A dense hydrogen‐bond network is responsible for the mechanical and structural properties of polysaccharides. Random derivatization alters the properties of the bulk material by disrupting the hydrogen bonds, but obstructs detailed structure–function correlations. We have prepared well‐defined unnatural oligosaccharides including methylated, deoxygenated, deoxyfluorinated, as well as carboxymethylated cellulose and chitin analogues with full control over the degree and pattern of substitution. Molecular dynamics simulations and crystallographic analysis show how distinct hydrogen‐bond modifications drastically affect the solubility, aggregation behavior, and crystallinity of carbohydrate materials. This systematic approach to establishing d...
Carbohydrates are among the most abundant biomolecules on earth and can be found in all living thing...
In this work we present a facile and versatile strategy to prepare new amphiphilic compounds obtaine...
N-glycosylation is one of the most abundant and diverse post-translational modifications of proteins...
A dense hydrogen bond network is responsible for the mechanical and structural properties of polysac...
The monomer sequence dictates the structure and properties of natural polymers. Such a structure pro...
Hierarchical carbohydrate architectures serve multiple roles in nature. Hardly any correlations betw...
AbstractA critical roadblock to the production of biofuels from lignocellulosic biomass is the effic...
It is often assumed that intramolecular hydrogen-bonding (H-bonding) exerts a significant influence ...
Ionic polysaccharides are part of many biological events, but lack structural characterisation due t...
Polysaccharides are Nature’s most abundant biomaterials essential for plant cell wall construction a...
The molecular level description of carbohydrate assemblies is hampered by their structural complexit...
Cellulose and chitin are abundant structural polysaccharides exploited by nature in a large number o...
The conformation of a molecule strongly affects its function, as demonstrated for peptides and nucle...
Cellulose is the most familiar and most abundant strong biopolymer, but the reasons for its outstand...
Cellulose is the most familiar and most abundant strong biopolymer, but the reasons for its outstand...
Carbohydrates are among the most abundant biomolecules on earth and can be found in all living thing...
In this work we present a facile and versatile strategy to prepare new amphiphilic compounds obtaine...
N-glycosylation is one of the most abundant and diverse post-translational modifications of proteins...
A dense hydrogen bond network is responsible for the mechanical and structural properties of polysac...
The monomer sequence dictates the structure and properties of natural polymers. Such a structure pro...
Hierarchical carbohydrate architectures serve multiple roles in nature. Hardly any correlations betw...
AbstractA critical roadblock to the production of biofuels from lignocellulosic biomass is the effic...
It is often assumed that intramolecular hydrogen-bonding (H-bonding) exerts a significant influence ...
Ionic polysaccharides are part of many biological events, but lack structural characterisation due t...
Polysaccharides are Nature’s most abundant biomaterials essential for plant cell wall construction a...
The molecular level description of carbohydrate assemblies is hampered by their structural complexit...
Cellulose and chitin are abundant structural polysaccharides exploited by nature in a large number o...
The conformation of a molecule strongly affects its function, as demonstrated for peptides and nucle...
Cellulose is the most familiar and most abundant strong biopolymer, but the reasons for its outstand...
Cellulose is the most familiar and most abundant strong biopolymer, but the reasons for its outstand...
Carbohydrates are among the most abundant biomolecules on earth and can be found in all living thing...
In this work we present a facile and versatile strategy to prepare new amphiphilic compounds obtaine...
N-glycosylation is one of the most abundant and diverse post-translational modifications of proteins...