From Catheters to Light Beams: Reinventing Cardiac Diagnostics with Integrated Photonics

Functional Model (FuMo) of the Femto-One FBG temperature sensor system Accurate temperature measurement is essential...
inQuiQ label-free biosensing

How Photonic Integrated Circuits Are Transforming Biosensing: Delta Life Science Story

The inQuiQ® by Delta Life Science Studying biomolecular interactions is at the heart of drug...
professor-kippenberg-marcel-benoist-prize-quantum-optomechanics

Professor Kippenberg’s Marcel Benoist Prize: Pioneering Quantum Optomechanics and Optical Frequency Combs

We extend our warmest congratulations to Professor Tobias J. Kippenberg, Full Professor of Physics at...

Next-Gen Tumor Detection: Silicon Nitride Photonic Integrated Circuits Medical Diagnostics at Scale

The next generation of medical diagnostics—from catching tumors at their earliest stages to continuous health...
LIGENTEC QPIC1550 Quantum Photonics

Building the Quantum Future: LIGENTEC SiN QPIC1550 Photonics

The race to make quantum technologies practical is accelerating. At its core lies a transformative...

From Intern to Engineer: Tanguy’s Internship Experience in Photonics

At LIGENTEC, we believe in nurturing talent and providing opportunities for growth. Today, we're excited...
CSOC wants to make a chip-scale atomic optical clock. As part of this effort, SiN for chip-scale atomic clocks plays a crucial role: an on-chip mode-locked laser at 1310 nm is used to pump a silicon nitride resonator. The generated octave-spanning comb is sent to a 1f-to-2f on-chip interferometer to determine the carrier-envelope offset of the comb through self-referencing. Further, the light of an on-chip frequency-doubled narrow linewidth Distributed Feedback (DFB) laser is locked to an Rb transition in vapor as a second reference. These error signals, together with the comb's repetition rate frequency, allow the system to synthesize the clock signal.

SiN for Chip-Scale Atomic Clocks

Imagine a clock so precise it could revolutionize GPS navigation, wireless communication, and more. This...

Driving 6G Connected Mobility with LIGENTEC

How Our Thin-Film Lithium Niobate Photonics is Driving the 6G Revolution The sixth generation (6G)...
MZi plasmonic sensor

Integrated Photonics: A New Era for Sepsis Diagnosis

The Sepsis Challenge and Photonic Solutions Sepsis remains one of healthcare's most pressing diagnostic challenges...
TFLN Modulators

Scalable, High-Speed Photonics with TFLN Modulators

Integrated photonics is poised to revolutionize a wide range of applications, from high-speed optical interconnects...
Thin-Film Lithium Niobate Modulators

Thin-Film Lithium Niobate Modulators: Speed Revolution

Driven by the insatiable appetite for high-speed data transmission across telecommunications, computing, and quantum technologies...

Dr. Solange Vieira’s Journey of Passion and Innovation

Welcome to the LIGENTEC Portrait Series, featuring Dr. Solange Vieira, a passionate engineer whose expertise...
LIGENTEC cleanroom testing capabilities

LIGENTEC: Advanced PIC Testing

  In this interview, Antoine Brimont, Characterization Team Lead at LIGENTEC, discusses the company's enhanced...

Dr. Can Yao’s Journey of Innovation and Inspiration

Welcome to the LIGENTEC Portrait Series, where we celebrate the talented individuals driving innovation within...

Dr. Mariam Aamer Benelfaquih’s Journey of Resilience and Leadership

Welcome to the LIGENTEC Portrait Series, featuring Dr. Mariam Aamer Benelfaquih, a talented R&D Design...

No post found