mhurhangee/ep-ind-claims huggingface dataset:
A fuel filling aperture opening and closing device, comprising: a closing member (La) turned to an open position by an insertion of a fuel filling nozzle to open a fuel filling aperture, wherein the closing member (La) includes a flap member including a ring-shaped seal member, and an urging device urging the flap member to be positioned at a closed position, the seal member includes seal portions respectively inside and outside, and one of the inner and outer seal portions is a plate-shaped portion pressed by urging against a projection piece bordering an opening edge portion of a pass-through opening of the fuel filling nozzle, and the other of the inner and outer seal portions comprises an inside circumferential projecting portion and an outside circumferential projecting portion respectively pressed against the flap member, characterized in that the seal member has a circumferential outer flange which becomes the plate-shaped portion at one cylinder end of a short cylinder member, and a circumferential groove at the other cylinder end of the short cylinder member, and the outside circumferential projecting portion and the inside circumferential projecting portion formed at the other cylinder end of the short cylinder member are divided into the inside and outside by the circumferential groove. a closing member (La) turned to an open position by an insertion of a fuel filling nozzle to open a fuel filling aperture, wherein the closing member (La) includes a flap member including a ring-shaped seal member, and an urging device urging the flap member to be positioned at a closed position, the seal member includes seal portions respectively inside and outside, and one of the inner and outer seal portions is a plate-shaped portion pressed by urging against a projection piece bordering an opening edge portion of a pass-through opening of the fuel filling nozzle, and the other of the inner and outer seal portions comprises an inside circumferential projecting portion and an outside circumferential projecting portion respectively pressed against the flap member, characterized in that the seal member has a circumferential outer flange which becomes the plate-shaped portion at one cylinder end of a short cylinder member, and a circumferential groove at the other cylinder end of the short cylinder member, and the outside circumferential projecting portion and the inside circumferential projecting portion formed at the other cylinder end of the short cylinder member are divided into the inside and outside by the circumferential groove.
A method comprising the steps of: - providing an ink-jet printing device; - providing print support means (100, 200, 300, 400) delimited by a print surface; - printing a calibration element on the print support means (100, 200, 300, 400) using the ink-jet printing device, by moving the print support means (100, 200, 300, 400) and the ink-jet printing device with respect to one another along an advancement direction, - using a measurement device, carrying out a plurality of partial measurements of respective parts of the calibration element printed on the print support means (100, 200, 300, 400); - calibrating the ink-jet printing device by processing information obtained during the partial measurements, characterized in that the calibration element has dimensions larger than the dimensions of the maximum image acquisition area of the measurement device and in that in order to calibrate the ink-jet printing device there is provided reconstructing the calibration element by combining information obtained from the partial measurements of said parts of the calibration element which has been printed on the print support means (100; 200; 300; 400), the partial measurements being carried out by positioning the measurement device on a region of the print surface and acquiring the image of one of said parts of the calibration element, moving the measurement device at another region of the print surface and acquiring the image of the corresponding part of the calibration element, and so on until the entire calibration element has been measured. - providing an ink-jet printing device; - providing print support means (100, 200, 300, 400) delimited by a print surface; - printing a calibration element on the print support means (100, 200, 300, 400) using the ink-jet printing device, by moving the print support means (100, 200, 300, 400) and the ink-jet printing device with respect to one another along an advancement direction, - using a measurement device, carrying out a plurality of partial measurements of respective parts of the calibration element printed on the print support means (100, 200, 300, 400); - calibrating the ink-jet printing device by processing information obtained during the partial measurements,
Method for producing sacks from tubular pieces which comprise a plastic material, in which method - a base rectangle which has tabs (4, 5) is established around a fold line, at least at one end region, while configuring triangular pockets (6, 7); - parts of the tabs (4, 5) of the base rectangle are folded back; - a base cover sheet is placed onto at least regions of the tabs (4, 5) of the base rectangle, and/or onto regions of the triangular pockets (6, 7); - a base cover sheet which at least partially comprises an air-permeable material is used; - wherein the base cover sheet comprises at least two layers, of which one layer comprises an air-permeable material; - wherein the first layer that faces the tabs (4, 5) and/or the triangular pockets (6, 7) is composed of an air-impermeable material, and has perforations incorporated therein; - wherein the second layer comprises air-permeable material and is applied onto the first layer; and characterized in - that the second layer is connected to the first layer; and - that connection seams, by way of which the perforations are completely surrounded, are used for connecting. - a base rectangle which has tabs (4, 5) is established around a fold line, at least at one end region, while configuring triangular pockets (6, 7); - parts of the tabs (4, 5) of the base rectangle are folded back; - a base cover sheet is placed onto at least regions of the tabs (4, 5) of the base rectangle, and/or onto regions of the triangular pockets (6, 7); - a base cover sheet which at least partially comprises an air-permeable material is used; - wherein the base cover sheet comprises at least two layers, of which one layer comprises an air-permeable material; - wherein the first layer that faces the tabs (4, 5) and/or the triangular pockets (6, 7) is composed of an air-impermeable material, and has perforations incorporated therein; - wherein the second layer comprises air-permeable material and is applied onto the first layer; and - that the second layer is connected to the first layer; and - that connection seams, by way of which the perforations are completely surrounded, are used for connecting.
