Abstract:
A method for manufacturing a nano pattern writer includes forming one or more grooves on a first layer, depositing a substance on the first layer to form a film on the first layer, polishing the film on the first layer to thereby form a patterned film that fills the one or more grooves on the first layer, placing a second layer over the patterned film to thereby form a layered structure interposing the patterned film between the first layer and the second layer, and removing a part of the first layer and the second layer to thereby expose portions of the patterned film.
Abstract:
Disclosed is a method of processing a polycrystalline nanoparticle. The method includes exposing a polycrystalline nanoparticle that includes at least two metal oxide crystallites bonded to each other to a chemical composition that includes a catalyst in order to at least partially separate the at least two metal oxide crystallites of the polycrystalline nanoparticle at an interface thereof.
Abstract:
Core-shell nanoparticles having a core material and a mesoporous silica shell, and a method for manufacturing the core-shell nanoparticles are provided.
Abstract:
A method and apparatus for detecting a target molecule in a sample are disclosed. The method optionally includes, but is not limited to, contacting the sample with a substrate having a metallic surface and receptors configured to bind to a target molecule, optionally in the presence of one or more metallic nanoparticles also including receptors configured to bind to a target molecule. The method optionally further includes dispersing a dye over the substrate; and applying a magnetic field to the substrate.
Abstract:
Techniques for making nanowires with a desired diameter are provided. The nanowires can be grown from catalytic nanoparticles, wherein the nanowires can have substantially same diameter as the catalytic nanoparticles. Since the size or the diameter of the catalytic nanoparticles can be controlled in production of the nanoparticles, the diameter of the nanowires can be subsequently controlled as well. The catalytic nanoparticles are melted and provided with a gaseous precursor of the nanowires. When supersaturation of the catalytic nanoparticles with the gaseous precursor is reached, the gaseous precursor starts to solidify and form nanowires. The nanowires are separate from each other and not bind with each other to form a plurality of nanowires having the substantially uniform diameter.
Abstract:
A heat-radiating pattern and a heat-radiating pattern includes metal layers such as Au (gold) and Ag (silver). Metal layers with certain dimensions can absorb light in the visible/near IR (infrared) range and emit light in IR range as heat. The metal layers can be formed into a desired pattern and surroundings of the metal layers can be heated up locally and thereby form a portion of the heat-radiating pattern. Locally heated portions on a substrate by the heat-radiating pattern can transform a heat reactive polymer layer and perform as a local heater.
Abstract:
One or more techniques for nano structure fabrication are provided. In an embodiment, an apparatus for manufacturing a nano structure is disclosed. The apparatus includes a stamp having a line pattern on a surface thereof that comprises a plurality of protrusions, a die configured to hold a substrate thereon, and a mechanical processing unit configured to press the plurality of protrusions of the stamp against the substrate with a predetermined pressure so as to form at least one channel pore therebetween.
Abstract:
Structures and apparatuses for fabricating magnetic nanoparticles are provided. In one embodiment, a structure for fabricating magnetic nanoparticles is described including a substrate that defines at least one cavity through a portion thereof, and an agglomerate of magnetic nanoparticles within the at least one cavity, wherein the at least one cavity has an aspect ratio of greater than one.
Abstract:
Nanoimprint molds for molding a surface of a material are provided. A nanoimprint mold includes a body with a molding surface that is formed by shaped nanopillars. The nanopillars may be formed on a substrate and shaped by performing at least a first partial oxidation of the nanopillars and then removing at least a portion of the oxidized material. Once shaped, a hard substance is deposited on the nanopillars to begin forming the molding surface of the nanoimprint mold. The deposition of a hard substance is followed by the deposition of carbon nanotube on the hard substance and then the removal of the substrate and nanopillars from the molding surface.