We at Liobate are seeing LiDAR systems evolve rapidly as autonomous technologies demand higher resolution, longer detection range, and faster refresh rates. Traditional LiDAR architectures face limitations in scalability and sign...

Multi-channel coherent communications—the backbone of 800G, 1.6T, and future 3.2T optical transport—demand spectrally pure, stable, and scalable light sources. Optical frequency combs have emerged as a compelling alternative to array...

We at Liobate recognize that achieving high-performance optical systems depends not only on device design but also on precise packaging and rigorous testing. As data rates scale toward 3.2T, the role of advanced electro optic modulator ...

Optical test instrumentation has entered a new era. Demands for higher bandwidth, lower noise, and greater measurement accuracy push traditional modulator technologies to their limits. For engineers designing or operating test equipment—...

Integrating an electro optic modulator into a high-density optical engine—whether for 800G DR4 or 1.6T DR8 applications—requires more than soldering a component onto a board. Optical engines combine lasers, modulators, drivers, an...

As the wireless industry looks toward 6G, the demands on fronthaul, midhaul, and backhaul networks are becoming extreme: terabit-per-second data rates, microsecond latency, and dense antenna arrays operating in the sub-terahertz bands. E...