Abstract: A manufacturing method of a negative electrode includes: forming, on a belt-shaped copper foil, an active material film formed such that powder including a negative-electrode active material is moisturized and granulated into granulated bodies and the granulated bodies are formed into a film shape; applying a pasty heat resistant layer on the active material film; and drying the active material film and the heat resistant layer. In the applying, an HRL paste including a binder is applied as the heat resistant layer. The drying includes a first drying step, and second and third drying steps subsequent to the first drying step. A preset temperature of a first furnace used in the first drying step is a first temperature, and preset temperatures of a second furnace used in the second drying step and a third furnace used in the third drying step are a second temperature lower than the first temperature.

Abstract: There is provided a manufacturing method of a three-dimensional shaped object, the method being capable of reducing a warp deformation of the three-dimensional shaped object. The manufacturing method according to an embodiment of the present invention produces a three-dimensional shaped object by alternate repetition of a powder-layer forming and a solidified-layer forming by light beam irradiation, wherein as a platform for the three-dimensional shaped object, a plate laminate body comprising a dummy solidified layer and a base plate for the shaped object is used, and the dummy solidified layer is formed on one of principal surfaces of the base plate, whereas the three-dimensional shaped object is manufactured on the other of the principal surfaces of the base plate.

Abstract: We disclose herein a method for heating a gas sensing material formulation on a microhotplate which comprises: a dielectric membrane formed on a semiconductor substrate comprising an etched portion; and the gas sensing material formulation being located on one side of the dielectric membrane. The method comprising: selectively heating the gas sensing material formulation using an infra-red (IR) heater located over the substrate, and controllably cooling the semiconductor substrate using a cooling baseplate provided under the substrate and using an insulating medium located between the substrate and the cooling base plate so that a gas sensing structure is formed on said one side of the dielectric membrane from the gas sensing material formulation.

Abstract: A method for forming a carrier substrate for a semiconductor device, the method includes providing a substrate layer including conductive particles embedded in an electrically insulating material and localized heating of the substrate layer along a desired trace by a laser to form a conductive trace of merged particles along the desired trace.

Abstract: The present disclosure provides systems and methods for depositing an alkaline metal layer on an absorber to generate a copper-poor region at a surface of the absorber. The copper-poor region provides an increased efficiency over non-treated absorbers having copper-rich surfaces. The alkaline metal layer may be deposited by any suitable deposition method, such as, for example, a wet deposition method. After the alkaline metal layer is deposited, the absorber is annealed, causing the alkaline metal layer to interact with the absorber to reduce the copper-profile of the absorber at the interface between the alkaline metal layer and the absorber.

Abstract: An electrochemically active material is disclosed in which the particles of electrochemically active material have a zeta potential of less than 25 mV in absolute value (?25 mV to 0 mV; 0 mV to 25 mV) as measured in the medium (water and/or organic solvent) in which the particles are dispersed.

Abstract: A donor substrate may include a base layer, a light to heat conversion layer disposed on the base layer, a buffer layer disposed on the light to heat conversion layer, an organic transfer layer disposed on the buffer layer, and a tightening member disposed on a peripheral portion of the organic transfer layer. The tightening member may include an adhesive film having an adhesion strength controlled by an irradiation of an ultraviolet ray. Process failures for manufacturing an organic light emitting display device may be prevented by the donor substrate, so that the organic light emitting display device may ensure improved performances.

Abstract: This invention concerns a pre-fabricated marking system and a method for producing such a marking system, comprising the steps of a) producing a base layer (4) made of a first meltable composition whereby said first meltable composition comprises a material selected from the group consisting of resin, polymer, filler, softener and plasticizer, b) cooling the so produced base layer (4), c) applicating at least one, wholly or partly covering layer (5) onto the base layer (4) of one or more different second meltable composition(s) whereby said second meltable composition comprises a material selected from the group consisting of resin, polymer, plasticizer and preferably one or more pigments (2,3), and d) solidifying at least the base layer (4).

