Enzymatic formation of supramolecular nanofibers is demonstrated as a novel approach to induce intracellular hydrogelation and control the fate of cells or cellular functions, which can lead to a new paradigm for developing biomaterials to manage cellular artificial nanostructures (CAN), understand cellular functions beyond the molecular level, and create novel therapeutics
By covalently connecting taxol with a motif that is prone to self-assemble, we successfully generate...
Polymer- and/or protein-based nanofibers that promote stable cell adhesion have drawn increasing att...
Enzymes possess unique qualities that make them ideal regulators of supramolecular assembly. They ar...
(Figure Presented) Control from within: Supramolecular hydrogelation to form nanostructures intracel...
Nanofibers are thought to enhance cell adhesion, growth, and function. We demonstrate that the choic...
Like cellular proteins that form fibrillar nanostructures, small hydrogelator molecules self-assembl...
Biocatalytic self-assembly (BSA) has recently emerged as a promising approach for cancer diagnosis a...
Enzyme-catalysis self-assembled oligopeptide hydrogel holds great interest in drug delivery, which h...
Supramolecular polymers self-assemble into nanofibers, micelles, and other nanostructures through we...
Many biomolecules, such as proteins and genes, are presently used as therapeutics. However, their de...
In recently years, scientists have developed various self-assembled nanostructures, ranging from mag...
The development of hydrogels and nanomaterials in recent years has attracted tremendous research int...
Along with continuous research in biotechnology, there is a growing demand for cell culture platform...
Nanofiber scaffold’s ability to foster seemingly nonexistent interface with the cells enables them t...
International audienceNanobiotechnology enables the emergence of entirely new classes of bioactive d...
By covalently connecting taxol with a motif that is prone to self-assemble, we successfully generate...
Polymer- and/or protein-based nanofibers that promote stable cell adhesion have drawn increasing att...
Enzymes possess unique qualities that make them ideal regulators of supramolecular assembly. They ar...
(Figure Presented) Control from within: Supramolecular hydrogelation to form nanostructures intracel...
Nanofibers are thought to enhance cell adhesion, growth, and function. We demonstrate that the choic...
Like cellular proteins that form fibrillar nanostructures, small hydrogelator molecules self-assembl...
Biocatalytic self-assembly (BSA) has recently emerged as a promising approach for cancer diagnosis a...
Enzyme-catalysis self-assembled oligopeptide hydrogel holds great interest in drug delivery, which h...
Supramolecular polymers self-assemble into nanofibers, micelles, and other nanostructures through we...
Many biomolecules, such as proteins and genes, are presently used as therapeutics. However, their de...
In recently years, scientists have developed various self-assembled nanostructures, ranging from mag...
The development of hydrogels and nanomaterials in recent years has attracted tremendous research int...
Along with continuous research in biotechnology, there is a growing demand for cell culture platform...
Nanofiber scaffold’s ability to foster seemingly nonexistent interface with the cells enables them t...
International audienceNanobiotechnology enables the emergence of entirely new classes of bioactive d...
By covalently connecting taxol with a motif that is prone to self-assemble, we successfully generate...
Polymer- and/or protein-based nanofibers that promote stable cell adhesion have drawn increasing att...
Enzymes possess unique qualities that make them ideal regulators of supramolecular assembly. They ar...