A new class of drugs that combine artificial DNA structures with antibodies could make immunotherapies even more targeted—all you have to do is fold over and over again. In a study published Aug. 17 ...
DNA origami and beyond. A) DNA octahedron that inspired development of DNA origami. B) 2D DNA origami (smiley face serves as an example). C) Hollow 3D DNA origami shapes that are folded from 2D ...
Researchers bolster antitumor immune defenses using cancer vaccines made from DNA origami. “One of the attractive things about DNA origami is how relatively simple it is for anybody to design,” Shih ...
Researchers at the Karolinska Institute have used DNA origami to demonstrate how an important cell receptor can be activated in a previously unknown way. The new study provides insight into how the ...
DNA origami cages constrain individual proteins toward preferred orientations on electrodes, dramatically improving electrical measurement precision and enabling detection of subtle structural changes ...
DNA origami, a fascinating technology that uses algorithms to design self-assembling 2- and 3D nanostructures using DNA helices, has added a new member to its growing catalog: multilayered ...
A shell made of short rods of DNA protects living cells from external forces while allowing them to interact with each other 1. Cells are surrounded by a protective membrane of proteins and fatty ...
Researchers introduce a pioneering breakthrough in the world of nanomotors -- the DNA origami nanoturbine. This nanoscale device could represent a paradigm shift, harnessing power from ion gradients ...
Scientists have created a working nanoscale electomotor. The science team designed a turbine engineered from DNA that is powered by hydrodynamic flow inside a nanopore, a nanometer-sized hole in a ...
Origami — the art of making various shapes from a single piece of paper — has been realized at the nanoscale using DNA. Sheets of ‘DNA wireframe paper’ have been developed that, through folding along ...
To assemble these minuscule structures, researchers first create a scaffold: a long piece of single-stranded DNA with a carefully designed sequence of bases. Then they add hundreds of shorter DNA ...