Abstract:
A reinforced fiber/resin fiber composite is provided in which the ratio and arrangement of a long fiber and a thermoplastic resin fiber included in an intermediate material are accurately controlled to simultaneously provide good impregnation characteristics of the long fiber and good interfacial characteristics between the long fiber and the thermoplastic resin. A reinforced fiber/resin fiber composite (50) is provided which is an intermediate material for a long-fiber reinforced thermoplastic resin structure. The reinforced fiber (15) is a long fiber extending in a longitudinal direction. The resin fiber (25) includes at least two thermoplastic resin fibers. The at least two thermoplastic resin fibers are arranged around the reinforced fiber (15) to surround the reinforced fiber (15).
Abstract:
An object of the present invention to realize a step of producing an environmentally friendly textile product using a solvent in place of conventionally used water or an organic solvent in a textile product scouring step. A method according to one aspect of the present invention includes a step (a) of bringing a fluid containing supercritical carbon dioxide into contact with the textile product to remove part or all substances adhered to a surface of the textile product.
Abstract:
An element body has an exposed surface including a selective surface material which is to be coated with the coating material and a non-selected surface material which is not to be coated with the coating material. The selected surface material has different material properties than the non-selected surface material. The element body is coated with the coating material by applying a surface modifier only on the surface of the selected surface material and thereafter coating the surface of the selected surface material to which the surface modifier has been applied with the coating material.
Abstract:
A wafer processing apparatus is configured to process a wafer by supplying mist to a surface of the wafer. The wafer processing apparatus includes a furnace in which the wafer is disposed, a gas supplying device configured to supply gas into the furnace, a mist supplying device configured to supply the mist into the furnace, and a controller. The controller is configured to execute a processing step by controlling the gas supplying device and the mist supplying device to supply the gas and the mist into the furnace, respectively. The controller is further configured to control the mist supplying device to stop supplying the mist into the furnace while controlling the gas supplying device to keep supplying the gas into the furnace when the processing step ends.
Abstract:
A film formation apparatus includes a stage for having a substrate thereon; a mist generation source that generates a mist of a solution containing at least water and in which a material for forming a film on the substrate is dissolved; a supply path that conveys the mist toward the substrate on the stage by a flow of a carrier gas; and a heater that heats at least a part of the supply path. The part of the supply path heated by the heater is provided as a mist heating section in which infrared rays are radiated from an inner surface of the supply path toward the mist. The inner surface of the supply path in the mist heating section is coated with a coating layer containing at least one of an oxide and a hydroxide of an element present in the mist.
Abstract:
A method for producing a product including an oxide film of a second metal that is doped with a first metal includes generating a mist from a raw material solution in which both the first metal and the second metal are dissolved, and supplying the mist to a surface of a substrate to form the oxide film on the surface of the substrate. A pH of the raw material solution is less than 7.
Abstract:
A wafer processing apparatus is configured to process a wafer by supplying mist to a surface of the wafer. The wafer processing apparatus includes a furnace in which the wafer is disposed, a gas supplying device configured to supply gas into the furnace, a mist supplying device configured to supply the mist into the furnace, and a controller. The controller is configured to execute a processing step by controlling the gas supplying device and the mist supplying device to supply the gas and the mist into the furnace, respectively. The controller is further configured to control the mist supplying device to stop supplying the mist into the furnace while controlling the gas supplying device to keep supplying the gas into the furnace when the processing step ends.
Abstract:
A method for forming a semi-conductive or conductive oxide film is provided. The oxide film is doped with a bismuth and made of an indium oxide, an aluminum oxide, a gallium oxide, an oxide including the gallium oxide, or an oxide of a combination thereof. The method includes supplying a mist of a solution to a surface of the substrate while heating the substrate. An oxide film material and a bismuth compound being dissolved in the solution. The bismuth compound is selected from the group consisting of bismuth ethoxide, bismuth acetate oxide, bismuth acetate, bismuth nitrate pentahydrate, bismuth nitrate, bismuth oxynitrate, bismuth 2-ethylhexanoate, bismuth octanoate, bismuth naphthenate, bismuth subgallate, bismuth subsalicylate, bismuth chloride, bismuth oxychloride, bismuth citrate, bismuth oxyacetate, bismuth oxide perchlorate, bismuth oxysalicylate, bismuth bromide, bismuth iodide, bismuth hydroxide, bismuth oxycarbonate, bismuth sulfide, bismuth sulfate, bismuth carbonate, and bismuth oxide.
Abstract:
A separating medium for hydrophilic interaction chromatography useful in separating hydrophilic compounds. The hydrophilic interaction chromatography separating medium, which is formed from a support and a ligand carried by the support, is a separating medium wherein the ligand is a (meth)acrylic polymer having a constituent unit derived from the compound indicated by formula (I).
Abstract:
A rubber composition of the present technology is a rubber composition including a diene rubber and a filler; the diene rubber containing at least a styrene-butadiene copolymer; a radical generation index of the styrene-butadiene copolymer being not greater than 1.0 and being smaller than a value Y calculated by Equation (1): Y=−0.0186×(SV mass %+vinyl unit mol %)+1.5.