Abstract: Methods for depositing material onto microfeature workpieces in reaction chambers and systems for depositing materials onto microfeature workpieces are disclosed herein. In one embodiment, a method includes depositing molecules of a gas onto a microfeature workpiece in the reaction chamber and selectively irradiating a first portion of the molecules on the microfeature workpiece in the reaction chamber with a selected radiation without irradiating a second portion of the molecules on the workpiece with the selected radiation. The first portion of the molecules can be irradiated to activate the portion of the molecules or desorb the portion of the molecules from the workpiece. The first portion of the molecules can be selectively irradiated by impinging the first portion of the molecules with a laser beam or other energy source.

Abstract: In a conductive film forming method using photo sintering, a conductive film having low electric resistance is easily formed. Disclosed is a conductive film forming method in which a conductive film is formed using a photo sintering, which includes the steps of: forming a liquid film made of a copper particulate dispersion on a substrate, drying the liquid film to form a copper particulate layer, subjecting the copper particulate layer to photo sintering to form a conductive film, attaching a sintering promoter to the conductive film, and further subjecting the conductive film having the sintering promoter attached to photo sintering. The sintering promoter is a compound which removes copper oxide from metallic copper. Thereby, the sintering promoter removes a surface oxide film of copper particulates in the conductive film.

Abstract: Coating porous material, such as PDMS, with parylene N, C, D, and AF-4 by vapor deposition polymerization is described in which a temperature of the porous material's surface being coated is heated to between 60° C. and 120° C., or 80° C. and 85° C., during deposition. The parylene forms nano roots within the porous material that connect with a conformal surface coating of parylene. In some embodiments, a watertight separation chamber in an integrated microfluidic liquid chromatography device is fabricated by heating tunnels in micro-fabricated PDMS and depositing parylene within the heated tunnels.

Abstract: An image sensor is provided. The image sensor includes a pixel sensor, a color filter array comprising a plurality of color filters formed on the pixel sensor, wherein two adjacent color filters have a gap therebetween, and a gapless microlens array comprising a plurality of microlenses formed on the color filter array. The invention also provides a method for fabricating the image sensor.

Abstract: The invention relates to a method for producing a coating, in regions, on a substrate, said coating being based on a formulation, in the form of an active color-change motif, which contains bacteriorhodopsin color-changing pigment, and to coatings produced using a method of this type and to articles having coatings of this type. Here, the method comprises the following steps: a) printing of the substrate with the formulation, in the form of a motif, containing bacteriorhodopsin color-changing pigment; b) partial drying of the printed substrate; c) optionally repetition of steps a) and/or b); calendering of the printed and partially dried substrate; e) complete drying of the coating.

Abstract: A method for non-destructive evaluation of an article of manufacture (30) by coating the article with a temperature-sensitive coating (34), stimulating the article with energy (18) to induce temperature changes in the article responsive to features of the article, then evaluating (24) a resulting topography of energy-induced changes (50, 52, 53) in the coating (34). The energy imparted to the article may be, for example, electromagnetic, magnetic, or sonic energy that produces localized changes in temperature in the article (30) in response to features (32) of the article such as flaws or other discontinuities. The coating (34) may be a suspension of liquid crystals in a liquid, and the energy may be an application of sonic energy. The coating may be a material that hardens (42, 54) or softens (44, 56) upon a slight increase in temperature. Layers (34, 35) of different energy-sensitive coatings (38, 40) may be applied to indicate different aspects of features of the article.

Abstract: Coating compositions containing resins with dispersed nanoparticle precursors and methods for using said coatings as visual indicators of thermal and impact damage. The nanoparticle precursor/resin system reduces the nanoparticle precursor to its nanoparticle state when subjected to heat and/or physically impacted. The nanoparticles formed impart a color upon the coating at the point of exposure due to surface plasmon resonance. Microencapsulated leuco dyes are utilized to impart color when the coating is struck. The dye within the microcapsule is released as the microcapsule wall bursts or melts. Solubilizing agents can be utilized to improve the solubility of the nanoparticle precursor in the resin.

Abstract: A rapid, scalable methodology for graphene dispersion and concentration with a polymer-organic solvent medium, as can be utilized without centrifugation, to enhance graphene concentration.

Abstract: Disclosed are hollow silica particles having oil absorption ratio of at most 0.1 ml/g, porosity of hollow particles when mixed with a resin of at least 90%, and melting temperature of 130-200° C., and including a silicon compound having an organic group as a main component, and a composition including the hollow silica particles. A sheet including a base and a coating layer formed on the base and including a resin, and a method of manufacturing the same are provided. The coating layer includes a plurality of inner cavities, and components of the hollow particles are attached to the inner circumference of the inner cavities. The sheet has good transparency and insulation performance, and the inner cavities may be formed by simply melting hollow particles.

