A lithium niobate Mach-Zehnder modulator offers significantly higher electro-optic bandwidth, lower drive voltage, and lower insertion loss compared to silicon or indium phosphide-based modulators. Liobate's TFLN-based Mach-Zehnder intensity modulator achieves 67GHz+ bandwidth, enabling ultra-high-speed signal modulation for next-generation optical communication systems.

These refer to the data transmission capacity per optical transceiver module. An 800G optical transceiver supports 800 Gbps, while a 1.6T optical transceiver doubles that capacity, and a 3.2T optical transceiver targets future AI and hyperscale data center demands. Liobate's TFLN modulator chips enable single CW laser-driven solutions across all three generations with high efficiency and low power consumption.

Liobate's fiber optic modulator chips deliver ultra-low insertion loss, high electro-optic bandwidth, and excellent linearity — critical performance parameters for coherent optical systems. These advantages enable longer transmission distances and higher spectral efficiency in DWDM optical networks compared to conventional modulator technologies.

Yes. Liobate's electro-optic intensity modulator and coherent modulator chips are well-suited for DWDM optical networks, supporting 400G and 800G channel rates with low noise and high wavelength selectivity. They are compatible with mid- to long-reach optical communication systems in both metro and long-haul network deployments.

Direct intensity modulation encodes data by varying the optical power output directly, offering a simpler and lower-cost solution compared to coherent optical communication. It is typically preferred for shorter-reach applications such as data center intra-connections and access networks, where cost efficiency is prioritized over maximum spectral efficiency.