e50022, doi:10.3791/50022 (2013). There are numerous techniques such as photolithography, electron-beam lithography and soft-lithography that can be used to precisely pattern two dimensional (2D) structures. These technologies are mature, offer high precision and many of them can be implemented in a high-throughput manner. We leverage the advantages of planar lithography and combine them with self-folding methods1-20 wherein physical forces derived from surface tension or residual stress, are used to curve or fold planar structures into three dimensional (3D) structures. In doing so, we make it possible to mass produce precisely patterned static and reconfigurable particles that are challenging to synthesize. In this paper, we detail visual...
Origami-inspired manufacturing can produce complex structures and machines by folding two-dimensiona...
The ability to manufacture complex functional three-dimensional (3D) structures in small scale enabl...
The creation of functional nanoscale materials with complex 3D structures has been achieved by biolo...
Nature uses various activation mechanisms to program complex transformations in the shape and functi...
This thesis explores by numerical simulations the rational use of patchy particles to control materi...
On the road to the development of new methods to fabricate complex materials, nature has always been...
Self-folding of complex origami-inspired structures from flat states allows for the incorporation of...
Origami is a topic of rapidly growing interest in both the scientific and engineering research commu...
Folding nanopatterned flat sheets into complex 3D structures enables the fabrication of meta-biomate...
Abstract Polymeric particles are important for drug delivery, cell-encapsulation, tissue engineering...
Origami is a traditional Japanese paper folding art that transforms planar patterns to three-dimensi...
Lattice structures are used in the design of metamaterials to achieve unusual physical, mechanical, ...
Nature utilizes self-assembly to create structures at a range of length scales. In addition, a varie...
Self-folding refers to the mechanisms through which a structure can sense the variations in its surr...
Self-folding origami is of great interest in current research on functional materials and structures...
Origami-inspired manufacturing can produce complex structures and machines by folding two-dimensiona...
The ability to manufacture complex functional three-dimensional (3D) structures in small scale enabl...
The creation of functional nanoscale materials with complex 3D structures has been achieved by biolo...
Nature uses various activation mechanisms to program complex transformations in the shape and functi...
This thesis explores by numerical simulations the rational use of patchy particles to control materi...
On the road to the development of new methods to fabricate complex materials, nature has always been...
Self-folding of complex origami-inspired structures from flat states allows for the incorporation of...
Origami is a topic of rapidly growing interest in both the scientific and engineering research commu...
Folding nanopatterned flat sheets into complex 3D structures enables the fabrication of meta-biomate...
Abstract Polymeric particles are important for drug delivery, cell-encapsulation, tissue engineering...
Origami is a traditional Japanese paper folding art that transforms planar patterns to three-dimensi...
Lattice structures are used in the design of metamaterials to achieve unusual physical, mechanical, ...
Nature utilizes self-assembly to create structures at a range of length scales. In addition, a varie...
Self-folding refers to the mechanisms through which a structure can sense the variations in its surr...
Self-folding origami is of great interest in current research on functional materials and structures...
Origami-inspired manufacturing can produce complex structures and machines by folding two-dimensiona...
The ability to manufacture complex functional three-dimensional (3D) structures in small scale enabl...
The creation of functional nanoscale materials with complex 3D structures has been achieved by biolo...