mhurhangee/ep-ind-claims huggingface dataset:
A switch circuit comprising: a switch element that is provided between an input terminal and an output terminal (VOUT); and a switch driving unit that is configured to drive the switch element on the basis of a control signal for instructing turn-on and turn-off of the switch element, wherein the switch driving unit is driven between a first power supply voltage (VCC or GND) and a second power supply voltage (GND or VCC) that are different from each other, with an input voltage to be supplied to the input terminal interposed therebetween, the switch driving unit including a source follower circuit (401, 404) having a drain side being connected to a first power supply terminal side that is supplied with the first power supply voltage (VCC or GND), configured to input a voltage based on the input voltage, and to supply a voltage generated in an output side to the switch element as a driving voltage for driving the switch element, and a current control unit (402, 405) that is configured to open and close a current path between the output side of the source follower circuit (401, 404) and a second power supply terminal supplied with the second power supply voltage (GND or VCC), in response to the control signal. a switch element that is provided between an input terminal and an output terminal (VOUT); and a switch driving unit that is configured to drive the switch element on the basis of a control signal for instructing turn-on and turn-off of the switch element, wherein the switch driving unit is driven between a first power supply voltage (VCC or GND) and a second power supply voltage (GND or VCC) that are different from each other, with an input voltage to be supplied to the input terminal interposed therebetween, the switch driving unit including a source follower circuit (401, 404) having a drain side being connected to a first power supply terminal side that is supplied with the first power supply voltage (VCC or GND), configured to input a voltage based on the input voltage, and to supply a voltage generated in an output side to the switch element as a driving voltage for driving the switch element, and a current control unit (402, 405) that is configured to open and close a current path between the output side of the source follower circuit (401, 404) and a second power supply terminal supplied with the second power supply voltage (GND or VCC), in response to the control signal.
A magnetic resonance imaging gradient coil assembly comprising: - a cylindrical coil carrier tube, wherein the cylindrical coil carrier tube has an inner surface and an outer surface, where the cylindrical coil carrier tube has a cylindrical axis of symmetry, wherein the cylindrical coil carrier tube has a center, wherein the cylindrical coil carrier tube has a photon detector ring receptacle recessed into the inner surface of the cylindrical coil carrier tube, wherein the photon detector ring receptacle is centered about the center, wherein the photon detector ring receptacle comprises side walls formed from the cylindrical carrier tube and a solid back wall formed from the cylindrical carrier tube; and - a set of magnetic resonance imaging gradient coils (208, 210) attached to the cylindrical coil carrier tube wherein the magnetic resonance imaging gradient coil assembly further comprises one or more cables and connectors configured for connecting said one or more cables to a photon detector ring received in the photon detector ring receptacle; wherein the outer surface of the cylindrical coil carrier tube comprises channels configured to route the one or more cables through them, wherein the one or more cables are routed through said channels in the outer surface of the cylindrical coil carrier tube. - a cylindrical coil carrier tube, wherein the cylindrical coil carrier tube has an inner surface and an outer surface, where the cylindrical coil carrier tube has a cylindrical axis of symmetry, wherein the cylindrical coil carrier tube has a center, wherein the cylindrical coil carrier tube has a photon detector ring receptacle recessed into the inner surface of the cylindrical coil carrier tube, wherein the photon detector ring receptacle is centered about the center, wherein the photon detector ring receptacle comprises side walls formed from the cylindrical carrier tube and a solid back wall formed from the cylindrical carrier tube; and - a set of magnetic resonance imaging gradient coils (208, 210) attached to the cylindrical coil carrier tube wherein the magnetic resonance imaging gradient coil assembly further comprises one or more cables and connectors configured for connecting said one or more cables to a photon detector ring received in the photon detector ring receptacle; wherein the outer surface of the cylindrical coil carrier tube comprises channels configured to route the one or more cables through them, wherein the one or more cables are routed through said channels in the outer surface of the cylindrical coil carrier tube.
A motor drive assembly comprising: a motor for rotating a shaft, the motor attached to a motor plate wherein the motor plate is in sliding contact with a surface of a housing of the motor drive assembly; a first wedge coupled to a first wedge bolt and the housing, the first wedge having an angled side and a straight side wherein the angled side of the first wedge is in sliding contact with a sloped side of the motor plate and the straight side is in sliding contact with an abutment; a first rail attached to the housing wherein the motor plate is in sliding contact with a surface of the first rail; and wherein tightening the first wedge bolt causes the angled side of the first wedge to slide against the sloped side of the motor plate and move the motor plate away from the first wedge bolt. a motor for rotating a shaft, the motor attached to a motor plate wherein the motor plate is in sliding contact with a surface of a housing of the motor drive assembly; a first wedge coupled to a first wedge bolt and the housing, the first wedge having an angled side and a straight side wherein the angled side of the first wedge is in sliding contact with a sloped side of the motor plate and the straight side is in sliding contact with an abutment; a first rail attached to the housing wherein the motor plate is in sliding contact with a surface of the first rail; and wherein tightening the first wedge bolt causes the angled side of the first wedge to slide against the sloped side of the motor plate and move the motor plate away from the first wedge bolt.
