell are:
It supports various types of materials such as linear, nonlinear, anisotropic, hysteretic, laminated, etc. that can capture the realistic behavior of your designs.
It provides various types of excitations such as current source, voltage source, winding source, permanent magnet source, etc. that can model the driving forces of your designs.
It offers various types of boundary conditions such as perfect electric conductor (PEC), perfect magnetic conductor (PMC), impedance boundary condition (IBC), radiation boundary condition (RBC), etc. that can model the surrounding environment of your designs.
It integrates with other ANSYS products such as ANSYS Mechanical for structural analysis, ANSYS Mechanical for thermal analysis, ANSYS Simplorer for circuit analysis, etc. that enable you to perform multiphysics simulation and co-simulation.
It supports various design optimization techniques such as parametric optimization, goal-driven optimization, topology optimization, etc. that enable you to improve the performance and efficiency of your designs.
It supports various design verification methods such as design rule checking (DRC), layout versus schematic (LVS), electromagnetic compatibility (EMC), electromagnetic interference (EMI), etc. that enable you to ensure the quality and reliability of your designs.
Some of the improvements and enhancements in Ansys Maxwell 16.2 (x64) are:
It introduces a new solver technology called transient electric field (TEF) that can handle transient problems with electric fields and displacement currents.
It improves the performance and scalability of the harmonic solver that can handle harmonic problems with multiple frequencies and harmonics.
It enhances the functionality and usability of the electric machine design kit (EMDK) that provides a library of parametric electric machine models and templates.
It adds new features and capabilities for electromechanical device design such as piezoelectric material modeling, magnetostrictive material modeling, haptic device modeling, etc.
Ansys Q3D Extractor: The Fastest and Most Accurate Parasitic Extraction Tool
Ansys Q3D Extractor is the fastest and most accurate parasitic extraction tool. It is a quasi-static finite element method (FEM) solver that can handle 2D and 3D problems. It can accurately extract the parasitic parameters such as resistance, inductance, capacitance, and mutual coupling of your designs in the frequency domain or in the time domain.
Ansys Q3D Extractor is widely used for power integrity, signal integrity, EMI/EMC, and thermal analysis of PCBs, IC packages, connectors, cables, wires, buses, etc. It can help you analyze and optimize the performance of your designs in terms of current distribution, voltage drop, power loss, crosstalk, noise margin, impedance matching, etc.
Some of the main features and benefits of Ansys Q3D Extractor are:
It supports various types of geometries such as planar, non-planar, layered, curved, etc. that can capture the realistic shape of your designs.
It provides various types of ports such as lumped port, wave port, terminal port, etc. that can model the input and output connections of your designs.
It offers various types of outputs such as RLGC matrix, S-parameter matrix, Y-parameter matrix, Z-parameter matrix, SPICE netlist, etc. that enable you to export the results to other tools for further analysis.
It integrates with other ANSYS products such as ANSYS HFSS for full-wave analysis, ANSYS SIwave for PCB and IC package analysis, ANSYS Simplorer for circuit analysis, etc. that enable you to perform multiphysics simulation and co-simulation.
It supports various design optimization techniques such as parametric optimization, goal-driven optimization, topology optimization, etc. that enable you to improve the performance and efficiency of your designs.
It supports various design verification methods such as design rule checking (DRC), layout versus schematic (LVS), electromagnetic compatibility (EMC), electromagnetic interference (EMI), etc. that enable you to ensure the quality and reliability of your designs.
Some of the improvements and enhancements in Ansys Q3D Extractor 16.2 (x64) are:
It introduces a new solver technology called adaptive frequency sweep (AFS) that can handle frequency-dependent problems with high accuracy and speed.
It improves the performance and scalability of the time-domain solver that can handle transient problems with large time steps and long durations.
It enhances the functionality and usability of the layout editor that provides a graphical user interface for creating and editing geometries.
It adds new features and capabilities for power integrity analysis such as DC IR drop analysis, AC power loss analysis, Joule heating analysis, etc.
Ansys SIwave: The Most Advanced PCB and IC Package Simulator
Ansys SIwave is the most advanced PCB and IC package simulator. It is a full-wave finite element method (FEM) solver that can handle 3D problems. It can accurately simulate the electromagnetic fields and interactions of your designs in the frequency domain or in the time domain.
Ansys SIwave is widely used for power delivery network, signal integrity, EMI/EMC, and thermal analysis of PCBs, IC packages, connectors, cables, wires, buses, etc. It can help you analyze and optimize the performance of your designs in terms of voltage noise, current noise, power noise, crosstalk, impedance matching, eye diagram, bit error rate, etc.
Some of the main features and benefits of Ansys SIwave are:
It supports various types of geometries such as planar, non-planar, layered, curved, etc. that can capture the realistic shape of your designs.
It provides various types of ports such as lumped port, wave port, terminal port, etc. that can model the input and output connections of your designs.
It offers various types of outputs such as RLGC matrix, S-parameter matrix, Y-parameter matrix, Z-parameter matrix, SPICE netlist, etc. that enable you to export the results to other tools for further analysis.