Connector element having a locking mechanism to form a lockable plug connection with a counterpiece, in particular an SFP or CXP connector element, comprising a housing extending in the longitudinal direction, a locking element having a latching element for latching with the counterpiece, as well as an actuating element having a handle part for actuating the locking element, characterised in that the actuating element and the locking element are arranged to be located inside the housing, the housing has a first opening for the actuating element, through which this is guided such that the handle part can be accessed from outside the housing, the housing has a housing base and a counter bearing is provided in the housing, and the locking element and the actuating element are arranged between the housing base and the counter bearing, and the counter bearing is formed as a separate intermediate base which is fastened, in particular firmly riveted or latched, in the housing.
Internal combustion engine having an engine block and a cylinder head, at least one crankcase and at least one cylinder which is attached to at least one intake line being arranged in the internal combustion engine, the crankcase being connected to the at least one intake line via a crankcase breather line, having, furthermore, a compressor for compressing air in the intake line, the crankcase breather line being branched and being attached to at least one first connector point on the intake line downstream of the compressor, and a line branch which is connected to at least one second connector point upstream of the compressor branching off at a branching point, characterized in that at least 75% of the crankcase breather line is arranged within the engine block and/or within the cylinder head, and in that that part of the line branch which is arranged outside the engine block and the cylinder head is at most 20 cm long.
A nonwoven web comprising fine fibers having an average diameter of less than 20 μm, wherein the fine fiber comprises: one or more thermoplastic Aliphatic polyesters comprising a home or copolymer of a poly(hydroxyalkanoate); wherein the one or more thermoplastic aliphatic polyesters is present in at least 65 percent by weight of the fine fibers; and a viscosity modifier having the following structure: (R-CO 2 -) n M n+ wherein R is an alkyl or alkylene of C8-C30 as a branched or straight carbon chain, or C12-C30 aralkyl, and may be optionally substituted with 0-100 alkylene oxide groups such as ethylene oxide, propylene oxide groups, oligomeric lactic and/or glycolic acid or a combination thereof; M is H, an alkali metal, an alkaline earth metal, or an ammonium group; and n is the valency of M; wherein the viscosity modifier is present in an amount of at least 1.0 percent by weight based on the total weight of the fiber. one or more thermoplastic Aliphatic polyesters comprising a home or copolymer of a poly(hydroxyalkanoate); wherein the one or more thermoplastic aliphatic polyesters is present in at least 65 percent by weight of the fine fibers; and a viscosity modifier having the following structure: (R-CO 2 -) n M n+ wherein R is an alkyl or alkylene of C8-C30 as a branched or straight carbon chain, or C12-C30 aralkyl, and may be optionally substituted with 0-100 alkylene oxide groups such as ethylene oxide, propylene oxide groups, oligomeric lactic and/or glycolic acid or a combination thereof; M is H, an alkali metal, an alkaline earth metal, or an ammonium group; and n is the valency of M; wherein R is an alkyl or alkylene of C8-C30 as a branched or straight carbon chain, or C12-C30 aralkyl, and may be optionally substituted with 0-100 alkylene oxide groups such as ethylene oxide, propylene oxide groups, oligomeric lactic and/or glycolic acid or a combination thereof; M is H, an alkali metal, an alkaline earth metal, or an ammonium group; and n is the valency of M; wherein the viscosity modifier is present in an amount of at least 1.0 percent by weight based on the total weight of the fiber.
