mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing an insulating glass unit, comprising: as an adsorbent placing step, placing a gas adsorbent on a first surface of a first plate on one side in a thickness direction thereof or a second surface of a second plate on one side in a thickness direction thereof, the first plate being composed of at least a plate glass, the second plate being composed of at least a plate glass; and as a joining step, hermetically joining the first surface of the first plate and the second surface of the second plate with a sealant intervening therebetween, wherein the method comprises placing the gas adsorbent so as to have a wave shape with relatively raised and lowered parts arranged alternately along one direction, and not to be even in height from a surface on which it is placed at the adsorbent placing step, and the joining step is performed with the gas adsorbent having the shape placed along the sealant. as an adsorbent placing step, placing a gas adsorbent on a first surface of a first plate on one side in a thickness direction thereof or a second surface of a second plate on one side in a thickness direction thereof, the first plate being composed of at least a plate glass, the second plate being composed of at least a plate glass; and as a joining step, hermetically joining the first surface of the first plate and the second surface of the second plate with a sealant intervening therebetween, wherein the method comprises placing the gas adsorbent so as to have a wave shape with relatively raised and lowered parts arranged alternately along one direction, and not to be even in height from a surface on which it is placed at the adsorbent placing step, and the joining step is performed with the gas adsorbent having the shape placed along the sealant.
Method for producing an electrical circuit module , wherein the method comprises the following steps: providing a circuit carrier having at least one antenna element (104; 306), arranged on a first main side of the circuit carrier , for emitting electromagnetic radiation and at least one electrical contact , arranged on a second main side of the circuit carrier ; providing an electronic circuit , produced using embedded wafer level ball grid array technology, in the form of an electronic high-frequency circuit, produced using embedded wafer level ball grid array technology; and arranging the electronic circuit by way of a contact-making side of the electronic circuit on the second main side of the circuit carrier in order to electrically conductively contact-connect the contact-making side to the electrical contact , characterized in that , in the step of providing a circuit carrier , the circuit carrier is provided with at least one first circuit carrier layer and a second circuit carrier layer laminated to the first circuit carrier layer , wherein the first circuit carrier layer comprises the first main side of the circuit carrier and the second circuit carrier layer comprises the second main side of the circuit carrier , wherein, in the step of providing a circuit carrier , the first circuit carrier layer and the second circuit carrier layer are provided designed as a film having a thickness in the range between 25 μm and 150 μm. providing a circuit carrier having at least one antenna element (104; 306), arranged on a first main side of the circuit carrier , for emitting electromagnetic radiation and at least one electrical contact , arranged on a second main side of the circuit carrier ; providing an electronic circuit , produced using embedded wafer level ball grid array technology, in the form of an electronic high-frequency circuit, produced using embedded wafer level ball grid array technology; and arranging the electronic circuit by way of a contact-making side of the electronic circuit on the second main side of the circuit carrier in order to electrically conductively contact-connect the contact-making side to the electrical contact , characterized in that , in the step of providing a circuit carrier , the circuit carrier is provided with at least one first circuit carrier layer and a second circuit carrier layer laminated to the first circuit carrier layer , wherein the first circuit carrier layer comprises the first main side of the circuit carrier and the second circuit carrier layer comprises the second main side of the circuit carrier , wherein, in the step of providing a circuit carrier , the first circuit carrier layer and the second circuit carrier layer are provided designed as a film having a thickness in the range between 25 μm and 150 μm.
