Molecular-scale interactions between water and cellulose microfibril bundles in plant cell walls are not fully understood, despite their crucial role for many applications of plant biomass. Recent advances in X-ray and neutron scattering analysis allow more accurate interpretation of experimental data from wood cell walls. At the same time, microfibril bundles including hemicelluloses and water can be modelled at atomistic resolution. Computing scattering patterns from atomistic models enables a new, complementary approach to decipher some of the most fundamental questions at this level of the hierarchical cell wall structure. This article introduces studies related to moisture behavior of wood with small/wide-angle X-ray/neutron scattering...
X-ray scattering provides powerful tools to study the nanoscale structure of cellulosic materials. S...
International audienceThis paper aims at providing a methodological framework for investigating wood...
Water is one of the principal constituents by mass of living plant cell walls. However, its role and...
Molecular-scale interactions between water and cellulose microfibril bundles in plant cell walls are...
Wood and other cellulosic materials are highly sensitive to moisture, which affects their use in man...
Small-angle scattering methods allow an efficient characterization of the hierarchical structure of ...
Wood and other cellulosic materials are highly sensitive to changes in moisture content, which affec...
Understanding nanoscale moisture interactions is fundamental to most applications of wood, including...
Abstract: Structural changes of cellulose microfibrils and microfibril bundles in unmodified spruce ...
Wood and other plant-based resources provide abundant, renewable raw materials for a variety of appl...
X-ray scattering methods allow efficient characterization of cellulosic materials, but interpreting ...
Plant cell walls present an extremely complex structure of hierarchically assembled cellulose microf...
Efficient deconstruction of lignocelluosic biomass into fermentable sugar depends largely on the dev...
Funding Information: This work was funded by Academy of Finland (Grant No. 315768). Institut Laue-La...
X-ray scattering provides powerful tools to study the nanoscale structure of cellulosic materials. S...
International audienceThis paper aims at providing a methodological framework for investigating wood...
Water is one of the principal constituents by mass of living plant cell walls. However, its role and...
Molecular-scale interactions between water and cellulose microfibril bundles in plant cell walls are...
Wood and other cellulosic materials are highly sensitive to moisture, which affects their use in man...
Small-angle scattering methods allow an efficient characterization of the hierarchical structure of ...
Wood and other cellulosic materials are highly sensitive to changes in moisture content, which affec...
Understanding nanoscale moisture interactions is fundamental to most applications of wood, including...
Abstract: Structural changes of cellulose microfibrils and microfibril bundles in unmodified spruce ...
Wood and other plant-based resources provide abundant, renewable raw materials for a variety of appl...
X-ray scattering methods allow efficient characterization of cellulosic materials, but interpreting ...
Plant cell walls present an extremely complex structure of hierarchically assembled cellulose microf...
Efficient deconstruction of lignocelluosic biomass into fermentable sugar depends largely on the dev...
Funding Information: This work was funded by Academy of Finland (Grant No. 315768). Institut Laue-La...
X-ray scattering provides powerful tools to study the nanoscale structure of cellulosic materials. S...
International audienceThis paper aims at providing a methodological framework for investigating wood...
Water is one of the principal constituents by mass of living plant cell walls. However, its role and...