Manufacturing Excellence for Tomorrow’s Breakthroughs

TFLN EO modulators transform high-speed optical communication with data rates exceeding 400 Gbit/s, positioning them as essential for next-generation telecom and datacom systems. Their multi-wavelength and low-power operation across O-band, C-band, L-band, and S-band enhance DWDM system efficiency, supporting both short-distance intra-datacenter links and long-haul communication. CMOS integration enables compact, energy-efficient transceiver designs, ideal for high-port interconnects and rack-to-rack connectivity. Integrated EO polarization controllers and tunable filters further boost bandwidth and spectral efficiency, addressing the needs of modern high-performance networks.

AI and HPC systems require unprecedented data transmission speeds, but current interconnect technologies have reached their fundamental limits. TFLN EO modulators address this challenge with ultrafast, low-power optical modulation and simplified electronics, enabling seamless GPU-to-GPU and node-to-node communication. Designed for next-generation AI and HPC architectures, TFLN integrates effortlessly with advanced packaging technologies such as co-packaged optics and 3D chip stacking. These innovations enable scalable, low-latency solutions that are critical for accelerating AI training, inference, and high-performance computing workloads.

Photonic engines for atomic systems (e.g., ion trapping, atomic clocks) operating in visible and NIR wavelengths; Ultra-fast pulse generation, pure phase modulation, and low-loss performance for quantum control; Quantum communication: entangled photon pair generation, polarization control, and EO gating; Photonic quantum computing: programmable MZI meshes, cluster states, and squeezed light sources.

Low-power, lightweight PICs for satellite-to-satellite, satellite-to-ground, and intra-payload communication; High-power handling for free-space communication and advanced LiDAR systems; CMOS-compatible integration for compact, deployable systems; Dielectric resilience to high temperatures, radiation, and electromagnetic interference.

Multi-wavelength operation for biomonitoring, Raman spectroscopy, and environmental monitoring; Nonlinear wavelength generation for mid-IR sensing using SHG and DFG processes; Advanced LiDAR: fast beam steering, low-power phase shifters, and multi-spectral functionality; Frequency comb generation for precision spectroscopy, including astro-combs for exoplanet detection; Opto-mechanical sensing, gyros, and evanescent field sensing using low-loss waveguides; Nonlinear photonics for metrology, OCT, holography, and other precision tools.

Wavelength conversion and generation via PPLN waveguides for optical transistors; Ultra-fast, low-power EO modulators for agile optical signal processing; High-quality delay lines and resonators for agile processor architectures; Neuromorphic computing powered by low-loss, nonlinear components; Programmable photonics with reconfigurable MZI meshes and wavelength converters.

Ultra-fast EO modulators for seamless microwave-to-optical signal conversion; Integrated delay lines and high-frequency filters for 5G/6G application; Low-loss waveguides for precise signal manipulation and high-frequency transmission.

High-frequency EO modulators enable low-latency, high-bandwidth data transfer; Energy-efficient, low-power components ensure sustainable IoT operation; Multi-wavelength DWDM for compact, scalable IoT networks; Robust, CMOS-compatible designs for edge and smart device integration.