A vehicle seat comprising a seat cushion and a seat back , wherein the seat back is given a stiffness distribution having different reaction force characteristics in a vertical direction of the seat back in such a way that a low stiffness region (PSb) having a small support reaction force (fa 1 ) for the occupant (D) is set in a vertical center portion of the seat back while high stiffness regions (PHb 1 , PHb 2 ) each having a large support reaction force (fa 2 ) for the occupant (D) are set, adjacent to the low stiffness region (PSb), in upper and lower portions of the seat back , and the backrest surface of the seat back is bendable in the middle at the low stiffness region (PSb) at any of various middle bend angles according a backrest load of the occupant (D), characterized in that the seat cushion is given a stiffness distribution in a front-rear direction in such a way that a front part of the seat cushion is provided with a low stiffness region (PSc) which is more flexible than a rear part of the seat cushion being a high stiffness region (PHc), and the vehicle seat further comprises an inclined surface provided at a corner region (δ) where the seating surface of the seat cushion and the backrest surface of the seat back are joined to each other, the inclined surface being inclined at an angle smaller than an angle of the backrest surface to the horizontal plane, the inclined surface configured to support the hip of the occupant (D) when the occupant (D) is seated in the vehicle seat. the seat back is given a stiffness distribution having different reaction force characteristics in a vertical direction of the seat back in such a way that a low stiffness region (PSb) having a small support reaction force (fa 1 ) for the occupant (D) is set in a vertical center portion of the seat back while high stiffness regions (PHb 1 , PHb 2 ) each having a large support reaction force (fa 2 ) for the occupant (D) are set, adjacent to the low stiffness region (PSb), in upper and lower portions of the seat back , and the backrest surface of the seat back is bendable in the middle at the low stiffness region (PSb) at any of various middle bend angles according a backrest load of the occupant (D), characterized in that the seat cushion is given a stiffness distribution in a front-rear direction in such a way that a front part of the seat cushion is provided with a low stiffness region (PSc) which is more flexible than a rear part of the seat cushion being a high stiffness region (PHc), and the vehicle seat further comprises an inclined surface provided at a corner region (δ) where the seating surface of the seat cushion and the backrest surface of the seat back are joined to each other, the inclined surface being inclined at an angle smaller than an angle of the backrest surface to the horizontal plane, the inclined surface configured to support the hip of the occupant (D) when the occupant (D) is seated in the vehicle seat.
Modified cellulosic fibre characterized in that : it comprises anionic moieties in an amount of more than 0.25mol/kg of dry fibre and has applied theron a polymeric modifying agent in an amount of from 0.5 wt.% to 5.0 wt.%, based on dry fibre, the polymeric modifying agent comprising cationic moieties with a charge of at least 1.5meq per gram of polymer, and the molar ratio of anionic moieties to cationic moieties contained in the fibre is in the range of from 1:1 to 25:1, characterized in that the anionic moieties are incorporated in the fibre and are from carboxymethylcellulose, and that the polymeric modifying agent comprising cationic moieties is selected from the group consisting of polydiallyldimethylammonium chloride (poly-DADMAC), poly(acrylamide-co-diallyldimethylammonium chloride) (PAM-DADMAC) and mixtures thereof.
A control system for automatically operating a well control device located in a subsea blow-out preventer (BOP) , the control system comprising: a first control unit configured to detect a signal indicative of a requirement to trigger actuation of a shear mechanism of the subsea BOP, to cause the shear mechanism to move from a deactivated state to an activated state in which it provides a well control function; and a second control unit adapted to be connected to the well control device, for triggering actuation of the well control device to cause it to move from a deactivated state to an activated state in which the well control device provides a well control function; characterised in that the first control unit is connected to the second control unit and configured to issue an activation command to the second control unit to cause it to trigger actuation of the well control device; in which the first control unit is configured to automatically issue the activation command to the second control unit on detecting issue of the signal indicative of a requirement to trigger actuation of the subsea BOP shear mechanism; and in which the first control unit and the second control unit are configured so that the activation command is issued to the second control unit to trigger actuation of the well control device prior to actuation of the subsea BOP shear mechanism. a first control unit configured to detect a signal indicative of a requirement to trigger actuation of a shear mechanism of the subsea BOP, to cause the shear mechanism to move from a deactivated state to an activated state in which it provides a well control function; and a second control unit adapted to be connected to the well control device, for triggering actuation of the well control device to cause it to move from a deactivated state to an activated state in which the well control device provides a well control function; characterised in that the first control unit is connected to the second control unit and configured to issue an activation command to the second control unit to cause it to trigger actuation of the well control device; in which the first control unit is configured to automatically issue the activation command to the second control unit on detecting issue of the signal indicative of a requirement to trigger actuation of the subsea BOP shear mechanism; and in which the first control unit and the second control unit are configured so that the activation command is issued to the second control unit to trigger actuation of the well control device prior to actuation of the subsea BOP shear mechanism.
