EM-twin R&D foundation + AI-Native communication

The deterministic ray-tracing foundations (L1-L3) and next-generation AI-Native communication for high-compute terminals (Liquid RF) — core capabilities reused across every industry solution.

AI-Native Communication

Liquid RF · next-generation communication for high-compute terminals

LRFLiquid RF

Liquid RF · Next-Generation Communication for High-Compute Terminals

Once sensing, inference, and control are all rebuilt on the compute platform, communication too will move from a standalone module to a system capability. Liquid RF is the entry point to that transition — the wireless link no longer sits outside the module boundary, but becomes a co-operating layer inside the terminal.

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Foundational Platforms

L1-L3 · core capabilities reused across every vertical

L1Lauraycs

Lauraycs · Deterministic Ray Tracing Simulation Engine

Grounded in the first principles of physics, Lauraycs precisely reproduces the reflection, diffraction, and penetration of electromagnetic waves in real three-dimensional environments. It turns invisible electromagnetic signals into engineering objects that can be known, measured, and predicted, delivering high-fidelity channel and coverage data for next-generation R&D in communication, sensing, and positioning.

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L2Lauraycs Virtual Drive Test (VDT) / HIL Suite

Virtual Drive Test & HIL · Bring the Field Back to the Lab

Driven by high-fidelity channels and coverage generated by Lauraycs ray tracing, control channel emulators, signal generators, vector signal analyzers and OTA anechoic chambers to run repeatable, regressible hardware-in-the-loop testing on real terminals, modules and automotive-grade devices. Let "that one field signal issue that was impossible to reproduce" be reliably replayed, tuned and regressed in the lab.

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L3MetaRadio EM-Twin Platform

EM Twin · The Electromagnetic Layer of the Digital Twin

Backed by the dual foundation of Lauraycs ray tracing channel and hardware-in-the-loop (HIL), it builds a real-time, evolvable EM twin of the electromagnetic environment. It is both the infrastructure for end-to-end testing and the key link that feeds electromagnetic data back into city/factory/low-altitude digital twins—closing the RT loop with reality so it becomes new environmental data once again.

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