We investigate the influence of the substrate on a photonic crystal thermo-optic device on a silicon-on-insulator (SOI) platform. The substrate-induced thermo-optic tuning is obtained as a function of key physical parameters, based on a semi-analytic theory that agrees well with numeric simulations. It is shown that for some devices, the substrate’s contribution to the thermo-optic tuning can exceed 10% for a heater located in the waveguide core and much higher for some other configurations. The slow response of the substrate may also significantly slow down the overall response time of the device. Strategies of minimizing the substrate’s influence are discussed
A survey of the most common silicon-on-insulator (SOI) substrates and waveguide structures, as well ...
The paper presents optical and thermal simulations of two kinds of thermally controlled silicon Phot...
The paper presents optical and thermal simulations of two kinds of thermally controlled silicon Phot...
Silicon photonics is the leading candidate to fulfill the high bandwidth requirement for the future ...
We have experimentally realised a tunable photonic crystal microcavity with in-filling holes in sili...
The effect of thermal tuning on the optical properties of an SOI based suspended waveguide is analys...
A tunable photonic crystal microcavity with in-filling holes has been experimentally realized by usi...
Thermal tuning of hexagonal photonic crystals by absorption of laser energy is examined through fini...
In this work we explore the negative thermo-optic properties of liquid crystal claddings for passive...
Thermal tuning of the transmission of an elastomer infilled photonic crystal cavity is studied. An e...
We analyze and demonstrate the performance of dense dissimilar waveguide routing as a method for inc...
International audienceThis paper presents a detailed analysis of racetrack resonators on silicon on ...
Silicon can be very effectively exploited in integrated optics due to its well-defined process chemi...
We design a resistive heater optimized for efficient and low-loss optical phase modulation in a sili...
The effect of thermal tuning on the optical properties of an SOI based suspended waveguide is analys...
A survey of the most common silicon-on-insulator (SOI) substrates and waveguide structures, as well ...
The paper presents optical and thermal simulations of two kinds of thermally controlled silicon Phot...
The paper presents optical and thermal simulations of two kinds of thermally controlled silicon Phot...
Silicon photonics is the leading candidate to fulfill the high bandwidth requirement for the future ...
We have experimentally realised a tunable photonic crystal microcavity with in-filling holes in sili...
The effect of thermal tuning on the optical properties of an SOI based suspended waveguide is analys...
A tunable photonic crystal microcavity with in-filling holes has been experimentally realized by usi...
Thermal tuning of hexagonal photonic crystals by absorption of laser energy is examined through fini...
In this work we explore the negative thermo-optic properties of liquid crystal claddings for passive...
Thermal tuning of the transmission of an elastomer infilled photonic crystal cavity is studied. An e...
We analyze and demonstrate the performance of dense dissimilar waveguide routing as a method for inc...
International audienceThis paper presents a detailed analysis of racetrack resonators on silicon on ...
Silicon can be very effectively exploited in integrated optics due to its well-defined process chemi...
We design a resistive heater optimized for efficient and low-loss optical phase modulation in a sili...
The effect of thermal tuning on the optical properties of an SOI based suspended waveguide is analys...
A survey of the most common silicon-on-insulator (SOI) substrates and waveguide structures, as well ...
The paper presents optical and thermal simulations of two kinds of thermally controlled silicon Phot...
The paper presents optical and thermal simulations of two kinds of thermally controlled silicon Phot...