In recent years, silicon nitride (SiN) has drawn attention for the realisation of integrated photonic devices due to its fabrication flexibility and advantageous intrinsic properties that can be tailored to fulfill the requirements of different linear and non-linear photonic applications. This paper focuses on our progress in the demonstration of enhanced functionalities in the near infrared wavelength regime with our low temperature (<350 ºC) SiN platform. It discusses (de)multiplexing devices, nonlinear all optical conversion, photonic crystal structures, the integration with novel phase change materials, and introduces applications in the 2 µm wavelength range
The development of versatile and novel material platforms for integrated photonics is of prime impor...
The development of versatile and novel material platforms for integrated photonics is of prime impor...
We developed a chip-based silicon nitride platform with thick waveguides (> 2 μm) that overcomes the...
We demonstrate devices with enhanced linear and nonlinear functionalities in the near-infrared fabri...
We demonstrate devices with enhanced linear and nonlinear functionalities in the near-infrared fabri...
We demonstrate devices with enhanced linear and nonlinear functionalities in the near-infrared fabri...
Silicon photonics is one of the most prominent technology platforms for integrated photonics and can...
Due to its flexible optical properties silicon nitride is an attractive material for integrated phot...
We demonstrate 3 platforms based on silicon nitride layers processed at 350°C and tailored to have d...
We demonstrate 3 platforms based on silicon nitride layers processed at 350°C and tailored to have d...
Silicon nitride photonics is on the rise owing to the broadband nature of the material, allowing app...
We demonstrate 3 platforms based on silicon nitride layers processed at 350°C and tailored to have d...
International audienceWe report on the co-integration of an additional passive layer within a Silico...
International audienceWe report on the co-integration of an additional passive layer within a Silico...
[EN] Silicon nitride photonics is on the rise owing to the broadband nature of the material, allowi...
The development of versatile and novel material platforms for integrated photonics is of prime impor...
The development of versatile and novel material platforms for integrated photonics is of prime impor...
We developed a chip-based silicon nitride platform with thick waveguides (> 2 μm) that overcomes the...
We demonstrate devices with enhanced linear and nonlinear functionalities in the near-infrared fabri...
We demonstrate devices with enhanced linear and nonlinear functionalities in the near-infrared fabri...
We demonstrate devices with enhanced linear and nonlinear functionalities in the near-infrared fabri...
Silicon photonics is one of the most prominent technology platforms for integrated photonics and can...
Due to its flexible optical properties silicon nitride is an attractive material for integrated phot...
We demonstrate 3 platforms based on silicon nitride layers processed at 350°C and tailored to have d...
We demonstrate 3 platforms based on silicon nitride layers processed at 350°C and tailored to have d...
Silicon nitride photonics is on the rise owing to the broadband nature of the material, allowing app...
We demonstrate 3 platforms based on silicon nitride layers processed at 350°C and tailored to have d...
International audienceWe report on the co-integration of an additional passive layer within a Silico...
International audienceWe report on the co-integration of an additional passive layer within a Silico...
[EN] Silicon nitride photonics is on the rise owing to the broadband nature of the material, allowi...
The development of versatile and novel material platforms for integrated photonics is of prime impor...
The development of versatile and novel material platforms for integrated photonics is of prime impor...
We developed a chip-based silicon nitride platform with thick waveguides (> 2 μm) that overcomes the...