Yue-Kai Huang is a Senior Researcher in the Optical Communications & Computing Department at NEC Laboratories America in Princeton, NJ. He received his MS in Electro-Optical Engineering and his BS in Electrical and Electronics Engineering from National Taiwan University. He received his PhD in Electrical and Electronics Engineering from Princeton University, where his doctoral research focused on photonics and high-speed optical communication systems.
At NEC, Dr. Huang’s work advances the field of optical networking and fiber-based sensing systems. His research includes long-distance fiber transmission, optical/RF frontend designs for high-capacity systems, system design for distributed fiber sensing, and optical computation techniques using high-speed photonics. His work on intelligent optical sensor networks, in particular, uses fiber not only as a communication medium but also as a pervasive sensing platform. These innovations enable real-time monitoring of critical infrastructures such as transportation systems, utilities, and data centers. By combining fundamental photonics research with applied system development, Dr. Huang helps drive NEC’s mission to create more resilient, adaptive, and efficient network and sensing solutions.
His contributions result in many of NEC’s products in coherent 100G~400G and DAS sensing solutions and support the integration of advanced optical technologies into large-scale environments, bridging the gap between physical infrastructure and digital intelligence to improve safety, performance, and situational awareness.
Dr. Yue-Kai Huang leads the new Optical Communications and Computing department at NEC Laboratories America. Learn about his background, the department’s likely research agenda in coherent transmission, self-managing networks, and photonic computing, plus the industry trends driving it.
We review recent progress in forward-transmission fibre sensing from a practical perspective, revisit the fundamental challenges in the localisation performance, and discuss possible approaches to improve event localisation accuracy.
An automated methodology for optical line systems integrating probing transceivers to initialize a system-level digital twin is described. Physical model parameters are inferred from scratch by combining end-to-end spectrum measurements, pre-FEC BER and optical amplifier telemetry, enabling near-optimal configuration, model alignment, and precise QoT tuning.
NEC Laboratories America has formed two new departments from its Optical Networking and Sensing group. Optical Communications and Computing, led by Yue-Kai Huang, and Optical Sensing and Solutions, led by Yue Tian, will carry the lab’s photonics research into new territory.
NEC Laboratories America will receive a 2026 Edison Patent Award for a patent that lets optical fiber carry both data communications and distributed sensing at once, reducing interference through counter-propagation and standard WDM filtering, validated across long distances of field fiber.
We propose a rapid state-of-polarization disturbance change-point detection and localization method using lossy coding length of kernel features. Field experiments validateaccurate detection of subtle changes and precise localization, enabling reliable fiber identification and monitoring.
NEC Laboratories America is proud to participate in OECC 2026, the 31st Opto-Electronics and Communications Conference, taking place in Busan, South Korea. We look forward to connecting with the international photonics and communications community and sharing the work we’re doing to shape the next generation of optical networks.
We propose a method to compensate the phase offset between samples from different tributaries in time-interleaved phase OTDR using nested phase reference channels. We demonstrate our method for a four-span bidirectional link with high-loss loopback.
NEC Laboratories America’s Optical Networking & Sensing team will participate in OFC 2026 in Los Angeles, March 15–19, contributing to panels, workshops, and courses focused on optical sensing, multicore fibers, and next-generation high-capacity optical communication systems.
In this talk, we will present recent technological advances in fiber sensing applications with long monitoring distances orextending multiple fiber spans. In forward-transmission-based sensing, adaptive beamforming techniques weredemonstrated to achieve multi-event vibration sensing in environments with interference and jamming with significantimprovements in signal reconstruction, noise reduction, and interference rejection from other locations. For sensing oversubmarine cables with many fiber spans with repeaters, it is shown that distributed reflection from Rayleigh scattering canbe detected with sufficient SNR for fiber sensing using HLLB paths. In particular, longitudinal averaging of receivedRayleigh scattered signals can facilitate state-of-polarization-based, multi-span sensing using eigenvalue method.