Accelerate Wireless Innovation Across Chips, Modules, Boards, and Systems
Design, simulate, and verify next-generation wireless technologies from RFICs and antenna arrays to 5G/5G NTN, Wi-Fi, and emerging 6G systems.
Design Foundry-Ready RFICs Develop and verify cellular RFIC and MMIC designs with foundry-certified process technologies, advanced simulation, and streamlined design-to-manufacturing workflows.
Engineer Advanced RF Modules Model RF chiplets, heterogeneous integration, and advanced package assemblies with 3D electromagnetic simulation for next-generation wireless modules.
Optimize RF Boards and Antennas Design RF circuit boards and printed antennas with integrated schematic, layout, electromagnetic simulation, and manufacturing-aware verification.
Develop Beamforming Arrays Design and optimize phased-array antennas, beamforming networks, and RF front-end architectures for high-capacity wireless communications.
Validate Wi-Fi Performance Model complete Wi-Fi transmitter and receiver architectures, evaluate impairments, and verify compliance with evolving wireless standards.
Simulate Non-Terrestrial Networks Analyze satellite-based 5G and emerging 6G communication links with realistic channel, RF system, and propagation modeling.
Simulate and optimize optical satellite links, evaluating performance, impairments, and design tradeoffs for reliable space communications.
Learn from Industry Experts
RF System Design (SystemVue) provides a scalable RF digital twin platform for the design, optimization, and validation of advanced wireless, satellite, radar, phased array, and Aerospace & Defense systems. Modern RF systems require accurate modeling of RF impairments, phased-array beamforming, propagation environments, nonlinear hardware behavior, and complex baseband processing across multiple domains. Traditional spreadsheet-based analysis and disconnected simulation tools cannot efficiently address the complexity of emerging wireless systems.
Blogs
Bootcamps
More Resources
eBooks
Transform Your RF Designs with Agentic AI
eBooks
Simulating & Optimizing RF Circuits in 3DHI Advanced Packaging
Application Notes
Designing for Stability in High Frequency Circuits
Application Notes
Designing Robust 5G Power Amplifiers for the Real World
eBooks
Optimize Your RF Board Design Flow
White Papers
The Next-Generation of Circuit Simulation in RF EDA
White Papers
From Ad Hoc Simulations to Orchestrated RF Design Workflows
Solution Briefs
An Executable RF Design Workflow Whiteboard
eBooks
How to Design and Test a Phased Array Antenna
White Papers
Advantages System - Level Design Delivers for Phased - Array Development
Solution Briefs
Realistic Simulation of 5G/6G NTN RF Systems and Transmission Channels
White Papers
Enabling AI-Driven Innovation in 5G-Advanced and 6G Air Interfaces
Wireless FAQs
EDA tools support the design and simulation of RFICs, MMICs, antennas, RF modules, phased arrays, cellular infrastructure, Wi-Fi devices, satellite communications, and emerging 6G systems.
System-level simulation helps engineers evaluate real-world performance, identify design tradeoffs, reduce development risk, and optimize architectures before hardware implementation.
Advanced simulation technologies enable accurate circuit verification, foundry-ready design flows, process design kit support, and electromagnetic analysis throughout development.
Electromagnetic simulation predicts RF coupling, radiation, losses, interference, and antenna behavior, helping engineers improve wireless performance before fabrication.
Advanced packaging enables higher integration, smaller form factors, improved performance, and reduced losses for 5G, 6G, and high-frequency wireless applications.
Engineers can analyze beam steering performance, array architectures, mutual coupling effects, RF impairments, and overall system-level behavior.
Yes. Engineers can model satellite communication channels, orbital scenarios, propagation effects, RF impairments, and end-to-end system performance.
Simulation enables rapid exploration of new waveforms, AI-enhanced communications, advanced spectrum strategies, and potential 6G network architectures without hardware prototypes.
Co-design workflows allow engineers to optimize RF circuitry, antenna placement, electromagnetic performance, and manufacturability within a unified environment.
An integrated workflow improves design visibility, reduces costly iterations, ensures performance consistency, and shortens time-to-market for wireless products.