A control apparatus for a linear compressor, comprising: a coil winding body installable in a linear motor comprised in the linear compressor; a first capacitor connected in series to the coil winding body; a capacitance varying unit (50, 50a) being formed in a parallel structure to the first capacitor, and comprising a capacitor switch and a second capacitor (C2, C3); and a control unit for inducing an output change of the linear compressor, by varying the whole capacitance of the control apparatus by controlling the capacitor switch, characterized by a voltage and frequency sensing unit for sensing a voltage and a frequency of applied power, wherein the control unit is configured to control the capacitor switch according to the voltage and frequency of applied power. a coil winding body installable in a linear motor comprised in the linear compressor; a first capacitor connected in series to the coil winding body; a capacitance varying unit (50, 50a) being formed in a parallel structure to the first capacitor, and comprising a capacitor switch and a second capacitor (C2, C3); and a control unit for inducing an output change of the linear compressor, by varying the whole capacitance of the control apparatus by controlling the capacitor switch, characterized by a voltage and frequency sensing unit for sensing a voltage and a frequency of applied power, wherein the control unit is configured to control the capacitor switch according to the voltage and frequency of applied power.
An antibody or antibody fragment that binds to asprosin for use in treating obesity, diabetes, metabolic syndrome, or insulin resistance in an individual in need thereof, the use comprising administering an effective amount of said antibody to the individual, wherein asprosin consists of the amino acid sequence of SEQ ID NO: 1.
A method for producing an optically active BSH amino acid, comprising the step of reacting an optically active α-amino acid derivative having a halogen in a side chain with a cyanoethyl BSH compound represented by the formula: wherein said optically active α-amino acid derivative having a halogen in a side chain is represented by the structural formula: X- n- R-CH(NH 2)COOH, and a coupling manner of an amino group, a carboxyl group to α carbon is any one of optical isomers sterically in D-form or L-form, wherein X represents one halogen atom selected from the group consisting of a chlorine atom, a bromine atom, an iodine atom and a fluorine atom; A represents a linear alkylene, a branched alkylene or a substituted alkylene; and n represents an integer of from 1 to 10, wherein R may be present or absent and, if present, represents a linear alkylene, branched alkylene or substituted alkylene having 1 to 6 carbon atoms, wherein, when A and/or R is/are substituted alkylenes, each separate substituent includes, but is not limited to, one or more kinds of substituents including an amino group, a non-substituted or substituted phenyl group, an aminocarbonyl group, a methylthio group, a group having a heterocycle and a group having a fused heterocycle. wherein X represents one halogen atom selected from the group consisting of a chlorine atom, a bromine atom, an iodine atom and a fluorine atom; A represents a linear alkylene, a branched alkylene or a substituted alkylene; and n represents an integer of from 1 to 10, wherein R may be present or absent and, if present, represents a linear alkylene, branched alkylene or substituted alkylene having 1 to 6 carbon atoms, wherein, when A and/or R is/are substituted alkylenes, each separate substituent includes, but is not limited to, one or more kinds of substituents including an amino group, a non-substituted or substituted phenyl group, an aminocarbonyl group, a methylthio group, a group having a heterocycle and a group having a fused heterocycle.
A disposable absorbent article (310, 520, 2100) comprising a longitudinal axis (380, 590) and a lateral axis (390, 592) generally perpendicular to the longitudinal axis, a pair of side edges (326, 328, 550) extending generally parallel to the longitudinal axis and a pair of end edges (322, 324, 552) joining said pair of side edges on opposite ends of the disposable absorbent article, the disposable absorbent article further comprising: a topsheet (314, 524, 2014) comprising a first zone having a width parallel to a lateral axis which does not extend the full width of the topsheet, a second zone and a third zone disposed either side of the first zone, wherein the first zone comprises an array of apertures and the second and third zones comprise tufts oriented in a Z-direction or negative Z-direction; a first end area and a second end area, a first plurality of bond sites disposed in the second zone and the third zone, wherein the plurality of bond sites are configured in a curvilinear manner in at least the first end area or the second end area and mask a boundary of the first zone; a backsheet (316, 526); and an absorbent core (318, 528) disposed between the topsheet and the backsheet. a topsheet (314, 524, 2014) comprising a first zone having a width parallel to a lateral axis which does not extend the full width of the topsheet, a second zone and a third zone disposed either side of the first zone, wherein the first zone comprises an array of apertures and the second and third zones comprise tufts oriented in a Z-direction or negative Z-direction; a first end area and a second end area, a first plurality of bond sites disposed in the second zone and the third zone, wherein the plurality of bond sites are configured in a curvilinear manner in at least the first end area or the second end area and mask a boundary of the first zone; a backsheet (316, 526); and an absorbent core (318, 528) disposed between the topsheet and the backsheet.