It integrates with other ANSYS products such as ANSYS HFSS for full-wave analysis, ANSYS Mechanical for structural analysis, ANSYS Mechanical for thermal analysis, ANSYS Simplorer for circuit analysis, etc. that enable you to perform multiphysics simulation and co-simulation.
It supports various design optimization techniques such as parametric optimization, goal-driven optimization, topology optimization, etc. that enable you to improve the performance and efficiency of your designs.
It supports various design verification methods such as design rule checking (DRC), layout versus schematic (LVS), electromagnetic compatibility (EMC), electromagnetic interference (EMI), etc. that enable you to ensure the quality and reliability of your designs.
Some of the improvements and enhancements in Ansys SIwave 16.2 (x64) are:
It introduces a new solver technology called power-aware IBIS-AMI that can handle high-speed serial link problems with power-aware models and equalization schemes.
It improves the performance and scalability of the frequency-domain solver that can handle large-scale problems with thousands of ports and millions of unknowns.
It enhances the functionality and usability of the EMI scanner that provides a graphical user interface for identifying and mitigating EMI issues.
It adds new features and capabilities for thermal analysis such as thermal-aware DC IR drop analysis, thermal-aware AC power loss analysis, thermal-aware Joule heating analysis, etc.
Ansys Icepak: The Most Powerful Thermal Management Solution for Electronics
Ansys Icepak is the most powerful thermal management solution for electronics. It is a computational fluid dynamics (CFD) solver that can handle 3D problems. It can accurately simulate the fluid flow and heat transfer of your designs in the steady-state or transient mode.
Ansys Icepak is widely used for thermal analysis of electronics systems and components such as PCBs, IC packages, connectors, cables, wires, buses, heat sinks, fans, blowers, pumps, etc. It can help you analyze and optimize the performance of your designs in terms of temperature distribution, heat flux, pressure drop, flow rate, fan curve, etc.
Some of the main features and benefits of Ansys Icepak are:
It supports various types of fluids such as air, water, oil, refrigerant, etc. that can capture the realistic properties and behavior of your designs.
It provides various types of boundary conditions such as heat source, heat flux, temperature, pressure, velocity, mass flow rate, etc. that can model the driving forces and constraints of your designs.
It offers various types of outputs such as temperature contour, heat flux vector, pressure contour, velocity vector, fan curve plot, etc. that enable you to analyze and visualize the results in different ways.
It integrates with other ANSYS products such as ANSYS HFSS for electromagnetic analysis, ANSYS Mechanical for structural analysis, ANSYS Mechanical for thermal analysis, ANSYS Simplorer for circuit analysis, etc. that enable you to perform multiphysics simulation and co-simulation.
It supports various design optimization techniques such as parametric optimization, goal-driven optimization, topology optimization, etc. that enable you to improve the performance and efficiency of your designs.
It supports various design verification methods such as design rule checking (DRC), layout versus schematic (LVS), electromagnetic compatibility (EMC), electromagnetic interference (EMI), etc. that enable you to ensure the quality and reliability of your designs.
Some of the improvements and enhancements in Ansys Icepak 16.2 (x64) are:
It introduces a new solver technology called coupled fluid-solid conduction (CFSC) that can handle conjugate heat transfer problems with high accuracy and speed.
It improves the performance and scalability of the transient solver that can handle transient problems with large time steps and long durations.
It enhances the functionality and usability of the geometry editor that provides a graphical user interface for creating and editing geometries.
It adds new features and capabilities for thermal management analysis such as thermal-aware DC IR drop analysis, thermal-aware AC power loss analysis, thermal-aware Joule heating analysis, etc.
Conclusion
In this article, we have introduced you to ANSYS Electromagnetics Suite 16.2 (x64), a comprehensive solution for electromagnetic simulation. We have shown you how to use ANSYS Electromagnetics Suite for various applications and scenarios that require electromagnetic simulation. We have also highlighted the benefits of using ANSYS Electromagnetics Suite 16.2 (x64) for electromagnetic simulation.
With ANSYS Electromagnetics Suite 16.2 (x64), you can solve any electromagnetic, temperature, signal integrity, power integrity, parasitic, cabling, or vibration challenge in your designs. You can also perform true electronics system design by integrating different ANSYS products into a single environment. You can also leverage the advanced features and capabilities of each ANSYS product to achieve faster and better results.
If you are interested in learning more about ANSYS Electromagnetics Suite 16.2 (x64) or downloading a free trial version, please visit the official website of ANSYS or contact us today. We will be happy to assist you with your electromagnetic simulation needs.
FAQs
Here are some frequently asked questions related to the topic of this article:
What are the system requirements for ANSYS Electromagnetics Suite 16.2 (x64)?
The minimum system requirements for ANSYS Electromagnetics Suite 16.2 (x64) are:
Operating system: Windows 7/8/10 64-bit or Linux 64-bit
Processor: Intel Core i5 or AMD equivalent
Memory: 8 GB RAM
Disk space: 20 GB free disk space
Graphics card: NVIDIA Quadro or AMD FirePro with OpenGL s