108results about How to "Easy to pattern" patented technology

Microfluidic devices fabricated from paper that has been covalently modified to increase its hydrophobicity, as well as methods of making and using thereof are provided herein. The devices are typically small, portable, flexible, and both easy and inexpensive to fabricate. Microfluidic devices contain a network of microfluidic components, including microfluidic channels, microfluidic chambers, microwells, or combinations thereof, designed to carry, store, mix, react, and / or analyze liquid samples. The microfluidic channels may be open channels, closed channels, or combinations thereof. The microfluidic devices may be used to detect and / or quantify an analyte, such as a small molecules, proteins, lipids polysaccharides, nucleic acids, prokaryotic cells, eukaryotic cells, particles, viruses, metal ions, and combinations thereof.

For fabricating lean-free stacked capacitors, openings are formed through layers of materials including a layer of support material displaced from a bottom of the openings. A respective first electrode is formed for a respective capacitor within each of the openings. The layer of support material is patterned to form support structures around the first electrodes. Masking spacers are formed around exposed top portions of the first electrodes, and exposed portions of the support material are etched away to form the support structures. Such stacked capacitors are applied within a DRAM (dynamic random access memory).

The invention relates to a matrix of electroluminescent organic material having quantum dots embedded therein. Electrodes provide electrons and holes to the matrix forming excitons to be transferred to the quantum dots. The invention provides transfer molecules on the quantum dots facilitating the transfer of excitons from the electroluminescent organic material to the quantum dots, by first transferring them to the transfer molecules. The transfer molecules are chosen to make a transfer rate of excitons from the organic material to the transfer molecules larger than a decay rate of excitons in the organic material. More specifically, the organic matrix forms a light emitting layer in a light emitting device (LED). Also, the electroluminescent organic material is preferably an electroluminescent polymer.

The addition of a highly polarizable additive such as an organic anionic surfactant to an electrically active polymer improves the electrical properties of the polymer. When such an additive is added to an electroluminescent organic polymer this mixture can be used in diodes having an anode contacting a layer of this mixture as the active light-emitting layer and an air-stable metal cathode having a work function larger than 4 eV. The external efficiency and brightness versus voltage are significantly improved compared to results obtained with the same electroluminescent polymer used alone with high work function (>4.0 eV) metal cathodes. Specifically, device performance with indium / tin-oxide (ITO) as the anode, poly(2-methoxy-5-(2'-ethyl-hexyloxy)-1,4-phenylene vinylene), MEH-PPV, as the electroluminescent polymer, lithium nonylphenoxy ether sulfate as the surfactant additive and aluminum as the cathode is comparable to or better than that obtained with high performance devices using calcium as the cathode.

The present invention relates to a diblock copolymer that may facilitate formation of a finer nano pattern, and be used for manufacture of an electronic device including a nano pattern or a bio sensor, and the like, a method for preparing the same, and a method for forming a nano pattern using the same,The diblock copolymer comprises a hard segment including at least one specific acrylamide-based repeat unit, and a soft segment including at least one (meth)acrylate-based repeat unit.

A method an apparatus for manipulating particles (micro, nano, and pico) having one or more characteristics with an optical trap formed by modulating a laser beam with a Diffractive Optical Element (DOE). At least one characteristic of the material is selected; and a laser beam having a selected wavelength corresponding to the at least one selected characteristic of the material is generated. Values of the DOE are calculated corresponding to the at least one selected characteristic of the material. The beam and the DOE are modulated to produce a holographic optical trap having properties corresponding to the at least one selected characteristic; the trap is focused to a beam focus or selected spot size; and the beam focus is located near a particle location for trapping the particle therein.

An MTJ MRAM cell is formed by using a reactive ion etch (RIE) to pattern an MTJ stack on which there has been formed a bilayer Ta / TaN hard mask. The hard mask is formed by patterning a masking layer that has been formed by depositing a layer of TaN over a layer of Ta on the MTJ stack. After the stack is patterned, the TaN layer serves at least two advantageous purposes: 1) it protects the Ta layer from oxidation during the etching of the stack and 2) it serves as a surface having excellent adhesion properties for a subsequently deposited dielectric layer.

