Simulating the wireless challenges of tomorrow's networks

New use cases are pushing wireless simulation beyond what conventional tools were built for ; Satellite and HAPS links, Drone/UAV networks, Digital Twins, 5G-Advanced and 6G research.

Each use case breaks a different assumption: terrestrial models are built for ground-level propagation and don’t hold up at altitude, aerial links bring their own Doppler and mobility physics, and next-generation waveforms have no calibrated legacy tool to test against.

SIRADEL closes each gap: propagation modeling for non-terrestrial links ; a dedicated engine for air-to-ground links and UAV mobility validated against field measurements ; and a Python-native architecture built on a ray-tracing core refined over three decades.

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Challenges

Four challenges, one simulation tool box

Non-terrestrial channels, real-time Digital Twins and next-generation waveforms all push propagation modeling past what conventional tools can handle. Each one calls for its own kind of validation ; and a simulation trustworthy enough to deliver it.

SATOs ; Satellite & HAPS Operators

Geostationary broadcast, LEO/MEO broadband constellations, or a stratospheric HAPS restoring rural coverage ; every elevated-station link faces atmospheric effects and long slant paths that terrestrial models ignore. InoWave implements the ITU-R Recommendations for satellite and HAPS propagation, combined with site-specific ray-tracing, to size links or assess spectrum coexistence issue. (Recommended: InoWave)

UAV & Drone Networks

A drone can be a network user, a flying base station, or the target a network is trying to detect ; each role brings its own air-to-ground channel, Doppler behavior and mobility pattern. InoWave simulates all three, from a single flight corridor to a full 3D coverage grid, for civil operations and defense missions alike. (Recommended: InoWave API)

Innovation & Strategy teams

Research centers and industry R&D teams need a simulation environment that keeps pace with 5G-Advanced and 6G research ; XL-MIMO, RIS, sub-THz, AI-driven RAN. InoWave’s Python-native architecture plugs directly into existing evaluation pipelines, built on 30 years of academic partnerships and proven in real-world deployments, the tool delivers reliable results. (Recommended: InoWave API & Custom Studies)

Telecom Digital Twin

Before a new RAN feature, spectrum plan or optimization algorithm reaches the field, it needs to be proven against a channel model that behaves like the real world. InoWave provides the ray-tracing engine behind your Digital Twin ; from a single link to a full multi-site scenario ; so validation happens in simulation, not in a live network. (Recommended: InoWave)

Ready to put your next design to the test?

InoWave is the RF toolkit behind every use case above: ray-tracing channel simulation from indoor to non-terrestrial, validated against 5G-Advanced and 6G scenarios, deployed as a Python-native tool that plugs into your own simulation pipelines.

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Our contribution

How does Siradel support your innovative networks project?

However you want to work with us, we adapt to your team and your research. Some clients license InoWave and run their own simulation campaigns in house; others hand us the scenario configuration end to end. Most sit somewhere in between ; using our software, our propagation expertise and our RF engineers wherever it accelerates validation of your next-generation use case.

R&D teams running their own simulation campaigns

You have your own research pipeline ; academic, industrial, or defense. License InoWave and its Python-native interface, plug it into your existing tools, and run high-fidelity ray-tracing simulations for 5G-Advanced and 6G scenarios in full autonomy.

Vendors & operators validating new technology before deployment

You need to prove a new RAN feature, waveform or satellite service works before it ships. Hand us the scenario ; UAV corridor, satellite link, sensing campaign ; and our RF engineers deliver simulation results you can commit to.

OUR PRIVATE NETWORK SOLUTIONS

The solutions behind your local network design

What we use to design your private network, whatever the environment: calibrated 3D propagation models, our own geodata, and three decades of RF expertise.