Traditional thermoset materials have favorable material properties but are unable to reprocess and are difficult to recycle. Small molecule boroxines have been shown to undergo a reversible exchange reaction. Herein we employ boroxine as dynamic cross-links to construct a novel type of thermoset material that is strong, highly malleable, and recyclable. The synthesis and dynamic mechanical properties of boroxine networks are described. Upon heating in water the material can be recycled back to its monomer. With a multitude of tunable variables, we anticipate this system to be a platform for the development of a range of new dynamic materials
In our modern life, thermosetting polymers can be found everywhere, from tableware to building mater...
Rubbers are usually cross-linked through static covalent bonds. Consequently, they cannot be reshape...
As dynamic cross-linking networks are intrinsically weaker than permanent covalent networks, it is a...
The fabrication of mechanically robust polymeric materials capable of self-healing and recycling rem...
Despite offering robust mechanical properties, polymer networks suffer from a lack of recyclability,...
Despite offering robust mechanical properties, polymer networks suffer from a lack of recyclability,...
With growing interest in recyclable polymer materials, due to environmental concerns, attention has ...
The outstanding performance of conventional thermosets arising from their covalently cross-linked ne...
A sustainable biobased thermoset exhibiting shape-memory behavior and modular recycling capabilities...
B–O bonds are effective for constructing self-healing polymers, because of their unique combination ...
Nitrogen-based thermoset polymers have many industrial applications (for example, in composites), bu...
The pursuit of dynamic molecular interactions to control macroscopic properties of polymers represen...
Despite numerous strategies involving dynamic covalent bond exchange for dynamic and self-healing ma...
Conventional thermosets are built by nonrenewable fossil resources and are arduous to be reprocessed...
It has been a long-standing goal to develop self-healable polyurethane elastomers with desirable mec...
In our modern life, thermosetting polymers can be found everywhere, from tableware to building mater...
Rubbers are usually cross-linked through static covalent bonds. Consequently, they cannot be reshape...
As dynamic cross-linking networks are intrinsically weaker than permanent covalent networks, it is a...
The fabrication of mechanically robust polymeric materials capable of self-healing and recycling rem...
Despite offering robust mechanical properties, polymer networks suffer from a lack of recyclability,...
Despite offering robust mechanical properties, polymer networks suffer from a lack of recyclability,...
With growing interest in recyclable polymer materials, due to environmental concerns, attention has ...
The outstanding performance of conventional thermosets arising from their covalently cross-linked ne...
A sustainable biobased thermoset exhibiting shape-memory behavior and modular recycling capabilities...
B–O bonds are effective for constructing self-healing polymers, because of their unique combination ...
Nitrogen-based thermoset polymers have many industrial applications (for example, in composites), bu...
The pursuit of dynamic molecular interactions to control macroscopic properties of polymers represen...
Despite numerous strategies involving dynamic covalent bond exchange for dynamic and self-healing ma...
Conventional thermosets are built by nonrenewable fossil resources and are arduous to be reprocessed...
It has been a long-standing goal to develop self-healable polyurethane elastomers with desirable mec...
In our modern life, thermosetting polymers can be found everywhere, from tableware to building mater...
Rubbers are usually cross-linked through static covalent bonds. Consequently, they cannot be reshape...
As dynamic cross-linking networks are intrinsically weaker than permanent covalent networks, it is a...