A method of detecting cells in a sample, the method comprising: providing a cell concentration agent, a hydrogel comprising a cell extractant and a liquid sample suspected of containing cells; contacting the liquid sample and the cell concentration agent for a period of time; isolating the cell concentration agent from at least a portion of the liquid sample; forming a liquid mixture comprising the isolated cell concentration agent and the hydrogel, wherein the cell extractant is released into the mixture; and detecting a biological analyte; wherein detecting the biological analyte comprises quantifying an amount of the biological analyte; wherein the amount of the biological analyte is quantified two or more times; wherein the amount of biological analyte detected at a first time point before an effective amount of cell extractant is released from the hydrogel is compared to the amount of biological analyte detected at a second time point after an effective amount of cell extractant is released from the hydrogel. providing a cell concentration agent, a hydrogel comprising a cell extractant and a liquid sample suspected of containing cells; contacting the liquid sample and the cell concentration agent for a period of time; isolating the cell concentration agent from at least a portion of the liquid sample; forming a liquid mixture comprising the isolated cell concentration agent and the hydrogel, wherein the cell extractant is released into the mixture; and detecting a biological analyte; wherein detecting the biological analyte comprises quantifying an amount of the biological analyte; wherein the amount of the biological analyte is quantified two or more times; wherein the amount of biological analyte detected at a first time point before an effective amount of cell extractant is released from the hydrogel is compared to the amount of biological analyte detected at a second time point after an effective amount of cell extractant is released from the hydrogel.
A stroller seat which is configured to be put on a stroller and which comprises: a main body which is configured to extend in a vertical direction from a backrest to a seat of the stroller when put on the stroller and which includes an inner space adapted to circulate air; an extension (20, 30) which projects in a left or right direction from at least one of both side portions (10a, 10b) of the main body, the side portions (10a, 10b) being at approximately the center of the main body in the vertical direction, and which includes an inner space communicating with the inner space of the main body; a fan mount which is provided in the extension (20, 30); and an electric fan mounted on the fan mount, wherein the main body includes, on a front side as a seat side which is opposite the backrest of the stroller when the main body is put on the stroller, an air outlet which discharges inner air outward, and the electric fan mounted on the fan mount is configured to introduce air and to flow the introduced air into the main body through the extension (20, 30), characterized in that the extension (20, 30) is configured to hang down from an armrest of the stroller while the stroller seat is put on the stroller. a main body which is configured to extend in a vertical direction from a backrest to a seat of the stroller when put on the stroller and which includes an inner space adapted to circulate air; an extension (20, 30) which projects in a left or right direction from at least one of both side portions (10a, 10b) of the main body, the side portions (10a, 10b) being at approximately the center of the main body in the vertical direction, and which includes an inner space communicating with the inner space of the main body; a fan mount which is provided in the extension (20, 30); and an electric fan mounted on the fan mount, wherein the main body includes, on a front side as a seat side which is opposite the backrest of the stroller when the main body is put on the stroller, an air outlet which discharges inner air outward, and the electric fan mounted on the fan mount is configured to introduce air and to flow the introduced air into the main body through the extension (20, 30), characterized in that the extension (20, 30) is configured to hang down from an armrest of the stroller while the stroller seat is put on the stroller.
A stepped structure comprising a plurality of separate run portions (1, 1a, 1b), wherein said plurality of separate run portions each comprise upper and lower sheets (10, 20) each sheet having a forward longitudinal end portion (14, 24) bent downwards and a rear longitudinal end portion (12, 22) bent upwards, and a core between said upper and lower sheets, characterized in that a cavity between said upper and lower sheets (10, 20) of each separate run portion (1, 1a, 1b) is substantially sealed from outside between said respective forward longitudinal end portion (14, 24) and said respective rear longitudinal end portion (12, 22).
