Flexcompute RF electromagnetic simulation

FLEXCOMPUTE RF

ELECTROMAGNETIC SIMULATION

GPU-native, full-wave electromagnetic simulation for radio frequency design in a unified photonics and electronics environment.

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FLEXCOMPUTE RF
ADVANTAGES

Flexcompute RF brings GPU-native electromagnetic simulation for radio frequency design into a unified photonics and electronics workflow. Large-scale, high-frequency EM simulation runs on a single geometry and material stack across RF and PIC domains, removing translation errors and tool handoffs. Integrated optical and electrical workflows support side-by-side evaluation of RF and photonic performance, while GPU acceleration makes fast iteration and broad design exploration practical during active design.
Flexcompute RF Platform
Simulation Speed
100x​ Faster
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Simulation Speed
Flexcompute RF leverages GPU-accelerated solvers to deliver full-wave 3D electromagnetic results in minutes instead of hours or days. This accelerates the path from concept to validated design, keeping RF simulation aligned with rapid product development cycles.
Design Exploration
10x​ More
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Design Exploration
Flexcompute RF enables teams to explore broader design spaces by making full-wave simulation fast enough to run across hundreds of parameter variations. This sustains design momentum across multi-band and multi-element programs, supporting more aggressive exploration before design freeze.
Model Scale
10x​ Larger
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Model Scale
Flexcompute RF enables full-wave simulation of much larger electromagnetic models by scaling natively across GPUs. Larger domains, higher mesh resolution, and more complex multi-component structures can be solved within practical runtimes, allowing engineers to analyze full-system RF behavior without relying on aggressive model simplifications.

FLEXCOMPUTE RF
ALTERNATIVES AND COMPARISON

RF simulation remains a critical bottleneck in modern electronics design, with traditional tools requiring hours or days for full-wave analysis of complex structures. While a range of commercial solvers exist, most rely on CPU-based architectures that limit throughput and design exploration. Flexcompute RF brings GPU-accelerated full-wave simulation to the RF workflow, dramatically reducing turnaround time and enabling broader design exploration within existing development schedules.
Flexcompute RFTraditional RF Solvers
GPU-native solver architecture✓—
Cloud-native execution model✓
Unified RF–photonic design environment✓
Package-scale multilayer modeling✓✓
High-throughput design exploration✓
AI-guided simulation workflow✓—

ACCELERATE YOUR RF
SIMULATION WORKFLOW TODAY

If you are ready to design faster with GPU-accelerated electromagnetic simulation and automated optimization

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FLEXCOMPUTE RF
FEATURES

Flexcompute RF provides a complete electromagnetic simulation platform for RF and microwave design, combining GPU-accelerated full-wave solvers, automated meshing, and integrated post-processing into a single system. The platform supports real-world device geometries and delivers accurate broadband results across antenna, filter, connector, and PCB applications for both interactive design and automated optimization pipelines.

Key Capabilities

✓2D Layout Import (ODB++, GDSII)
✓3D CAD Import (STEP, STL)
✓RF Materials Library
✓Automated Simulation Mesh Generation
✓Wave Ports with Automatic Impedance Calculation
✓Lumped Ports and Elements Compatible with SPICE, Touchstone, and Circuit Models
✓Arbitrary Field and Voltage/Current Probes
✓2D Transmission Line Analysis
✓3D Full-Wave Solver for Device S-Parameters
✓Far-Field Analysis with Comprehensive Antenna Performance Metrics
01

GPU-Native Full-Wave RF Solver

Built on a massively parallel GPU architecture to simulate large, high-frequency electromagnetic structures at full geometric fidelity, enabling practical analysis of package-scale RF problems.

GPU-Native Full-Wave RF Solver
02

Unified RF–Photonic Design Environment

Runs RF simulation within the same environment used for PIC layout and photonic analysis, allowing electrical and photonic structures to be designed and validated together on a shared geometry and material stack.

Unified RF–Photonic Design Environment
03

Package-Scale Multilayer Modeling

Accurately simulates dense routing, vias, and complex multilayer stackups common in co-packaged optics and advanced packaging, without aggressive geometric simplification.

Package-Scale Multilayer Modeling
04

High-Throughput Design Exploration

GPU acceleration enables rapid evaluation of routing strategies, electrode designs, impedance matching approaches, and packaging variations, making broad parametric exploration practical during active design.

High-Throughput Design Exploration
05

AI-Guided Simulation Workflow

Provides a conversational interface for configuring RF simulations from design intent, with the AI handling solver setup and parameter configuration so engineers can focus on design decisions rather than tool mechanics.

AI-Guided Simulation Workflow
EXAMPLE LIBRARY
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