In this paper, we introduce autonomous gel actuators driven by chemical energy. The polymer gels prepared here have cyclic chemical reaction networks. With a cyclic reaction, the polymer gels generate periodical motion. The periodic motion of the gel is produced by the chemical energy of the oscillatory Belouzov-Zhabotinsky (BZ) reaction. We have succeeded in making synthetic polymer gel move autonomously like a living organism. This experimental fact represents the great possibility of the chemical robot
Species ranging from single-cell organisms to social insects can undergo auto-chemotaxis, where the ...
Materials that can mimic biological behavior by converting chemical energy to mechanical work under ...
Using computational modeling, we show that self-oscillating Belousov–Zhabotinsky (BZ) gels can both ...
The previously reported gel and polymer actuators require external inputs, such as batteries, circui...
As a novel biomimetic polymer, we have developed polymer gels with an autonomous self-oscillating fu...
Stimuli-responsive gels are vital components in the next generation of smart devices, which can sens...
Species ranging from single-cell organisms to social insects can undergo auto-chemotaxis, where the ...
Many kinds of stimuli-responsive polymer and gels have been developed and applied to biomimetic actu...
In this thesis, the topics around stimuli-responsive hydrogel actuators were discussed. In each proj...
Species ranging from single-cell organisms to social insects can undergo auto-chemotaxis, where the ...
Species ranging from single-cell organisms to social insects can undergo auto-chemotaxis, where the ...
Responsive hydrogels are a type of soft material made up of lightly cross-linked polymers that are h...
Use of chemo-mechanical transduction to produce locomotion is one of the significant characteristics...
Responsive hydrogels are a type of soft material made up of lightly cross-linked polymers that are h...
In the biological realm, light can act as a powerful stimulus, promoting both positive and negative ...
Species ranging from single-cell organisms to social insects can undergo auto-chemotaxis, where the ...
Materials that can mimic biological behavior by converting chemical energy to mechanical work under ...
Using computational modeling, we show that self-oscillating Belousov–Zhabotinsky (BZ) gels can both ...
The previously reported gel and polymer actuators require external inputs, such as batteries, circui...
As a novel biomimetic polymer, we have developed polymer gels with an autonomous self-oscillating fu...
Stimuli-responsive gels are vital components in the next generation of smart devices, which can sens...
Species ranging from single-cell organisms to social insects can undergo auto-chemotaxis, where the ...
Many kinds of stimuli-responsive polymer and gels have been developed and applied to biomimetic actu...
In this thesis, the topics around stimuli-responsive hydrogel actuators were discussed. In each proj...
Species ranging from single-cell organisms to social insects can undergo auto-chemotaxis, where the ...
Species ranging from single-cell organisms to social insects can undergo auto-chemotaxis, where the ...
Responsive hydrogels are a type of soft material made up of lightly cross-linked polymers that are h...
Use of chemo-mechanical transduction to produce locomotion is one of the significant characteristics...
Responsive hydrogels are a type of soft material made up of lightly cross-linked polymers that are h...
In the biological realm, light can act as a powerful stimulus, promoting both positive and negative ...
Species ranging from single-cell organisms to social insects can undergo auto-chemotaxis, where the ...
Materials that can mimic biological behavior by converting chemical energy to mechanical work under ...
Using computational modeling, we show that self-oscillating Belousov–Zhabotinsky (BZ) gels can both ...