||WO||WO/2014/024326 - UNDERWEAR-TYPE WORN ARTICLE||13.02.2014||
||PCT/JP2012/076171||UNICHARM CORPORATION||ICHIKAWA, Makoto|
Provided is an underwear-type worn article of which at least the central portion of a crotch region has a desired flexibility and of which the front waist region side of the crotch region has a desired tensile strength. The front and back waist regions (11, 12) and the portion that is at least at the front waist region (11) side of the crotch region (13) are a multilayer region (44) that results from laminating a base sheet (25) and a front waist sheet (26), and the central portion (13C) of the crotch region (13) is a single-layer region (43) consisting of the base sheet (25). The multi-layer region (44) has: a boundary (40); an inner edge (11d) of the front waist region (11); a joining region (60) at which a liquid-absorbing structure (15) and a chassis (14) are joined; and corners (73) encircled by the concave curved side edges (19c) of the crotch region (13). The boundary (40) between the multi-layer region (44) and the single-layer region (43) traverses the joining region (60).
||WO||WO/2013/062520 - MOLDED COOLANT PLATE ASSEMBLY WITH INTEGRAL REACTANT FLOW FIELDS AND THERMAL DAM||02.05.2013||
||PCT/US2011/057587||CLEAREDGE POWER CORPORATION||BREAULT, Richard D.|
An end-cooler assembly for a fuel cell includes a cooler having a coolant tube array. A composite material includes flake graphite and hydrophobic polymer. The composite material surrounds the coolant tube array and provides a first side. A flow field is formed in the first side. A thermal dam is embedded in and is entirely surrounded by the composite material. The thermal dam is arranged between the coolant tube array and the flow field. The coolant tube array, composite material, flow field and thermal dam comprise a unitary, monolithic structure bound together by the composite material.
||WO||WO/2013/031645 - DISPOSABLE DIAPER||07.03.2013||
||PCT/JP2012/071336||UNICHARM CORPORATION||OKU, Tomomi|
A disposable diaper (1) is provided with: a diaper body (10) having a plurality of elastic members, which are positioned farther to the outside in the width direction than an absorbent body in a stretched state in the longitudinal direction of the absorbent body; dorsal side flaps (20) that extend further to the outside in the width direction than the diaper body; and joining sections (51) that join the dorsal side flaps (20) and the diaper body. A first elastic member 123a and a first elastic member 124a, which are positioned farthest to the outside in the width direction among the plurality of elastic members, overlap with the joining sections in the thickness direction (T) of the disposable diaper in a stretched state in the longitudinal state.
||WO||WO/2012/177107 - MULTI-INPUT CIRCUIT||27.12.2012||
||PCT/KR2012/005521||AUTONICS CORPORATION||PARK, Hwan Ki|
Disclosed is a multi-input circuit comprising: a first terminal allowing the input of a sensor signal from a current means, an RTD temperature sensor and a TC temperature sensor; a second terminal allowing the input of a compensated signal from the RTD temperature sensor and a sensor signal from a voltage means; a grounded third terminal, which is grounded, allowing a common signal input from the current means, RTD temperature sensor, TC temperature sensor and voltage means; a current means sensor signal detection unit which is connected between the first terminal and the third terminal; a multiplexor in which the first to third terminals and an output terminal of the current means sensor signal detection unit are each connected in input ports; a key input unit for selecting an input port for receiving the sensor signal from the multiplexor; a power source unit for supplying power for sensing a change in the resistance value in the RTD temperature sensor; a switch for turning the power source on or off, the power source being supplied from the power source unit to the RTD temperature sensor; and a control unit for outputting, on the basis of the selection of the key input unit, a control signal for selecting the input port of the multiplexor and a control signal for controlling the on/off state of the switch, and subsequently receiving the sensor signal which is input into the input port of the multiplexor. Temperature sensor signals, analog voltage signals, and analog current signals from control measurement devices, such as a thermostat and panel meter, are received from a single input terminal, and the signal types are differentiated via a diode, thereby enabling lower manufacturing costs and miniaturization of the product, and improving user convenience.
||WO||WO/2012/169067 - HIGH-STRENGTH, HIGH-ELONGATION-PERCENTAGE GOLD ALLOY BONDING WIRE||13.12.2012||
||PCT/JP2011/063377||TANAKA DENSHI KOGYO K. K.||MIKAMI Michitaka|
[Problem] To obtain a combination of a desired elongation percentage and breaking strength in a bonding wire comprising a gold alloy wire.
[Solution] At least one metal selected from copper (Cu), silver (Ag), palladium (Pd) and platinum (Pt) in an amount of 0.5-30 mass% is added to high-purity gold (Au), whereby a region ranging from 450 to 650˚C, in which the change in elongation percentage is flat, appears in a heat treatment temperature range for a wire drawing processing. In this temperature range, although the breaking strength of the wire is decreased, the strength of the wire is kept at a level corresponding to a heat treatment temperature at which the elongation percentage of 4%, which is a standard level for a high-purity gold wire, is achieved.