Abstract: The present invention provides novel ink formulations based on metal salts and metal complexes.

Abstract: A method of manufacturing an integrated metal oxide gas sensor is described including the steps of depositing a composition with metal oxide particles or precursors thereof at the desired location on a substrate including electronic components followed by a step of heating the substrate whereby the heating step is designed such that it creates a local temperature difference between the location of the deposited composition and the location of more temperature sensitive parts of the sensor such as the electronic components and is interrupted before the temperature of the substrate at the location of the electronic components reaches a threshold above which the more sensitive parts can be damaged.

Abstract: An electrode element using a silver nano-wire and a manufacturing method thereof are provided, according to which the electrode element has reinforced bonding of wire unit structures with low-temperature heat treatment and easily applicable as a polymer substrate, while improving haze phenomenon, deteriorating adhesion force of silver nano-wire layer, surface roughness and changing resistance over time. The manufacturing method of electrode element includes steps of forming a silver nano-wire layer on a substrate, coating an organo-metal (OM) compound solution on top of the silver nano-wire layer, reinforcing bonding of junctions formed between wire unit structures with a thermal energy locally generated at the junctions by surface Plasmon, by irradiating light onto the silver nano-wire layer with the OM compound coated thereon, and treating surface by applying sol-gel solution on the silver nano-wire layer treated by the Plasmon.

Abstract: A laminate having excellent abrasion resistance to physical stimuli such as dust. The laminate comprises a base layer, a hard coat layer and a top coat layer containing flaky metal oxide fine particles all of which are formed in the mentioned order. The flaky metal oxide fine particles are hardened by at least one method selected from the group consisting of ionizing material exposure, ionizing radiation exposure, infrared exposure, microwave exposure and high-temperature vapor exposure.

Abstract: A method for dying and/or printing adhesive closure parts (10) having a plurality of hooks (12) predominately made of a plastic material connected to a carrier (14), applies a dye medium to the surface (16) of the adhesive closure part (10) or its parts by an application unit (18). Because the dye used is based on a solvent free wax applied by the application unit (18) in a melted form in droplets, bubbles, or pellet form, and enters into a fixed connection to the surface (16) in the cooled, cured state, a wax dye application may be achieved that is markedly colorfast and UV resistant.

Abstract: Disclosed are a heat transfer medium and a heat transfer method that uses the heat transfer medium. The heat transfer medium comprises a light-transparent substrate coated with a plurality of nano particles. The nano particles absorb light incident thereon to thereby produce heat, which is transferred to a target object to be heated. Nano particles can be applied onto a target object. After heating, the particles are removed by etching. Nano particles can be selectively applied to the light-transparent substrate or directly to a target object to be heat so as to localize heat-production and thus heat selective portions of the target object.

Abstract: A multi-plume pulsed laser deposition (MPPLD) system has been provided for fabrication of an array of diverse materials in predefined regions on a substrate. In one embodiment, the method comprises splitting a high power laser beam into multiple laser beams, split laser beams being focused onto target materials, multiple plumes being generated on the surfaces of target materials, deposition of ablated target materials non-uniformly on a substrate covered with a mask, and heating the substrate during deposition.

Abstract: The invention relates to a method for producing a panel, in particular a furniture or floor panel, wherein a decor, preferably a wood imitating decor, is applied to at least one surface of a plate-shaped substrate, and wherein the substrate or the decor is provided with an areal, three-dimensional structure. The method is substantially characterised in that to produce the structure, liquid and/or powdery application material is applied in a single layer or multiple layers to the substrate or the decor, in that the application material applied is solidified in regions by means of at least one digitally controllable device, and in that the device is controlled using structural data present in digital form.

Abstract: A screen printing film and a surface modification method of the same are provided. The method includes providing a substrate having a PVA film on at least one surface of the substrate. The surface of the substrate is modified by generating a heating source and a plasma source, wherein a heating temperature to the substrate is between 100° C. and 500° C. The step of generating the heating source may be prior to, after, or simultaneous with the step of generating the plasma source.

