A temperature-independent refractometer by using a tapered photonic crystal fiber (PCF) based Mach–Zehnder interferometer (MZI) is proposed and experimentally demonstrated. It is fabricated by sandwiching a tapered PCF of 29 mm long between two standard single mode fibers (SMFs) with the fully collapsed air holes of the PCF in the fusion splicing region. It has been found that tapering the PCF greatly enhances the sensitivity of the refractometer. A maximum sensitivity of 1529 nm/RIU (refractive index unit) is achieved within the range from 1.3355 to 1.413. The refractometer is nearly temperature-insensitive due to the ultra low temperature dependence of the used
In this Final Year Project, the thermo-properties of PCF was changed by using non-selective infiltra...
In this Final Year Project, the thermo-properties of PCF was changed by using non-selective infiltra...
A temperature-insensitive fiber refractometer, which consists of a simple single-mode–multimode–sing...
A temperature-independent refractometer by using a tapered photonic crystal fiber (PCF) based Mach–Z...
An in-line photonic crystal fibre-based Mach-Zehnder interferometer (PCF-MZI) with temperature compe...
Abstract A high sensitive refractive index sensor based on the cladding etched photonic crystal fibe...
373-378In present study a multi-mode fiber (MMF) stubbed tapered photonic crystal fiber (PCF) has be...
A compact singlemode - photonic crystal fibre - singlemode fibre tip (SPST) refractive index sensor ...
Based on the intermittent cooling method, a fused tapered Photonic Crystal Fiber (PCF) interferomete...
A miniature refractometer by using a Mach–Zehnder interferometer (MZI) in a standard single mode fib...
A taper-based Mach-Zehnder interferometer (MZI) embedded in a thinned optical fiber is demonstrated ...
A compact singlemode - photonic crystal fibre - singlemode fibre tip (SPST) refractive index sensor ...
In this paper we present an interferometer based on photonic crystal fiber (PCF) tip ended with a so...
A compact singlemode - photonic crystal fibre - singlemode fibre tip (SPST) refractive index sensor ...
Abstract — We fabricate a miniature ultra-sensitive refractive index sensor based on a tapered photo...
In this Final Year Project, the thermo-properties of PCF was changed by using non-selective infiltra...
In this Final Year Project, the thermo-properties of PCF was changed by using non-selective infiltra...
A temperature-insensitive fiber refractometer, which consists of a simple single-mode–multimode–sing...
A temperature-independent refractometer by using a tapered photonic crystal fiber (PCF) based Mach–Z...
An in-line photonic crystal fibre-based Mach-Zehnder interferometer (PCF-MZI) with temperature compe...
Abstract A high sensitive refractive index sensor based on the cladding etched photonic crystal fibe...
373-378In present study a multi-mode fiber (MMF) stubbed tapered photonic crystal fiber (PCF) has be...
A compact singlemode - photonic crystal fibre - singlemode fibre tip (SPST) refractive index sensor ...
Based on the intermittent cooling method, a fused tapered Photonic Crystal Fiber (PCF) interferomete...
A miniature refractometer by using a Mach–Zehnder interferometer (MZI) in a standard single mode fib...
A taper-based Mach-Zehnder interferometer (MZI) embedded in a thinned optical fiber is demonstrated ...
A compact singlemode - photonic crystal fibre - singlemode fibre tip (SPST) refractive index sensor ...
In this paper we present an interferometer based on photonic crystal fiber (PCF) tip ended with a so...
A compact singlemode - photonic crystal fibre - singlemode fibre tip (SPST) refractive index sensor ...
Abstract — We fabricate a miniature ultra-sensitive refractive index sensor based on a tapered photo...
In this Final Year Project, the thermo-properties of PCF was changed by using non-selective infiltra...
In this Final Year Project, the thermo-properties of PCF was changed by using non-selective infiltra...
A temperature-insensitive fiber refractometer, which consists of a simple single-mode–multimode–sing...