Therefore, it becomes possible to produce an alloy wire having a certain level or higher of strength regardless of the change in temperature by performing the heating treatment at a temperature falling within in the flat region, and it also becomes possible to produce wires having different strengths for the above-mentioned elongation percentage by properly selecting the temperature region.
||WO||WO/2012/160973 - ENGINE AND SADDLE-TYPE VEHICLE||29.11.2012||
||PCT/JP2012/061870||YAMAHA HATSUDOKI KABUSHIKI KAISHA||INOMORI Toshinori|
The purpose of the present invention is to make it easy to attach a cam chain to an engine in which a side of a cylinder body does not open, wherein a blade tensioner that serves as both a tensioner and a cam-chain guide is used to put the cam chain under tension. Said tensioner (158) has a leaf spring (166) and a blade shoe (168) that supports said leaf spring (166) and contacts the cam chain (154) inside a chain chamber. An engine (44) is provided with the following: a bolt (164) that is inserted through a support hole (250) formed in the tensioner (158) and swingably supports the tensioner (158); and a support pin (170) that supports the tensioner (158) by contacting a contact part (178) on the blade shoe (168). Said bolt (164) is provided on a cylinder head (128). The aforementioned support pin (170) is provided on a crank case (84) and supports the tensioner (158) such that the aforementioned contact part (178) can slide.
||WO||WO/2012/160959 - ENGINE AND SADDLE-TYPE VEHICLE||29.11.2012||
||PCT/JP2012/061762||YAMAHA HATSUDOKI KABUSHIKI KAISHA||INOMORI Toshinori|
Provided are: an engine that, using a low number of components, can put a cam chain under tension; and a saddle-type vehicle provided with said engine. Said engine (44) is provided with a chain chamber (210). Said chain chamber contains a chain (154) and a tensioner (158) that puts said chain under tension. Said tensioner includes a leaf spring (166) and a blade shoe (168) that supports said leaf spring and contacts the chain inside the chain chamber. The engine is also provided with a support shaft (240) and a support part. Said support shaft pivotably supports the tensioner. The support part supports the tensioner by contacting a supported part (228) formed on the blade shoe. When the tensioner pivots about the support shaft, the support part supports the supported part such that said supported part can slide within the chain chamber.
||WO||WO/2012/157131 - HYDROELECTRIC GENERATOR DEVICE||22.11.2012||
||PCT/JP2011/069889||UNNO Yuji||UNNO Yuji|
[Problem] To provide a hydroelectric generator device that has easy maintenance, is able to adjust the water level on the upstream side, and obtains a stable amount of power generation. [Solution] This hydroelectric generator device (1) is equipped with: a water-collecting plate (6) that collects water flowing through a water course towards a water inlet (8) while damming and retaining the water; and a mobile gate (5) that can raise/lower the cross-sectional area of flow of the water flow entering from the water inlet (8) and acting on the tip of the rotor vanes (33) of a vertical-axis turbine (3). By means of raising/lowering the cross-sectional area of flow by opening/closing the mobile gate (5), it is possible to adjust flow rate by varying the opening area of an orifice opening and the water level on the upstream side and to halt the operation of the rotor vanes (33) by interrupting the flow-through of water to the vertical-axis turbine (3).
||WO||WO/2012/146902 - PROCESS FOR THE PRODUCTION OF ANHYDRIDES||01.11.2012||
||PCT/GB2012/050233||DAVY PROCESS TECHNOLOGY LIMITED||TILLEY, Simon Nicholas|
A process for the production of anhydrides by contacting a gaseous feed stream with a particulate catalyst, said process being carried out in a tubular reactor having an inlet and an outlet, said outlet being located downstream of the inlet, said reactor comprising one or more tubes having located therein one or more carriers for said particulate catalyst and cooling medium in contact with said tubes; wherein said catalyst carrier comprises: an annular container for holding catalyst in use, said container having a perforated inner wall defining a tube, a perforated outer wall, a top surface closing the annular container and a bottom surface closing the annular container; a surface closing the bottom of said tube formed by the inner wall of the annular container; a skirt extending upwardly from the perforated outer wail of the annular container from a position at or near the bottom surface of said container to a position below the location of a seal; and a seal located at or near the top surface and extending from the container by a distance which extends beyond an outer surface of the skirt; said process comprising: (a) introducing the gaseous reactants through the inlet; (b) passing said reactants downwardly through said at least one tube to the upper surface of the, or the first catalyst carrier where they pass into the passage defined by the inner perforated wall of the container before passing radially through the catalyst bed towards the perforated outer wall; (c) allowing reaction to occur as the gas contacts the catalyst; (d) passing unreacted reactant and product out of the container though the perforated outer wall and then upwardly between the inner surface of the skirt and the outer wall of the annular container until they reach the seal where they are directed over the end of the skirt and caused to flow downwardly between the outer surface of the skirt and the inner surface of the reactor tube where heat transfer takes place; (e) repeating steps (b) to (d) at any subsequent catalyst carrier; and (f) removing product from the outlet.
||WO||WO/2012/140785 - POLYAMIDE RESIN-BASED COMPOSITE MATERIAL AND METHOD FOR PRODUCING SAME||18.10.2012||
||PCT/JP2011/060374||Mitsubishi Gas Chemical Company, Inc.||MITADERA Jun|
Provided is a xylylenediamine-based polyamide resin/fiber composite material and molded product which have no decline in physical properties at high temperatures and high humidity, a high modulus of elasticity, and low warping properties, as well as superior recycling properties, moldability, and productivity in comparison to a thermosetting resin. This polyamide resin-based composite material is characterized in that a fiber material (B) is impregnated with a polyamide resin (A) in which at least 50 mol% of the diamine constituent units are derived from xylylenediamine, the polyamide resin having a number-average molecular weight (Mn) of 6,000-30,000 and containing 0.5-5 mass% of a component having a molecular weight of no more than 1,000.