Here, a new accurate approach is presented to quantify the degree of crystallinity of regenerated cellulose textile fibers using wide-angle X-ray scattering. The approach is based on the observation that the contributions to the scattering from crystalline and amorphous domains of the fibers can be separated due to their different degree of orientation with respect to the fiber direction. The method is tested on Ioncell-F fibers, dry jet wet spun with different draw ratios from an ionic liquid solution. The analysis output includes, apart from an accurate estimate of the fiber crystallinity, the degrees of orientation of the cellulose nanocrystals and the cellulose chains in the amorphous domains
International audienceSeven varieties of flax (Linum usitatissimum) fibres were analyzed in order to...
Crystallinity and crystallite size determinations have been carried out on a number of samples of sw...
X-ray fiber diffraction is potentially a powerful technique to study the structure of fibrous materi...
Here, a new accurate approach is presented to quantify the degree of crystallinity of regenerated ce...
Regenerated cellulose fibres have had an important role to play in the man-made fibre field. The ver...
This paper presents X-ray diffraction studies on acid-hydrolyzed and ball-milled celluloses which ar...
The average lateral dimensions of cellulose microfibrils in paper sheets can be determined from the ...
The results of three very different studies are presented. X-ray diffraction has been utilized for s...
Four different varieties of cotton fibres have been used for X-ray diffraction study using in-house ...
Although the crystalline nature of cellulose has been one of most studied structural problems in pol...
International audienceThe nanometric internal structure of polymeric fibres is fundamental for their...
Cellulose crystallinity can be described according to the crystal size and the crystallinity index (...
The purpose of this work was to develop analytical techniques for structural characterization of cel...
Microvoids are the principal scattering \ particles\ in dry fibers. The values of the scattering po...
The structure of microcrystalline cellulose (MCC) made by mild acid hydrolysis from cotton linter, f...
International audienceSeven varieties of flax (Linum usitatissimum) fibres were analyzed in order to...
Crystallinity and crystallite size determinations have been carried out on a number of samples of sw...
X-ray fiber diffraction is potentially a powerful technique to study the structure of fibrous materi...
Here, a new accurate approach is presented to quantify the degree of crystallinity of regenerated ce...
Regenerated cellulose fibres have had an important role to play in the man-made fibre field. The ver...
This paper presents X-ray diffraction studies on acid-hydrolyzed and ball-milled celluloses which ar...
The average lateral dimensions of cellulose microfibrils in paper sheets can be determined from the ...
The results of three very different studies are presented. X-ray diffraction has been utilized for s...
Four different varieties of cotton fibres have been used for X-ray diffraction study using in-house ...
Although the crystalline nature of cellulose has been one of most studied structural problems in pol...
International audienceThe nanometric internal structure of polymeric fibres is fundamental for their...
Cellulose crystallinity can be described according to the crystal size and the crystallinity index (...
The purpose of this work was to develop analytical techniques for structural characterization of cel...
Microvoids are the principal scattering \ particles\ in dry fibers. The values of the scattering po...
The structure of microcrystalline cellulose (MCC) made by mild acid hydrolysis from cotton linter, f...
International audienceSeven varieties of flax (Linum usitatissimum) fibres were analyzed in order to...
Crystallinity and crystallite size determinations have been carried out on a number of samples of sw...
X-ray fiber diffraction is potentially a powerful technique to study the structure of fibrous materi...