In this paper we demonstrate the application of two microscopic imaging techniques, Raman Fluorescence Intensity Confocal Optical Microscopy and Nano-Secondary Ion Mass Spectroscopy (NanoSIMS), to the determination of the relative erbium ion distribution in optical fibers. We also employ Quantitative Phase Microscopy (QPM) for the acquisition of the refractive index profile of one of the investigated samples. As well as being able to acquire two dimensional profiles of the relative erbium ion distribution, these methods can also provide valuable information on a submicron level regarding physical and optogeometric parameters of the examined samples
The properties of glass optical fibres are very strongly dependent on the elemental concentration pr...
A systematic and straightforward image processing method to extract quantitative phase and refractiv...
Phase-sensitive imaging measurements of optical fibres using quantitative phase microscopy (QPM) are...
In this paper we demonstrate the application of two microscopic imaging techniques, Raman Fluorescen...
We demonstrate the application of a Fluorescence Intensity Confocal Optical Microscopy technique to ...
Dopant profiles in erbium doped optical fibres acquired by the application of fluorescence intensity...
Accurate determination of the rare earth dopant distribution in optical fibers enhances our understa...
Accurate determination of the rare earth dopant distribution in optical fibers enhances our understa...
A micro-fluorescence technique for profiling the spatial distribution of erbium ions doped into opti...
This thesis presents a method for accurate characterisation of optical fibres using highspatial reso...
The relative distribution of five elements present in the core area of several optical fiber samples...
We present a non-destructive optical technique, based on luminescence spectroscopy measurements and ...
Contrast phase imaging at infrared wavelengths is achieved through an extrinsic Fabry-Perot cavity i...
In a previous work it has been demonstrated that micro-Raman spectroscopy is a technique able to rec...
We describe a non-destructive and accurate fibre refractive index profiling method with high spatial...
The properties of glass optical fibres are very strongly dependent on the elemental concentration pr...
A systematic and straightforward image processing method to extract quantitative phase and refractiv...
Phase-sensitive imaging measurements of optical fibres using quantitative phase microscopy (QPM) are...
In this paper we demonstrate the application of two microscopic imaging techniques, Raman Fluorescen...
We demonstrate the application of a Fluorescence Intensity Confocal Optical Microscopy technique to ...
Dopant profiles in erbium doped optical fibres acquired by the application of fluorescence intensity...
Accurate determination of the rare earth dopant distribution in optical fibers enhances our understa...
Accurate determination of the rare earth dopant distribution in optical fibers enhances our understa...
A micro-fluorescence technique for profiling the spatial distribution of erbium ions doped into opti...
This thesis presents a method for accurate characterisation of optical fibres using highspatial reso...
The relative distribution of five elements present in the core area of several optical fiber samples...
We present a non-destructive optical technique, based on luminescence spectroscopy measurements and ...
Contrast phase imaging at infrared wavelengths is achieved through an extrinsic Fabry-Perot cavity i...
In a previous work it has been demonstrated that micro-Raman spectroscopy is a technique able to rec...
We describe a non-destructive and accurate fibre refractive index profiling method with high spatial...
The properties of glass optical fibres are very strongly dependent on the elemental concentration pr...
A systematic and straightforward image processing method to extract quantitative phase and refractiv...
Phase-sensitive imaging measurements of optical fibres using quantitative phase microscopy (QPM) are...