Abstract: A mixture of an elastomer, carbon black, and inorganic fillers provides a highly useful laser-ablatable flexographic printing plate precursor formulation. This formulation is sensitive to infrared radiation. Both flexographic printing plates and printing sleeves can be made using the mixture.

Abstract: A method and an arrangement are disclosed for producing an electrically conductive pattern on a surface. Electrically conductive solid particles are transferred onto an area of predetermined form on a surface of a substrate. The electrically conductive solid particles are heated to a temperature that is higher than a characteristic melting point of the electrically conductive solid particles, thus creating a melt. The melt is pressed against the substrate in a nip, wherein a surface temperature of a portion of the nip that comes against the melt is lower than said characteristic melting point.

Abstract: An infrared ray cut-off material is formed of phosphorus-doped antimony tin oxide powder, in which a content of antimony in terms of SbO2 is not less than 14 parts by mass and not more than 30 parts by mass with respect to 100 parts by mass of the infrared ray cut-off material, a content of phosphorus in terms of PO2.5 is not less than 1 part by mass and not more than 25 parts by mass with respect to 100 parts by mass of the infrared ray cut-off material, and a balance other than antinomy oxide and phosphorus oxide is tin oxide.

Abstract: A method of making a solid oxide fuel cell (SOFC) includes forming a first sublayer of a first electrode on a first side of a planar solid oxide electrolyte and drying the first sublayer of the first electrode. The method also includes forming a second sublayer of the first electrode on the dried first sublayer of the first electrode prior to firing the first sublayer of the first electrode, firing the first and second sublayers of the first electrode during the same first firing step, and forming a second electrode on a second side of the solid oxide electrolyte.

Abstract: An object is to provide the formulation of a copper particulate dispersion in which copper particulates are dispersed. The copper particulate dispersion includes copper particulates, at least one kind of a dispersion vehicle containing the copper particulates, and at least one kind of dispersant which allows the copper particulates to disperse in the dispersion vehicle. The copper particulates have a center particle diameter of 1 nm or more and less than 100 nm. The dispersion vehicle is a polar dispersion vehicle. The dispersant is a compound having at least one acidic functional group, which has a molecular weight of 200 or more and 100,000 or less, or a salt thereof. Whereby, the dispersant has compatibility with dispersion vehicle and a surface of copper particulates is coated with dispersant molecules, and thus the copper particulates are dispersed in the dispersion vehicle.

Abstract: The present invention relates to a method for producing a microfabricated atomic vapor cell, including a step of forming at least one cavity in a substrate and closing the cavity at one side. The method further includes: —a step of depositing a solution including an alkali metal azide dissolved in at least one of its solvents, —a step of evaporating such solvent for forming a recrystallized alkali metal azide, —a step of decomposing the recrystallized alkali metal azide in an alkali metal and nitrogen, such alkali metal depositing in the cavity of the substrate.

Abstract: Methods and apparatuses for a deposition system are provided to deposit a thin coating layer on flat substrates, such as semiconductors or panels. In an embodiment, liquid supplied rollers accepting liquid media provide liquid chemicals to the substrates for coating the substrates. The liquid delivery system can control the flow and the pressure of the liquid to achieve optimum process condition with minimum excess waste. In another embodiment, rollers with non-uniform distribution of liquid media provide a non-uniform thickness profile on the substrates, which can be used to compensate for the non-uniformity of subsequent processes.

Abstract: One embodiment of the present invention is a deposition method for forming a layer 13a containing a deposition material on a deposition target surface of a second substrate, comprising the steps of forming an absorbing layer 12 over one surface of a first substrate 11; forming a material layer 13 containing the deposition material over the absorbing layer; performing first heat treatment on the material layer from the other surface of the first substrate to a temperature lower than the sublimation temperature of the deposition material so as to remove an impurity 14 in the material layer 13; disposing the one surface of the first substrate and the deposition target surface of the second substrate to face each other; and performing second heat treatment on the material layer from the other surface of the first substrate.