A flap device for an internal combustion engine, comprising: a flow housing configured to delimit a flow duct, a flap body rotatably attached to the shaft in the flow duct, a shaft on which the flap body is fastened, an actuator configured to rotate the shaft and thereby the flap body in the flow duct, an actuator housing configured to have the actuator be arranged therein; the shaft being configured to project into the actuator housing and being mounted at one side via a first bearing and a second bearing (64; 72, 76). the first bearing being arranged in a first bearing seat formed on the flow housing, and the second bearing (64; 72, 76) being arranged in a second bearing seat formed on the actuator housing, characterized in that a protrusion of the flow housing in which the first bearing seat is formed, abuts radially against a receiving element of the actuator housing. a flow housing configured to delimit a flow duct, a flap body rotatably attached to the shaft in the flow duct, a shaft on which the flap body is fastened, an actuator configured to rotate the shaft and thereby the flap body in the flow duct, an actuator housing configured to have the actuator be arranged therein; the shaft being configured to project into the actuator housing and being mounted at one side via a first bearing and a second bearing (64; 72, 76). the first bearing being arranged in a first bearing seat formed on the flow housing, and the second bearing (64; 72, 76) being arranged in a second bearing seat formed on the actuator housing, characterized in that a protrusion of the flow housing in which the first bearing seat is formed, abuts radially against a receiving element of the actuator housing.
A method comprising: forming a shell over a breakable mold, wherein a first section of the breakable mold is joined to a second section of the breakable mold by one or more weakened regions; breaking the breakable mold at the one or more weakened regions to enable the first section of the breakable mold to at least partially separate from the second section of the breakable mold; removing the first section of the breakable mold from the shell; and separately removing the second section of the breakable mold from the shell, wherein the breakable mold comprises a mold of a dental arch for a patient and the shell comprises at least one of an orthodontic aligner, an orthodontic retainer or an orthodontic splint to be used for at least one of aligning, retaining, or positioning one or more teeth of the patient. forming a shell over a breakable mold, wherein a first section of the breakable mold is joined to a second section of the breakable mold by one or more weakened regions; breaking the breakable mold at the one or more weakened regions to enable the first section of the breakable mold to at least partially separate from the second section of the breakable mold; removing the first section of the breakable mold from the shell; and separately removing the second section of the breakable mold from the shell, wherein the breakable mold comprises a mold of a dental arch for a patient and the shell comprises at least one of an orthodontic aligner, an orthodontic retainer or an orthodontic splint to be used for at least one of aligning, retaining, or positioning one or more teeth of the patient.
An abnormality detection method for detecting an abnormality in an abnormality detection apparatus (300, 1300) in an on-board network system, the on-board network system including a plurality of electronic control units (100a - 100d) that transmit and receive messages via a network (200a, 200b), wherein each of the plurality of electronic control units transmits messages periodically at fixed intervals, the abnormality detection method comprising: determining a unit time; counting the number of messages received from the network (200a, 200b) in a detection window, which has a time length corresponding to the determined unit time; generating, at the end of the detection window, feature information based on the number of messages received from the network (200a, 200b) in the detection window; and judging whether there is an abnormality according to a result of an operation process performed using the feature information and a particular model indicating a criterion in terms of a message occurrence frequency; wherein the unit time is determined every predefined time period, wherein the counting and the generating are performed sequentially in every detection window with a length equal to the unit time determined most recently, and wherein in the judging, the operation process is performed on each piece of sequentially generated feature information. determining a unit time; counting the number of messages received from the network (200a, 200b) in a detection window, which has a time length corresponding to the determined unit time; generating, at the end of the detection window, feature information based on the number of messages received from the network (200a, 200b) in the detection window; and judging whether there is an abnormality according to a result of an operation process performed using the feature information and a particular model indicating a criterion in terms of a message occurrence frequency; wherein the unit time is determined every predefined time period, wherein the counting and the generating are performed sequentially in every detection window with a length equal to the unit time determined most recently, and wherein in the judging, the operation process is performed on each piece of sequentially generated feature information.
A method for determining the layer thickness (d) of a bonding layer between a first packaging layer and a second packaging layer, wherein the first packaging layer is acted upon by a laser pulse, and the resulting ultrasonic wave is detected at a surface of the first or second packaging layer (2, 3), and the measurement signal, which is detected over the time, is evaluated for determining the bonding layer thickness (d), characterized in that the transit time of the ultrasonic wave through the first and second packaging layers (2, 3) is determined in advance and a maximum (M 1, M 2, M n) in the measurement signal is sought, and the point in time of occurrence of this maximum (M 1, M 2, M n) is determined as the total transit time (T 1, T 2, T n) of the ultrasonic wave, wherein the total transit time is the transit time for passing through the two packaging layers and the bonding layer, and that the transit time of the ultrasonic wave through the first and second packaging layers (2, 3) is subtracted from the total transit time (T 1, T 2, T n), and the thickness (d) of the bonding layer is deduced from that together with the known ultrasonic speed (v s) in the bonding layer.