The properties of DNA make it a useful tool for designing self-assembling nanostructures. Branched junction molecules provide the molecular building blocks for creating target complexes. We model the underlying structure of a DNA complex with a graph and we use tools from linear algebra to optimize the self-assembling process. Some standard classes of graphs have been studied in the context of DNA self-assembly, but there are many open questions about other families of graphs. In this work, we study the rook\u27s graph and its related design strategies
DNA tile self-assembly has been proved to enable programmable manipulation of biological systems as ...
Bottom-up fabrication of nanoscale structures relies on chemical processes to direct self-assembly. ...
In this paper we report the design and synthesis of DNA molecules (referred to as DNA tiles) with ...
Self-assembly is the process of a collection of components combining to form an organized structure ...
Motivated by the recent advancements in nanotechnology and the discovery of new laboratory technique...
Application of graph theory to the well-known complementary properties of DNA strands has resulted i...
A number of exciting new laboratory techniques have been developed using the Watson-Crick complement...
DNA sequences can be analyzed using graph theory to improve efficiency in new fields such as biotech...
Laboratory techniques have been developed using the Watson- Crick complementary properties of DNA st...
Emerging laboratory techniques have been developed using the Watson-Crick complementarity properties...
A design goal in self-assembly of DNA nanostructures is to find minimal sets of branched junction mo...
We analyze a self-assembly model of flexible DNA tiles and develop a theoretical description of poss...
Algorithms and information, fundamental to technological and biological organization, are also an es...
This project deals with the graph theory topic of taking apart graphs and reassembling them. A graph...
Deoxyribonucleic acids (DNA), Ribonucleic acids (RNA) and Proteins are the computational devices of ...
DNA tile self-assembly has been proved to enable programmable manipulation of biological systems as ...
Bottom-up fabrication of nanoscale structures relies on chemical processes to direct self-assembly. ...
In this paper we report the design and synthesis of DNA molecules (referred to as DNA tiles) with ...
Self-assembly is the process of a collection of components combining to form an organized structure ...
Motivated by the recent advancements in nanotechnology and the discovery of new laboratory technique...
Application of graph theory to the well-known complementary properties of DNA strands has resulted i...
A number of exciting new laboratory techniques have been developed using the Watson-Crick complement...
DNA sequences can be analyzed using graph theory to improve efficiency in new fields such as biotech...
Laboratory techniques have been developed using the Watson- Crick complementary properties of DNA st...
Emerging laboratory techniques have been developed using the Watson-Crick complementarity properties...
A design goal in self-assembly of DNA nanostructures is to find minimal sets of branched junction mo...
We analyze a self-assembly model of flexible DNA tiles and develop a theoretical description of poss...
Algorithms and information, fundamental to technological and biological organization, are also an es...
This project deals with the graph theory topic of taking apart graphs and reassembling them. A graph...
Deoxyribonucleic acids (DNA), Ribonucleic acids (RNA) and Proteins are the computational devices of ...
DNA tile self-assembly has been proved to enable programmable manipulation of biological systems as ...
Bottom-up fabrication of nanoscale structures relies on chemical processes to direct self-assembly. ...
In this paper we report the design and synthesis of DNA molecules (referred to as DNA tiles) with ...