熱結合
加熱や潜在的な破壊を含む、RF電力損失の熱的影響を解析します。
RF & Microwave
EMWORKS における高周波電磁界シミュレーションモジュールで、アンテナ、フィルタ、共振器、インターコネクトなどの RF コンポーネントの解析に対応しています。
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高周波専門機能
RF & Microwaveは、高周波電磁界シミュレーションにおいて比類のない精度を提供し、エンジニアが自信と効率をもって設計できるように支援します。
多目的な解析機能
アンテナや導波管から信号の整合性、電磁両立性（EMC）まで、幅広いアプリケーションに対応します。
時間領域ソリューション
コネクタ、ケーブル、高速インターコネクトにおける不連続性などの問題を診断・解決します。
統合熱解析
熱的挙動と電磁特性を同時に解析することで、信頼性の高い性能を確保します。
RF & MICROWAVES Analysis Options
RF & MICROWAVES provides several analysis types commonly needed in RF and microwave
design.
マルチフィジックス連成
電磁解析と熱解析の統合により、ユーザーはシミュレーションを実行できます。
Applications of RF & MICROWAVES
RF & MICROWAVES supports a range of high-frequency applications, including:
Chip, Package, Board Systems
Model signal paths from chip through package to PCB to study impedance, reflections and coupling across the entire chain, including the impact of layout and stack-up choices.
Connectors and Transitions
Simulate 3D connectors, launches and transitions (for example coax-to-microstrip or microstrip-to-stripline) to evaluate return loss, mode conversion and local field concentrations.
Electro-Thermal
Compute RF losses in components or interconnects and use them as heat sources in coupled thermal studies to estimate temperature rise and identify regions that may exceed material or reliability limits.
EM Exposure
Analyze field distributions in and around devices to estimate exposure levels in regions of interest and check against defined limits in representative operating scenarios.
Filters
Evaluate S-parameters, field distributions and Q-factors in filters to confirm insertion loss, return loss and rejection over the required frequency bands.
Passive Components
Model inductors, capacitors, couplers and other passive RF components to study parasitics, frequency response and loss behaviour in realistic 3D geometries.
Planar-Printed Antennas
Simulate printed and planar antennas on substrates to assess impedance, bandwidth, radiation patterns and efficiency, including the influence of ground planes and nearby structures.
Printed Circuit Boards (PCBs)
Analyze high-speed traces and RF sections on PCBs for impedance, crosstalk and coupling, taking into account stack-up, via fields and proximity to other conductors.
Resonators
Identify resonant frequencies, mode shapes and Q-factors in cavity, dielectric and planar resonators to support the design of frequency-selective structures.
Transmission Lines
Use frequency-domain and time-domain (including TDR-style) analysis to study reflections, dispersion and losses in transmission lines, cables and interconnects over the relevant frequency range.
Waveguide Antennas
Model waveguide-based antennas and apertures to evaluate radiation patterns, gain and impedance, and to study how geometry changes affect the overall response.
Why teams use RF & MICROWAVES
Design validation before hardware
To check whether the chosen geometry, stack-up and materials deliver the required S-parameters, bandwidth, matching and radiation characteristics at the target frequencies.
Understanding fields in complex 3D structures
To see where fields, currents and losses are concentrated in connectors, transitions, packages, enclosures and waveguide structures, and how changes in geometry affect them.
Troubleshooting and refinement
To investigate unexpected resonances, coupling paths, EMI/EMC issues or sensitivity to manufacturing tolerances that are hard to isolate from measurements alone.
Supporting layout and packaging decisions
To evaluate how PCB routing, via placement, shielding, grounding and housing details influence performance and interference between nearby circuits or antennas.
Complementing circuit simulation and measurement
To provide 3D field-based results that sit alongside circuit-level simulation and lab measurements, helping to explain observed behaviour and guide design changes.
Evaluate RF & MICROWAVES on your designs
If you work with RF, microwave or high-speed components and need field-level simulation in addition to circuit tools and measurements, you can evaluate RF & MICROWAVES as part of EMWORKS.
A short trial on one or two representative models is usually enough to see whether the module fits your workflows and accuracy requirements.