The need for improved wet adhesives has driven research on mussel-inspired materials incorporating dihydroxyphenylalanine (Dopa) and related analogs of the parent catechol, but practical application of these functionalities is limited by their susceptibility to oxidation. Here, we investigate the molecular-level adhesion of the catechol analogs dihydroxybenzamide (DHB) and hydroxypyridinone (HOPO) as a function of pH. We find that the molecular structure of the catechol analogs influences their susceptibility to oxidation in alkaline conditions, with HOPO emerging as a particularly promising candidate for pH-tolerant adhesives for diverse environmental conditions
The remarkable underwater adhesion strategy employed by mussels has inspired bioadhesives that have ...
Nature often serves as a model system for developing new adhesives. In aqueous environments, mussel-...
Mussel foot proteins (Mfps) contain a large amount of the catecholic amino acid, DOPA, allowing the ...
In physiological fluids and seawater, adhesion of synthetic polymers to solid surfaces is impaired b...
A smart adhesive capable of binding to a wetted surface was prepared by copolymerizing dopamine meth...
Catechol, a major mussel-inspired underwater adhesive moiety, has been used to develop functional ad...
Adhesive hydrogels were prepared by copolymerizing dopamine methacrylamide with either acrylic acid ...
Inspired by mussels and sandcastle worms, a water-soluble adhesive is prepared by grafting catechol ...
A smart adhesive capable of binding to a wetted surface was prepared by copolymerizing dopamine meth...
The adhesion of some marine organisms to almost any kind of surface in wet conditions has aroused in...
Catechol reaction mechanisms form the basis of marine mussel adhesion, allowing for bond formation a...
The robust, versatile attachment of mussels in the intertidal zone has motivated a large effort to c...
Marine organisms such as mussels have mastered the challenges in underwater adhesion by incorporatin...
Marine mussels secrete proteins rich in residues containing catechols and cationic amines that displ...
Nature often serves as a model system for developing new adhesives. In aqueous environments, mussel-...
The remarkable underwater adhesion strategy employed by mussels has inspired bioadhesives that have ...
Nature often serves as a model system for developing new adhesives. In aqueous environments, mussel-...
Mussel foot proteins (Mfps) contain a large amount of the catecholic amino acid, DOPA, allowing the ...
In physiological fluids and seawater, adhesion of synthetic polymers to solid surfaces is impaired b...
A smart adhesive capable of binding to a wetted surface was prepared by copolymerizing dopamine meth...
Catechol, a major mussel-inspired underwater adhesive moiety, has been used to develop functional ad...
Adhesive hydrogels were prepared by copolymerizing dopamine methacrylamide with either acrylic acid ...
Inspired by mussels and sandcastle worms, a water-soluble adhesive is prepared by grafting catechol ...
A smart adhesive capable of binding to a wetted surface was prepared by copolymerizing dopamine meth...
The adhesion of some marine organisms to almost any kind of surface in wet conditions has aroused in...
Catechol reaction mechanisms form the basis of marine mussel adhesion, allowing for bond formation a...
The robust, versatile attachment of mussels in the intertidal zone has motivated a large effort to c...
Marine organisms such as mussels have mastered the challenges in underwater adhesion by incorporatin...
Marine mussels secrete proteins rich in residues containing catechols and cationic amines that displ...
Nature often serves as a model system for developing new adhesives. In aqueous environments, mussel-...
The remarkable underwater adhesion strategy employed by mussels has inspired bioadhesives that have ...
Nature often serves as a model system for developing new adhesives. In aqueous environments, mussel-...
Mussel foot proteins (Mfps) contain a large amount of the catecholic amino acid, DOPA, allowing the ...