A nozzle assembly for a desuperheating device configured for spraying cooling water, the nozzle assembly comprising: a nozzle housing having a tubular outer wall and a tubular inner wall collectively defining a generally annular flow passage , the tubular inner wall having a lower section circumvented by the tubular outer wall ; a valve element movably attached to the nozzle housing and selectively movable between closed and open positions relative thereto; and a nozzle shield movably attached to the nozzle housing and cooperatively engaged to the valve element such that the movement of the nozzle shield facilitates the concurrent movement of the valve element ; and a biasing spring disposed within the nozzle shield and cooperatively engaged thereto, the biasing spring being operative to normally bias the valve element to the closed position; wherein the nozzle shield is sized and configured such that the biasing spring disposed therein is effectively shielded from direct impingement of cooling water flowing into the flow passage . a nozzle housing having a tubular outer wall and a tubular inner wall collectively defining a generally annular flow passage , the tubular inner wall having a lower section circumvented by the tubular outer wall ; a valve element movably attached to the nozzle housing and selectively movable between closed and open positions relative thereto; and a nozzle shield movably attached to the nozzle housing and cooperatively engaged to the valve element such that the movement of the nozzle shield facilitates the concurrent movement of the valve element ; and a biasing spring disposed within the nozzle shield and cooperatively engaged thereto, the biasing spring being operative to normally bias the valve element to the closed position; wherein the nozzle shield is sized and configured such that the biasing spring disposed therein is effectively shielded from direct impingement of cooling water flowing into the flow passage .
A substrate analysis nozzle configured to discharge an analysis solution from a tip of the substrate analysis nozzle onto a substrate, configured to scan a surface of the substrate using the discharged analysis solution, and configured to suck the analysis solution, wherein the substrate analysis nozzle comprises a triple-tube structure made up of: a pipe through which the analysis solution is discharged and sucked; a first outer tube surrounding the pipe and surrounding the analysis solution used for scanning; and a second outer tube surrounding the first outer tube , and wherein the substrate analysis nozzle comprises: first exhausting means comprising a first exhaust path defined between the pipe and the first outer tube ; and second exhausting means comprising a second exhaust path defined between the first outer tube and the second outer tube , wherein the first and second exhaust means are configured to turn the first and the second exhaust paths into a reduced pressure atmosphere. wherein the substrate analysis nozzle comprises a triple-tube structure made up of: a pipe through which the analysis solution is discharged and sucked; a first outer tube surrounding the pipe and surrounding the analysis solution used for scanning; and a second outer tube surrounding the first outer tube , and wherein the substrate analysis nozzle comprises: first exhausting means comprising a first exhaust path defined between the pipe and the first outer tube ; and second exhausting means comprising a second exhaust path defined between the first outer tube and the second outer tube , wherein the first and second exhaust means are configured to turn the first and the second exhaust paths into a reduced pressure atmosphere.
A lab-on-chip device for the separation of blood samples, the blood comprising two immiscible phases being blood and plasma or serum, said device comprising at least one fluid line which successively comprises an inlet reservoir , a separation channel , a collection channel and at least one outlet , wherein said separation channel is configured to separate the blood into said two phases comprising blood cells and a purified fluid being plasma or serum, characterized in that said separation is based on the sedimentation principle without the use of a membrane or other filtration material, said separation occurring by keeping the sample flowing in the horizontal plane through the separation channel by capillary action, said purified fluid ending spatially separated from the blood cells wherein said device comprises an air bubble actuator which, when actuated, generates an air bubble into said fluid line in order to isolate a defined volume of said purified fluid.
An acetylene carburizing furnace, comprises a reaction chamber to contain a workpiece , an acetylene intake duct, an exhaust gas duct, a control and metering apparatus arranged on the acetylene intake duct to introduce acetylene into the reaction chamber , an exhaust gas measurement apparatus arranged on the exhaust gas duct, and a computer controller respectively connected to the control and metering apparatus and the exhaust gas measurement apparatus , wherein the computer controller is configured to, after a set temperature is reached in the reaction chamber , turn on the control and metering apparatus according to a set parameter to introduce acetylene into the reaction chamber , wherein the control and metering apparatus and the exhaust gas measurement apparatus are respectively configured to send acetylene data and exhaust gas measurement data to the computer controller in real time, and wherein the computer controller is configured to calculate a total amount of carbon in the furnace and an enrichment rate of a workpiece, and to adjust an acetylene intake volume according to the calculation result until process requirements are met, the acetylene carburizing furnace being characterized in that it is an atmospheric-pressure acetylene carburizing furnace and in that the exhaust gas measurement apparatus comprises a mass spectrometer.