A metal-insulator-metal (MIM) capacitor of a semiconductor device, and a manufacturing method thereof, includes a lower electrode formed of a refractory metal or a conductive compound including the refractory metal, a dielectric film formed of a high dielectric material, and an upper electrode formed of a platinum-family metal or a platinum-family metal oxide. Accordingly, the MIM capacitor satisfies the criteria of step coverage, electrical characteristics and manufacturing costs, as compared to a conventional MIM capacitor in which the upper and lower electrodes are formed of the same material such as a platinum-family metal, a refractory metal or a conductive compound including the refractory metal. The capacitor is especially suitable for mass production in semiconductor fabrication processes.

Embodiments of the invention generally provide methods for forming a multilayer rear surface passivation layer on a solar cell substrate. The method includes forming a silicon oxide sub-layer having a net charge density of less than or equal to 2.1×1011 Coulombs / cm2 on a rear surface of a p-type doped region formed in a substrate comprising semiconductor material, the rear surface opposite a light receiving surface of the substrate and forming a silicon nitride sub-layer on the silicon oxide sub-layer. Embodiments of the invention also include a solar cell device that may be manufactured according methods disclosed herein.

A semiconductor device includes at least one first conductive layer stacked on a substrate where a cell region and a contact region are defined; at least one first slit passing through the first conductive layer, second conductive layers stacked on the first conductive layer; a second slit passing through the first and second conductive layers and connected with one side of the first slit, and a third slit passing through the first and second conductive layers and connected with the other side of the first slit.

A light emitting diode having improved light efficiency and enhanced reflectivity of a device by forming an insulating reflective part on a reflective electrode formed on the upper surface of a mesa. A mesa exposing part is formed on the outer periphery and / or in the interior region of the reflective electrode to expose a predetermined area of the upper surface of the mesa such that reflection at the mesa exposing part is performed by the insulating reflective part.

The invention provides self sintering conductive ink based on liquid-state metal particles as well as a preparation method and application thereof. The conductive ink has the main ingredients of liquid metal and water-soluble macromolecules; the preparation is simple; the cost is low; the patterning is easy; the ink can realize the automatic film breaking at the room temperature after the patterning; a conductive path is formed. The circuit manufactured by using the ink has very good flexibility and stretching performance; the line width is controllable; high resolution is realized; the ink is very suitable for large-scale production.

Recent semiconductor device becomes high powered, and on the material of heat sinks on which these devices are mounted, lower thermal expansion coefficient and higher thermal conductivity are needed. For this requirement, material with thermal conductivity as high as Cu alone and also with low thermal expansion coefficient, is needed. An aspect in accordance with the present invention provides, a cladding material in which 1st material layer and 2nd material layer are laminated alternately, wherein thermal expansion coefficient of said 2nd material is lower than the thermal expansion coefficient of said 1st material, and thermal conductivity of said 2nd material is lower than the thermal conductivity of said 1st material, and a total number of laminated layers composed of said 1st material and said 2nd material is 5 or more.

The present invention provides a technology for forming the trenches having different depths in one semiconductor substrate, which enables easily conducting the photo resist process employed for the etch process and forming trenches at higher depth dimension accuracy. The openings of the first films are formed in the semiconductor substrate to expose surfaces of the semiconductor substrate, the semiconductor substrate is etched through the openings to a depth of the shallower trench and then the cell region is covered with the second photo resist pattern, and the peripheral region is etched through the first films to form the deeper trench. Since the etch process is conducted under the conditions, in which the surfaces of the semiconductor substrate are exposed (opened) within the openings in the first film, trenches having different depths can be formed with higher depth dimension accuracy by suitably controlling the etch conditions.

To provide a process for producing a transparent electrode comprising a tin oxide film which can readily be patterned, which can be realized at a low cost, and which has low resistivity and is excellent in transparency. A process for producing a transparent electrode having a patterned tin oxide film formed on a substrate, which comprises a step of forming a tin oxide film having light absorption characteristics on a substrate, a patterning step of removing part of the tin oxide film having light absorption characteristics, and a step of subjecting the patterned tin oxide film having light absorption characteristics to heat treatment to obtain a tin oxide film.

A semiconductor device includes at least one first conductive layer stacked on a substrate where a cell region and a contact region are defined; at least one first slit passing through the first conductive layer, second conductive layers stacked on the first conductive layer; a second slit passing through the first and second conductive layers and connected with one side of the first slit, and a third slit passing through the first and second conductive layers and connected with the other side of the first slit.

