Biological processes rely on transient interactions that govern assembly of biomolecules into higher order, multi-component systems. A synthetic platform for the dynamic assembly of multicomponent complexes would provide novel entries to study and modulate the assembly of artificial systems into higher order topologies. Here, we establish a hybrid DNA origami-based approach as an assembly platform that enables dynamic templating of supramolecular architectures. It entails the site-selective recruitment of supramolecular polymers to the platform with preservation of the intrinsic dynamics and reversibility of the assembly process. The composition of the supramolecular assembly on the platform can be tuned dynamically, allowing for monomer re...
Nucleic acids have proven to be remarkably versatile as an engineering material for chemical tasks i...
The unique self-recognition properties of oligonucleotides laid the foundation of modern DNA nanotec...
The field of structural DNA nanotechnology utilizes DNA's powerful base-pairing molecular recognitio...
Biological processes rely on transient interactions that govern assembly of biomolecules into higher...
Nature uses dynamic molecular platforms for the recruitment of weakly associating proteins into high...
The rational design of anisotropic interaction patterns is a key step for programming colloid and na...
Unlike supramolecular self-assembly methods that can organize many distinct components into designer...
We present the pH-triggered reversible assembly of DNA origami clusters in a stepwise fashion. The s...
Nature uses non-covalent interactions to achieve structural dynamic reconfiguration of biopolymers. ...
A grand challenge in materials chemistry is the synthesis of macromolecules and polymers with precis...
\u3cp\u3eRecent years have witnessed an increasing interest in hybrid molecular systems in which the...
We present a set of DNA supramolecular architectures based on the polymerization of discrete DNA til...
It is possible to create rigid nanostructures by a careful design of the supramolecular assembly of ...
DNA self‐assembly allows the construction of nanometre‐scale structures and devices. Structures with...
DNA origami represents a class of highly programmable macromolecules. Their moderate mechanical rigi...
Nucleic acids have proven to be remarkably versatile as an engineering material for chemical tasks i...
The unique self-recognition properties of oligonucleotides laid the foundation of modern DNA nanotec...
The field of structural DNA nanotechnology utilizes DNA's powerful base-pairing molecular recognitio...
Biological processes rely on transient interactions that govern assembly of biomolecules into higher...
Nature uses dynamic molecular platforms for the recruitment of weakly associating proteins into high...
The rational design of anisotropic interaction patterns is a key step for programming colloid and na...
Unlike supramolecular self-assembly methods that can organize many distinct components into designer...
We present the pH-triggered reversible assembly of DNA origami clusters in a stepwise fashion. The s...
Nature uses non-covalent interactions to achieve structural dynamic reconfiguration of biopolymers. ...
A grand challenge in materials chemistry is the synthesis of macromolecules and polymers with precis...
\u3cp\u3eRecent years have witnessed an increasing interest in hybrid molecular systems in which the...
We present a set of DNA supramolecular architectures based on the polymerization of discrete DNA til...
It is possible to create rigid nanostructures by a careful design of the supramolecular assembly of ...
DNA self‐assembly allows the construction of nanometre‐scale structures and devices. Structures with...
DNA origami represents a class of highly programmable macromolecules. Their moderate mechanical rigi...
Nucleic acids have proven to be remarkably versatile as an engineering material for chemical tasks i...
The unique self-recognition properties of oligonucleotides laid the foundation of modern DNA nanotec...
The field of structural DNA nanotechnology utilizes DNA's powerful base-pairing molecular recognitio...