A structural support system for a spa, the structural support system comprising: a plurality of vertical supports , at least one of the plurality of vertical supports comprising a first portion and a second portion and a first side and a second side , wherein the first portion is comprised of a plurality of shaped openings, at least some of which are identical, being open on the first side and wherein the second portion is comprised of a plurality of shaped openings, at least some of which are identical, being open on the second side ; at least one channel bracket , the channel bracket comprising a shaped boss on a first side, the shaped boss having a structure to mate with at least one of the plurality of identical shaped openings on either side of the plurality of vertical supports , the channel bracket further comprising a first groove formed in a second side ; and at least one spa panel retention member , the spa panel retention member comprising a projection to mate in the first groove of the channel bracket .
An X-ray inspection system comprising: an X-ray source housing configured for being brought into contact with a first surface of a composite structure ; a detector housing configured for being brought into contact with a second surface of the composite structure opposite the first surface ; an X-ray source positioned within the X-ray source housing ; an X-ray scintillator positioned within the detector housing , wherein the X-ray scintillator is a structured scintillator formed of crystals grown in a structured format; a light detector positioned within the detector housing ; a first objective lens positioned within the detector housing and between the X-ray scintillator and the light detector such that the first objective lens is a first distance from the X-ray scintillator , wherein the first distance is adjustable, and wherein the first objective lens has an anti-reflective coating configured to reduce or prevent light being reflected from first objective lens back to X-ray scintillator ; and a second objective lens positioned within the detector housing and between the first objective lens and the light detector . an X-ray source housing configured for being brought into contact with a first surface of a composite structure ; a detector housing configured for being brought into contact with a second surface of the composite structure opposite the first surface ; an X-ray source positioned within the X-ray source housing ; an X-ray scintillator positioned within the detector housing , wherein the X-ray scintillator is a structured scintillator formed of crystals grown in a structured format; a light detector positioned within the detector housing ; a first objective lens positioned within the detector housing and between the X-ray scintillator and the light detector such that the first objective lens is a first distance from the X-ray scintillator , wherein the first distance is adjustable, and wherein the first objective lens has an anti-reflective coating configured to reduce or prevent light being reflected from first objective lens back to X-ray scintillator ; and a second objective lens positioned within the detector housing and between the first objective lens and the light detector .
A fan assembly, comprising: a fan ; a shroud comprising a motor mounting portion on which a fan motor of the fan is mounted; one or more coupling units provided at a lower side of the shroud, which couple the shroud to a planar surface of a machine room of a refrigerator provided with a compressor and a condenser therein; and one or more vibration preventing members interposed between the coupling units and the shroud, characterized in that each of the one or more coupling units comprises a receiving portion formed as an opening at a lower end of the shroud, and a shroud coupling portion that protrudes upward from the planar surface of the machine room so as to be aligned with the receiving portion, wherein the receiving portion comprises a downwardly opened slot formed in a lower end of the shroud, wherein the receiving portion receives one of the one or more vibration prevention members therein, with said one of the one or more vibration preventing members positioned between the receiving portion and the shroud coupling portion , wherein each of the one or more vibration preventing members comprises a fitting groove formed in an outer side surface thereof that engages a corresponding inner side surface of its respective receiving portion , and wherein coupling holes provided at the vibration preventing members and the shroud coupling portions receive coupling members configured to couple the vibration preventing members and the shroud coupling portions in a side direction. a fan ; a shroud comprising a motor mounting portion on which a fan motor of the fan is mounted; one or more coupling units provided at a lower side of the shroud, which couple the shroud to a planar surface of a machine room of a refrigerator provided with a compressor and a condenser therein; and one or more vibration preventing members interposed between the coupling units and the shroud, characterized in that each of the one or more coupling units comprises a receiving portion formed as an opening at a lower end of the shroud, and a shroud coupling portion that protrudes upward from the planar surface of the machine room so as to be aligned with the receiving portion, wherein the receiving portion comprises a downwardly opened slot formed in a lower end of the shroud, wherein the receiving portion receives one of the one or more vibration prevention members therein, with said one of the one or more vibration preventing members positioned between the receiving portion and the shroud coupling portion , wherein each of the one or more vibration preventing members comprises a fitting groove formed in an outer side surface thereof that engages a corresponding inner side surface of its respective receiving portion , and wherein coupling holes provided at the vibration preventing members and the shroud coupling portions receive coupling members configured to couple the vibration preventing members and the shroud coupling portions in a side direction.