Underwater adhesion is a challenging task for most synthetic adhesives. Efforts to overcome this challenge have largely focused on modifying natural molecules produced by marine organisms such as mussels, sandcastle worms, barnacles, and sea urchins.[1–4] In particular, the adhesive 3,4-dihydroxy-l- phenylalanine (DOPA) residue found in proteins secreted by mussels has been a popular inspiration for several synthetic underwater adhesives.[5–7] Although such biomimetic approaches can be powerful, synthetic materials that are able to achieve a similar function using orthogonal methods could be valuable alternatives. For example, most DOPA- based adhesives require curing agents that irreversibly cross- link the residues to the surfaces.[8, 9] ...
An estimated 20 million tons of adhesives are used globally each year, and the amount is continually...
When it comes to underwater adhesion, shellfish are the true experts. Mussels, barnacles, and oyster...
Using a surface forces apparatus and an atomic force microscope, we characterized the adhesive prope...
Among the hundreds of commercial adhesives available today, few, if any, have the ability to form st...
Nature has developed protein‐based adhesives whose underwater performance has attracted much researc...
Marine biology is continually producing materials with properties unmatched by human technology. The...
Many marine organisms harness diverse protein molecules as underwater adhesives to achieve strong an...
Marine organisms, such as mussels, are giving inspiration to a new generation of adhesive materials....
Marine mussels secrete remarkable underwater adhesives that allow these organisms to anchor to surfa...
Nature has evolved several molecular strategies to ensure adhesion in aqueous environments, where ar...
none4noThe ability of mussels to adhere to underwater surfaces has attracted a lot of attention from...
When it comes to underwater adhesion, shellfish are the true experts. Mussels, barnacles, and oyster...
Production of novel protein-based materials has become a widespread and valuable field of research w...
Mussels strongly adhere to a variety of surfaces by secreting byssal threads that contain mussel foo...
Marine mussel adhesion is a system that has been of interest in the field of biomimetics due to rema...
An estimated 20 million tons of adhesives are used globally each year, and the amount is continually...
When it comes to underwater adhesion, shellfish are the true experts. Mussels, barnacles, and oyster...
Using a surface forces apparatus and an atomic force microscope, we characterized the adhesive prope...
Among the hundreds of commercial adhesives available today, few, if any, have the ability to form st...
Nature has developed protein‐based adhesives whose underwater performance has attracted much researc...
Marine biology is continually producing materials with properties unmatched by human technology. The...
Many marine organisms harness diverse protein molecules as underwater adhesives to achieve strong an...
Marine organisms, such as mussels, are giving inspiration to a new generation of adhesive materials....
Marine mussels secrete remarkable underwater adhesives that allow these organisms to anchor to surfa...
Nature has evolved several molecular strategies to ensure adhesion in aqueous environments, where ar...
none4noThe ability of mussels to adhere to underwater surfaces has attracted a lot of attention from...
When it comes to underwater adhesion, shellfish are the true experts. Mussels, barnacles, and oyster...
Production of novel protein-based materials has become a widespread and valuable field of research w...
Mussels strongly adhere to a variety of surfaces by secreting byssal threads that contain mussel foo...
Marine mussel adhesion is a system that has been of interest in the field of biomimetics due to rema...
An estimated 20 million tons of adhesives are used globally each year, and the amount is continually...
When it comes to underwater adhesion, shellfish are the true experts. Mussels, barnacles, and oyster...
Using a surface forces apparatus and an atomic force microscope, we characterized the adhesive prope...