A polyisocyanate composition that is obtained from an aliphatic diisocyanate including 1,6-diisocyanatohexane, the composition comprising: an isocyanurate group; a uretdione group; and a group represented by Formula, wherein a viscosity measured at 25°C is 200 mPa·s to 2,000 mPa·s, and in the polyisocyanate composition, a ratio of a molar amount of the group represented by Formula with respect to a total molar amount of the isocyanurate group, the uretdione group, and the group represented by Formula is 0.005 to 0.10; wherein in Formula, R 11, R 12, and R 13 each independently represents a hydrogen atom or a hydrocarbon group having 1 to 20 carbon atoms that may include at least any one of an ester group and an ether group. an isocyanurate group; a uretdione group; and a group represented by Formula, wherein a viscosity measured at 25°C is 200 mPa·s to 2,000 mPa·s, and in the polyisocyanate composition, a ratio of a molar amount of the group represented by Formula with respect to a total molar amount of the isocyanurate group, the uretdione group, and the group represented by Formula is 0.005 to 0.10; wherein in Formula, R 11, R 12, and R 13 each independently represents a hydrogen atom or a hydrocarbon group having 1 to 20 carbon atoms that may include at least any one of an ester group and an ether group.
A method for diagnosing one or more diseases of the respiratory tract for a patient including the steps of: processing cough sounds from an audio recording of coughs acquired from a patient to produce cough sound feature signals (110a,110b) representing one or more cough sound features from the cough sounds; obtaining one or more disease signatures based on the cough sound feature signals (110a,110b); and classifying the one or more disease signatures to deem the cough segments (110a,110b) as indicative of one or more of said diseases; characterized in that the step of obtaining the one or more disease signatures based on the cough sound feature signals (110a,110b) includes mapping the cough sound features to a set of axes, wherein each axis is a disease signature, and the step of classifying involves applying one or more disease signatures to each of a plurality of pre-trained disease signature decision machines (2a,...,2n), one pre-trained disease signature decision machine (2a,...,2n) having been pre-trained to classify the one or more disease signatures as corresponding to either a particular disease or to a non-disease state and the other of the plurality of pre-trained disease signature decision machines (2a,...,2n) having been pre-trained to classify the one or more disease signatures as corresponding to a first particular disease or a second particular disease different from the first particular disease. processing cough sounds from an audio recording of coughs acquired from a patient to produce cough sound feature signals (110a,110b) representing one or more cough sound features from the cough sounds; obtaining one or more disease signatures based on the cough sound feature signals (110a,110b); and classifying the one or more disease signatures to deem the cough segments (110a,110b) as indicative of one or more of said diseases; characterized in that the step of obtaining the one or more disease signatures based on the cough sound feature signals (110a,110b) includes mapping the cough sound features to a set of axes, wherein each axis is a disease signature, and the step of classifying involves applying one or more disease signatures to each of a plurality of pre-trained disease signature decision machines (2a,...,2n), one pre-trained disease signature decision machine (2a,...,2n) having been pre-trained to classify the one or more disease signatures as corresponding to either a particular disease or to a non-disease state and the other of the plurality of pre-trained disease signature decision machines (2a,...,2n) having been pre-trained to classify the one or more disease signatures as corresponding to a first particular disease or a second particular disease different from the first particular disease.
A method of assembling together two tubes (1, 2) of thermoplastic materials, wherein said assembly is performed by welding by heating two contact surfaces of revolution that are pressed one against the other and that belong respectively to two portions, preferably end portions (1a, 1b), of two tubes (1, 2) placed in abutment or overlapping coaxially (XX'), the two tubes comprising a) a first tube constituted by a rigid tubular junction sleeve made of thermoplastic material inserted coaxially inside a first steel pipe element that is metal-welded or that is to be metal-welded in abutment with a second steel pipe element, and b) a second tube constituted by a coating of thermoplastic material applied as a liner of said steel pipe elements, wherein said assembly is performed by welding by induction heating at least one conductive welding element made of steel, and that is arranged at the interface between the two contact surfaces, of the two tubes (1, 2) made of thermoplastic materials, by generating a magnetic field at said conductive welding element(s) so that the melting of the thermoplastic materials constituting said contact surfaces as a result of said induction heating of said conductive welding element(s) provides a continuous and leakproof weld at said interface over at least one closed loop around the entire perimeter of said interface, the method comprising the generation of an electromagnetic field at said interface using an electromagnetic induction coil arranged coaxially inside the two tubes and conductive welding elements arranged so as to provide a plurality of coaxial circular welding zones arranged side by side in parallel along the axial direction (XX') of said tubes.
