Abstract: This disclosure provides methods for generating super-resolution patterns of molecules on substrates. In one aspect, disclosed herein is a method comprising contacting a plurality of transiently binding nucleic acid probes to their respective targets wherein the targets are immobilized on a substrate, detecting a binding event in a select region or set of select regions within a diffraction limited region of the substrate, and irradiating the diffraction limited region of the substrate, wherein the probes comprise a photocrosslinker. In one embodiment, the photocrosslinker is 3-cyanovinylcarbazole.

Abstract: This disclosure provides methods for generating super-resolution patterns of molecules on substrates. In one aspect, disclosed herein is a method comprising contacting a plurality of transiently binding nucleic acid probes to their respective targets wherein the targets are immobilized on a substrate, detecting a binding event in a select region or set of select regions within a diffraction limited region of the substrate, and irradiating the diffraction limited region of the substrate, wherein the probes comprise a photocrosslinker. In one embodiment, the photocrosslinker is 3-cyanovinylcarbazole.

Abstract: This disclosure provides methods for generating super-resolution patterns of molecules on substrates.

Abstract: The present invention relates to methods for self-assembly of arbitrarily-shaped metal nanostructures using specifically-designed patterns on nucleic acid scaffolds. The methods involve using the nucleic acid scaffolds as templates on which a second material patterned, as seed nuclei. The patterns are then selectively plated with metal using an electro-less plating process to create arbitrarily-shaped metal nanostructures that are not constrained by the structure of the scaffold. The methods herein use controlled-growth processes to actively select the dimensions, positions, and alignments of the patterns to create different arbitrary shapes of metal nanostructures.