Background X-ray scattering is a well-established method for measuring cellulose microfibril angles in secondary cell walls. However, little data is available on the much thinner primary cell walls. Here, we show that microfibril orientation distributions can be determined by small angle X-ray scattering (SAXS) even in primary cell walls. The technique offers a number of advantages: samples can be analyzed in the native hydrated state without any preparation which minimizes the risk of artifacts and allows for fast data acquisition. The method provides data averaged over a specimen region, determined by the size of the used X-ray beam and, thus, yields the microfibril orientation distribution within this region. Results Cellulose micro...
In the primary walls of growing plant cells, the glucose polymer cellulose is assembled into long mi...
Abstract Background Biological...
X-ray scattering provides powerful tools to study the nanoscale structure of cellulosic materials. S...
The spiral angle of the elementary cellulose fibril in the wood cell wall, often called microfibril ...
The term microfibril angle, MFA in wood science refers to the angle between the direction of the hel...
Celery collenchyma cell walls are typical of primary plant cell walls in their composition but conta...
Plant cell walls present an extremely complex structure of hierarchically assembled cellulose microf...
Cellulose microfibrils are crucial for many of the remarkable mechanical properties of primary cell ...
Cellulose, the most abundant biopolymer on earth, is a versatile, energy rich material found in the ...
Plant cell walls are the most important source of the polymer cellulose. The cell wall contains cry...
Cellulose isolated from celery collenchyma is typical of the low-crystallinity celluloses that can b...
The organisation of poly-glucan chains into cellulose macromolecular microfibrils has been studied u...
X-ray scattering methods allow efficient characterization of cellulosic materials, but interpreting ...
Background: Cellulose from grasses and cereals makes up much of the potential raw material for biofu...
BACKGROUND: Cellulose from grasses and cereals makes up much of the potential raw material for biofu...
In the primary walls of growing plant cells, the glucose polymer cellulose is assembled into long mi...
Abstract Background Biological...
X-ray scattering provides powerful tools to study the nanoscale structure of cellulosic materials. S...
The spiral angle of the elementary cellulose fibril in the wood cell wall, often called microfibril ...
The term microfibril angle, MFA in wood science refers to the angle between the direction of the hel...
Celery collenchyma cell walls are typical of primary plant cell walls in their composition but conta...
Plant cell walls present an extremely complex structure of hierarchically assembled cellulose microf...
Cellulose microfibrils are crucial for many of the remarkable mechanical properties of primary cell ...
Cellulose, the most abundant biopolymer on earth, is a versatile, energy rich material found in the ...
Plant cell walls are the most important source of the polymer cellulose. The cell wall contains cry...
Cellulose isolated from celery collenchyma is typical of the low-crystallinity celluloses that can b...
The organisation of poly-glucan chains into cellulose macromolecular microfibrils has been studied u...
X-ray scattering methods allow efficient characterization of cellulosic materials, but interpreting ...
Background: Cellulose from grasses and cereals makes up much of the potential raw material for biofu...
BACKGROUND: Cellulose from grasses and cereals makes up much of the potential raw material for biofu...
In the primary walls of growing plant cells, the glucose polymer cellulose is assembled into long mi...
Abstract Background Biological...
X-ray scattering provides powerful tools to study the nanoscale structure of cellulosic materials. S...