Abstract: A flexible metal clad laminate includes a metal foil, and a multilayered polyimide film including a first polyimide layer having a glass transition temperature of 300° C. or less and disposed on the metal foil, a second polyimide layer disposed on the first polyimide layer and a third polyimide layer disposed on the second polyimide layer. According to the flexible metal clad laminate of the present invention, appearance defects such as blistering generated during curing process in a continuous curing machine using an infrared heat source may be solved, interlayer delamination may be prevented due to a good adhesion strength with a metal layer, and an ACF bonding strength and a dimensional stability may be good. The flexible metal clad laminate may be useful for the manufacturing of a flexible printed circuit boards.

Abstract: Provided is a conductive pattern formation method capable of improving conductivity of a conductive pattern. An ink layer 12 is formed by printing a composition (ink) containing metal oxide particles and a reducing agent, and/or metal particles, on a surface of a substrate 10 and the ink layer 12 is heated by photo irradiation or microwave irradiation so that conductivity is expressed on the heated portion and the ink layer 12 is converted into a conductive layer 14. Metal particles and/or metal oxide particles are heated quickly in a short time and air bubbles are generated during photo irradiation or microwave irradiation and voids are generated inside the conductive layer 14, and thus the conductive layer 14 is pressurized by an appropriate pressing machine 16 to crush the voids to improve conductivity of the conductive layer 14 before obtaining a conductive pattern 18.

Abstract: A substrate coating and a method of forming the same are provided. The substrate coating includes a first layer formed on a substrate, in which the composition of the first layer includes at least silicon-rich-carbon, and the amount of silicon is about equal to or greater than the amount of carbon; and a second layer formed on the first layer, in which the composition of the second layer includes at least fluorine doped diamond-like-carbon. The substrate coating not only is easy to clean, has good wearing performance, and provides a smooth surface, but also has better adhesion to prevent peeling off.

Abstract: Chemical vapor deposition (CVD) processes include, in one embodiment, a method for processing a wafer within a vapor deposition reactor comprising heating at least one wafer disposed on a wafer carrier by exposing a lower surface of the wafer carrier to radiation emitted from a lamp assembly and flowing a liquid through a passageway extending throughout the reactor to maintain the reactor lid assembly at a predetermined temperature, such as within a range from about 275° C. to about 325° C. The method further includes traversing the wafer carrier along a wafer carrier track through at least a chamber containing a showerhead assembly and an isolator assembly and another chamber containing a showerhead assembly and an exhaust assembly, and removing gases from the reactor through the exhaust assembly.

Abstract: Provided is a process for producing satisfactory particles held in porous silica. The process comprises (a) the step of preparing porous silica, (b) the step of bringing the porous silica into contact with a liquid which contains either a metal or a compound that has the metal as a component element and infiltrating the liquid into the pores of the porous silica, and (c) the step of subjecting, after the step (b), the impregnated porous silica to a heat treatment to thereby form fine particles comprising the metal or the metal compound in the pores of the porous silica. When porous silica is synthesized by hydrolyzing an alkoxysilane in a solvent-free system, it is possible to synthesize porous silica having a fine pore diameter. Use of this porous silica as a template facilitates formation of particles (e.g., W, Cu, Cr, Mn, Fe, Co, or Ni or an oxide of any of these metals) that show peculiar properties not observed in the bulk material.

Abstract: A method and apparatus for the continuous powder coating of a non-conductive profile produced in a continuous forming process, such as pultrusion or extrusion, such that the profile is powder coated while on the profile forming machine and before the subject segment of the continuous profile is severed from the continuous profile on the forming machine (i.e. in-line).

Abstract: Membranes of the invention comprise a hybrid silica film on a organic polymer support. The silica comprises organic bridging groups bound to two or more silicon atoms, in particular at least 1 of said organic bridging groups per 10 silicon atoms. The membranes can be produced by dry chemistry processes, in particular plasma-enhanced vapour deposition of bridged silane precursors, or by wet chemistry involving hydrolysis of the bridged silane precursors. The membranes are inexpensive and efficient for separation of small molecules and filtration processes.

Abstract: Aspects relate to systems and methods for dispensing paint uniformly on pliable items. The system comprises at least one paint application device having at least one nozzle, at least one infrared heating unit, and a conveyance mechanism. Other aspects of the system will also comprise a mask exchanger, a mask cleaner, and/or at least one base jig. The base jig retains a masked pliable item having exposed and covered portions. The base jig moves on a conveyance mechanism through a series of paint application devices and infrared heating units. Each paint application device dispenses a thin layer of paint on the exposed portions of the masked pliable item and each infrared heating unit heats the thin layer of paint to create a solid base for a next layer of paint.