A controller configured to control a switched-mode power converter, wherein - the controller comprises a control pin for controlling a state of a power switch of the switched-mode power converter using a control signal; wherein the state of the power switch comprises an on-state and an off-state of the power switch; - the controller comprises a sensing pin for receiving a sensed current signal indicative of a current through the power switch; - the controller is configured to detect a break-through situation of the power switch by detecting that the sensed current signal is greater than or equal to a current threshold, when the power switch is in the off-state; - the controller is configured to control a multi-stage converter (304, 305) comprising a first converter stage providing an input voltage to the switched-mode power converter; and - the controller is configured to control the first converter stage to reduce the input voltage, subsequent to detecting a break-through situation of the power switch. - the controller comprises a control pin for controlling a state of a power switch of the switched-mode power converter using a control signal; wherein the state of the power switch comprises an on-state and an off-state of the power switch; - the controller comprises a sensing pin for receiving a sensed current signal indicative of a current through the power switch; - the controller is configured to detect a break-through situation of the power switch by detecting that the sensed current signal is greater than or equal to a current threshold, when the power switch is in the off-state; - the controller is configured to control a multi-stage converter (304, 305) comprising a first converter stage providing an input voltage to the switched-mode power converter; and - the controller is configured to control the first converter stage to reduce the input voltage, subsequent to detecting a break-through situation of the power switch.
Aircraft drive chain including a plurality of main gears (10; 13; 14; 15) engaging with each other, a first main gear comprising a wall (21a, 22) defining an inner space, an outer set of gear teeth being placed on an outer surface of the wall (21a, 22), the outer set of gear teeth engaging with at least one second main gear (13; 14; 15), a gear system being built into the inner space, the first main gear and the gear system being jointly configured so as to form a speed-increaser or reducer and ensure mechanical power transfer between a drive member and a slave member, wherein the gear system comprises a member forming a crown (30; 241), at least two planet gears, a member forming a planet carrier (41; 243) and a sun gear teeth set, the sun gear teeth set being placed on a first shaft connected to the drive member or the slave member, an inner set of gear teeth (25; 225) being placed on an inner surface of the member forming a crown (30; 241), the planet gears engaging with the inner set of gear teeth (25; 225) and with the sun gear teeth set; characterised in that said gear system is mounted onto the wall (21a, 22) by means of a decoupling member; and either the member forming a crown comprises a rim on which an inner track of the decoupling member is made, the member forming the planet carrier being fixed with regard to an aircraft frame, either the member forming a crown comprises a ring-shaped wall that is fixed in relation to an aircraft frame, and the member forming the planet carrier comprises a rim on which an inner track of the decoupling member is made.
A method for producing a human bioprosthetic tissue comprising: contacting a human tissue with a hypotonic solution to produce a lysed tissue; contacting the lysed tissue with a first surfactant solution to produce a surfactant-treated tissue; contacting the surfactant-treated tissue with a nuclease enzyme solution to produce an enzyme-treated tissue; contacting the enzyme-treated tissue with a cleaning solution comprising a second surfactant, a chaotropic agent, or a mixture thereof, to produce a decellularized tissue; and contacting the decellularized tissue with a bioburden reducing agent solution to produce the human bioprosthetic tissue, wherein the bioburden reducing agent solution comprises 1% (v/v) peracetic acid. contacting a human tissue with a hypotonic solution to produce a lysed tissue; contacting the lysed tissue with a first surfactant solution to produce a surfactant-treated tissue; contacting the surfactant-treated tissue with a nuclease enzyme solution to produce an enzyme-treated tissue; contacting the enzyme-treated tissue with a cleaning solution comprising a second surfactant, a chaotropic agent, or a mixture thereof, to produce a decellularized tissue; and contacting the decellularized tissue with a bioburden reducing agent solution to produce the human bioprosthetic tissue, wherein the bioburden reducing agent solution comprises 1% (v/v) peracetic acid.
A blower comprising an axial flow impeller, a fan motor positioned on a suction side of the axial flow impeller, and a motor stay supporting the fan motor, wherein the motor stay is substantially formed to have a linear shape and is attached perpendicular to the axial flow direction of the axial flow impeller, characterized in that an impeller blade front edge of the axial flow impeller is positioned such that values L and W are set to a range satisfying L/W < 2.5, in which an interval between the motor stay and the impeller blade front edge of the axial flow impeller in the axial flow direction is represented by L, and a width of the motor stay is represented by W.