Present invention relates to an organic light-emitting film electrochemical deposition preparation method and application in preparing electroluminescence device, belonging to organic luminescence field. Said Light-emitting film is formed by electrochemical deposition in electrolytic bath, the monomer for electrochemical polymerization formed by chemical bond connecting electricity activity unit and luminescence unit, wherein electricity activity unit consisting of carbazole, thiophene, pyrrole, ethene, ethyne or phenylamine, diphenylamine, and triphenylamine, luminescence unit being cinnamic dimer, tripolymer, tetramer or terphenyl, quaterphenyl, quinquephenyl, tetracene, pentacene, fluorene dimer, tripolymer or tetramer and terpyridyl (dipyridyl ) rhenium etc, prepared electroluminescence device having simple technology, high device luminous efficiency, easy control area adjustable luminous color etc advantages.

A method for manufacturing an electronic substrate including an electronic component bonded with adhesive to a base part, comprises (a) applying a droplet containing the adhesive to an area on the base part, the area facing to the electronic component, within a range substantially equal to a size of the electronic component by using a droplet ejection head moving in relatively to the base part, and (b) mounting the electronic component on the adhesive applied to the base part.

A solder, in particular a thin-film solder, for joining microelectromechanical components, wherein the solder is a eutectic mixture of gold and bismuth. Components and devices joined by a solder of this type are also disclosed, in addition to processes for producing such components or devices.

A novel black matrix, a method for preparing the same, and a flat display device and an electromagnetic interference filter to which the black matrix is applied. The black matrix is prepared by exposing a photoactive compound to form a latent pattern of nuclei for crystal growth and treating the latent pattern of nuclei for crystal growth with a metal salt solution to give a metal particle-deposited pattern; forming an electroless Ni-plated layer on the metal particle-deposited pattern; and forming an electroless Cu-plated layer on the electroless Ni-plated layer. Exhibiting improved black tone, which is achieved only by a selective multilayer plating process, without using expensive vacuum sputtering apparatus or a photolithographic process, the black matrix can be applied to various flat display devices. In addition, due to improved electric conductivity, the black matrix can be used in an electromagnetic interference filter, without employing an additional front surface blackening process.

A catalyst supporting substrate includes a first region (54) which is formed on a substrate (50); and a second region (55) which is formed covering a part of the first region. The first region (54) includes a catalyst supporting portion (54a) containing a first material. The second region (55) includes a catalyst portion (55) containing a second material which is different from the first material. The first material includes a metal containing at least one of elements selected from the second group to the fourteenth group of the periodic table or a compound thereof. The second material is a catalyst which grows carbon nanotubes in a vapor phase.

The invention discloses a nano-crystalline cellulose-based circularly polarized luminescence material, a preparation method and application thereof in anti-counterfeiting and belongs to the technicalfield of circularly polarized luminescence materials. The luminescence material is a composite film, and circularly polarized light is obtained by compounding nano-crystalline cellulose and a fluorescence guest. The composite film is divided into two types, namely an inner composite film and an outer composite film, wherein the inner composite film is a film formed by assembling the nano-crystalline cellulose and the fluorescence guest and can realize right-handed rotation circularly polarized light; and the outer composite film is prepared by self-assembling the nano-crystalline cellulose toform a film and compounding the outer part of the fluorescence guest, and can realize left-handed and right-handed rotation chiral circularly polarized light. The circularly polarized light generatedbased on the nano-crystalline cellulose composite film has a great factor g, the nano-crystalline cellulose film is easily patterned, and by introducing chiral circularly polarized light identification, the luminescence material achieves an anti-counterfeiting effect, is high in anti-counterfeiting ability, difficult to counterfeit and advanced in technology.

Disclosed herein are a transparent conductive substrate and a method of manufacturing the same, and a touch screen using the same. The transparent conductive substrate includes a transparent substrate, a transparent electrode that is formed and patterned on the transparent substrate, and a primer that is formed between the transparent substrate and the transparent electrode and is patterned to have a pattern corresponding to the transparent electrode. The transparent electrode is easily patterned by previously patterning the primer to correspond to the transparent electrode and residues do not remain on the transparent substrate.