Thiolactone chemistry is a powerful tool for the design of complex multifunctional architectures. In this study, this versatile click-inspired synthetic strategy is conducted to prepare multifunctional dendrimer-like structures. For this purpose, a thiolactone bearing an isocyanate function, prepared in multigram scale, is utilized for multiple step functionalization starting from a 4-arm star-shaped poly(ethylene glycol). Amine-thiol-acrylate conjugation is carried out in order to form the aforementioned structures. The efficient aminolysis of the thiolactone ring and the reaction of the generated thiol with the double bond of an acrylate derivative are completed in a one-pot procedure. The choice of the amine and/or acrylate derivatives c...
Most classical dendrimers are frequently built-up from identical repeating units of low valency (usu...
Synthesis of dendrimers has been directed toward process efficiency and structural diversity. We rep...
Advancements in the biomedical field are driven by the design of novel materials with controlled phy...
Thiolactone chemistry is a powerful tool for the design of complex multifunctional architectures. In...
Thiolactone chemistry is a powerful tool for the design of complex multifunctional architectures. In...
ABSTRACT: By taking advantage of the orthogonal nature of thiol-ene coupling and anhydride based est...
A kinetically selective thiol–Michael addition “click” reaction was employed for facile and efficien...
AbstractOne-pot multi-step reactions based on thiolactone chemistry emerged as a powerful tool to pr...
A conceptual proof for the double modification (aminolysis and subsequent thiol-click modification) ...
The continued success of dendrimers1,2 in applications ranging from medicine to nanoengineering3,4 i...
Thiolactone chemistry has garnered significant attention as a powerful post-polymerization modificat...
The in situ generation of thiols by nucleophilic ring-opening of a thiolactone with amines, followed...
One-pot multistep reactions based on thiolactone chemistry have emerged as a powerful tool for modif...
We report the formation of dynamic, reversible cross-linked dendritic megamers and their dissociatio...
We report the formation of dynamic, reversible cross-linked dendritic megamers and their dissociatio...
Most classical dendrimers are frequently built-up from identical repeating units of low valency (usu...
Synthesis of dendrimers has been directed toward process efficiency and structural diversity. We rep...
Advancements in the biomedical field are driven by the design of novel materials with controlled phy...
Thiolactone chemistry is a powerful tool for the design of complex multifunctional architectures. In...
Thiolactone chemistry is a powerful tool for the design of complex multifunctional architectures. In...
ABSTRACT: By taking advantage of the orthogonal nature of thiol-ene coupling and anhydride based est...
A kinetically selective thiol–Michael addition “click” reaction was employed for facile and efficien...
AbstractOne-pot multi-step reactions based on thiolactone chemistry emerged as a powerful tool to pr...
A conceptual proof for the double modification (aminolysis and subsequent thiol-click modification) ...
The continued success of dendrimers1,2 in applications ranging from medicine to nanoengineering3,4 i...
Thiolactone chemistry has garnered significant attention as a powerful post-polymerization modificat...
The in situ generation of thiols by nucleophilic ring-opening of a thiolactone with amines, followed...
One-pot multistep reactions based on thiolactone chemistry have emerged as a powerful tool for modif...
We report the formation of dynamic, reversible cross-linked dendritic megamers and their dissociatio...
We report the formation of dynamic, reversible cross-linked dendritic megamers and their dissociatio...
Most classical dendrimers are frequently built-up from identical repeating units of low valency (usu...
Synthesis of dendrimers has been directed toward process efficiency and structural diversity. We rep...
Advancements in the biomedical field are driven by the design of novel materials with controlled phy...