Commercial-scale biofuel production requires a deep understanding of the structure and dynamics of its principal target: cellulose. However, an accurate description and modeling of this carbohydrate structure at the mesoscale remains elusive, particularly because of its overwhelming length scale and configurational complexity. We have derived a set of MARTINI coarse-grained force field parameters for the simulation of crystalline cellulose fibers. The model is adapted to reproduce different physicochemical and mechanical properties of native cellulose I beta. The model is able not only to handle a transition from cellulose I beta to another cellulose allomorph, cellulose IIII, but also to capture the physical response to temperature and mec...
We have carried out atomistic molecular dynamics simulations to study the mechanical properties of c...
The Martini 3 force field is a full reparametrization of the Martini coarse-grained model for biomol...
Atomistic modelling of cellulose has widely been investigated for years using molecular dynamics sim...
Commercial-scale biofuel production requires a deep understanding of the structure and dynamics of i...
High resolution data from all-atom molecular simulations is used to parameterize a Martini 3 coarse-...
Cellulose being the most widely available biopolymer on Earth is attracting significant interest fro...
The structural changes of cellulose in non-solvent liquid media can provide insights into the high-v...
We have developed a coarse-grained molecular model to investigate carbohydrates-solvent interactions...
Nature has created efficient strategies to make materials with hierarchical internal structure that ...
Understanding biomass structure and dynamics on multiple time and length scales is important for the...
The calculations presented here, which include dynamics simulations using molecular mechanics force ...
Cellulose constitutes the most abundant renewable polymeric resource available today. It considered ...
The structural and physical properties of four types of crystalline cellulose (Iα, Iβ, II and IIII),...
Cellulose is the most common biopolymer and widely used in our daily life. Due to its unique propert...
Cellulose, the major component of plant matter, has a complex hierarchical structure that extends fr...
We have carried out atomistic molecular dynamics simulations to study the mechanical properties of c...
The Martini 3 force field is a full reparametrization of the Martini coarse-grained model for biomol...
Atomistic modelling of cellulose has widely been investigated for years using molecular dynamics sim...
Commercial-scale biofuel production requires a deep understanding of the structure and dynamics of i...
High resolution data from all-atom molecular simulations is used to parameterize a Martini 3 coarse-...
Cellulose being the most widely available biopolymer on Earth is attracting significant interest fro...
The structural changes of cellulose in non-solvent liquid media can provide insights into the high-v...
We have developed a coarse-grained molecular model to investigate carbohydrates-solvent interactions...
Nature has created efficient strategies to make materials with hierarchical internal structure that ...
Understanding biomass structure and dynamics on multiple time and length scales is important for the...
The calculations presented here, which include dynamics simulations using molecular mechanics force ...
Cellulose constitutes the most abundant renewable polymeric resource available today. It considered ...
The structural and physical properties of four types of crystalline cellulose (Iα, Iβ, II and IIII),...
Cellulose is the most common biopolymer and widely used in our daily life. Due to its unique propert...
Cellulose, the major component of plant matter, has a complex hierarchical structure that extends fr...
We have carried out atomistic molecular dynamics simulations to study the mechanical properties of c...
The Martini 3 force field is a full reparametrization of the Martini coarse-grained model for biomol...
Atomistic modelling of cellulose has widely been investigated for years using molecular dynamics sim...