Abstract: A pattern phase difference film is manufactured by a process including a laminate body formation step of applying a pattern alignment layer composition on a substrate to form a laminate body, a heat-drying layer formation step of heat-drying the composition to form a heat-dried layer, a pattern alignment layer formation step of irradiating a polarization pattern onto the heat-dried layer to form a pattern alignment layer, and a phase difference layer formation step of forming a phase difference layer including a rod-shaped compound on the pattern alignment layer. During the steps between the heat-drying layer formation step and the phase difference layer formation step, the heat-dried layer and the pattern alignment layer are exposed to the air for four hours or less.

Abstract: The system (10) includes at least one elastomeric, vulcanizable ink (18) that defines a decorative decal image (20). The decal image (20) has perimeter edges (22) and a display area (24) extending between the perimeter edges (22). The vulcanizable ink is vulcanized upon a carrier sheet (12). A heat-activated adhesive layer (26) is applied to overlie the display area (24) of the decal image (20), and the heat-activated adhesive layer (26) is also partially activated upon the display area (24) of the decal image (20). The decorative decal image (20) having the partially activated adhesive layer (26) is then thermally transferable to a vulcanized rubber product (28) such as a side wall (30) of an automotive tire (32), after which the carrier sheet (12) is removed.

Abstract: A method of making a multi-layer micro-wire structure includes providing a substrate having a surface and forming a plurality of micro-channels in the surface. A first material composition is located in a first layer only in each micro-channel and not on the surface. A second material composition different from the first material composition is located in a second layer different from the first layer only in each micro-channel and not on the surface. The first material composition in the first layer and the second material composition in the second layer form an electrically conductive multi-layer micro-wire in each micro-channel.

Abstract: A method of making a conductive article includes depositing on a substrate a metal nanoparticle composition having water, silver nanoparticles dispersed in the water and a water-soluble polymer having both carboxylic acid and sulfonic acid groups. The weight percentage of silver in the composition is greater than 10%. The metal nanoparticle composition is dried. The dried metal nanoparticle composition is converted to improve the electrical conductivity of the dried metal nanoparticle composition.

Abstract: A coating solution is applied to a web to form a coating layer. Then the web is transported into a drying apparatus, in which a guide roller guides the web such that an angle of the web to a horizontal direction is smaller downstream from the guide roller. The angles at entrance and exit of the drying apparatus are named entrance and exit angles ?1, ?3, respectively, and satisfy a condition ?1>?3. The coating layer has the temperature T1 at the entrance, the temperature T2 at the exit, and the temperature T3 in the drying apparatus. The differences |T2?T1| and |T3?T1| are at most 5° C. In the drying apparatus, as the organic solvent evaporates uniformly, the generation of the unevenness is reduced. Thereafter, the drying is made at the large drying speed in the blow-drying apparatus to obtain a film product.

Abstract: Methods are provided for making layers with nano-and micro-patterned topographies by laser action or inkjet printing on a first surface. These topographies have a periodicity of 5 nm to 500 ?m in a first direction in the plane of the first surface. These layers can be used as anisotropically patterned alignment layers in electro-optical devices and generate an orientational order of at least 0.30.

Abstract: A method of making a multi-layer micro-wire structure includes providing a substrate having a surface and forming a plurality of micro-channels in the surface. A first material composition is located in a first layer only in each micro-channel and not on the surface. A second material composition different from the first material composition is located in a second layer different from the first layer only in each micro-channel and not on the surface. The first material composition in the first layer and the second material composition in the second layer form an electrically conductive multi-layer micro-wire in each micro-channel.

Abstract: One embodiment of the present invention is a film forming method including the steps of forming an absorption layer 12 over one surface of a first substrate 11; forming a layer 16 containing a high molecular compound over the absorption layer; removing an impurity in the layer containing the high molecular compound by performing a first heat treatment on the layer 16; forming a material layer 18 containing a first film formation material and a second film formation material over the layer 16; performing a second heat treatment to form a mixed layer 19 in which the material layer and the layer 16 are mixed over the absorption layer; and performing third heat treatment to form a layer 19a containing the first film formation material and the second film formation material on a film-formation target surface of a second substrate.