mhurhangee/ep-ind-claims huggingface dataset:
A gas metering valve for a dual fuel engine, which has a displaceable closing body which, in a position of resting against a valve seat, closes the gas metering valve and, in a position of being lifted off from the valve seat, opens the gas metering valve, wherein the valve seat is movably situated along a valve seat guide, characterized in that the gas metering valve is actuatable in a gas operating mode, in which the gas metering valve meters combustion gas via a gas channel into an intake manifold of the dual fuel engine, and in a liquid fuel operating mode, in which the gas metering valve remains sealing closed against the pressure prevalent in the intake manifold, and that the relationship of the surface of valve seat facing closing body to the surface of valve seat facing intake manifold is selected in such a manner that the pressure of the combustion gas acting from gas channel upon valve seat during the gas operating mode always exerts a greater force onto valve seat in the axial direction than the force exerted by the maximum pressure in intake manifold onto valve seat in the opposite direction, wherein the valve seat in the gas operating mode, owing to the combustion gas pressure in the gas channel, is pressed away from the closing body against a stop in the gas metering valve and is kept in its operating position, and wherein the valve seat in the liquid fuel operating mode, in which the pressure in the interior of the gas metering valve is lowered by the interrupted gas supply, is sealingly pressed by the pressure from the intake manifold against the closing body.
A staged fuel injector comprising: a) a main fuel circuit for delivering fuel to a main fuel atomizer, the main fuel atomizer including a radially outer prefilmer and a radially inner fuel swirler, wherein portions of the main fuel circuit are formed in the prefilmer and fuel exit ports (70d, 270d) associated with the main fuel circuit are formed in the prefilmer; and b) a pilot fuel circuit for delivering fuel to a pilot fuel atomizer which is located radially inward of the main fuel atomizer, wherein portions of the pilot fuel circuit are formed in the prefilmer and in the fuel swirler and are positioned proximate to and in thermal contact with the fuel exit ports and a portion of the pilot fuel circuit formed in the prefilmer is positioned downstream of the fuel exit ports. a) a main fuel circuit for delivering fuel to a main fuel atomizer, the main fuel atomizer including a radially outer prefilmer and a radially inner fuel swirler, wherein portions of the main fuel circuit are formed in the prefilmer and fuel exit ports (70d, 270d) associated with the main fuel circuit are formed in the prefilmer; and b) a pilot fuel circuit for delivering fuel to a pilot fuel atomizer which is located radially inward of the main fuel atomizer, wherein portions of the pilot fuel circuit are formed in the prefilmer and in the fuel swirler and are positioned proximate to and in thermal contact with the fuel exit ports and a portion of the pilot fuel circuit formed in the prefilmer is positioned downstream of the fuel exit ports.
A calculation method carried out by a computer-comprising the steps of: acquiring first distance image information including information of a distance between a point group constituting an object and a first sensor, measured by the first sensor, and second distance image information including information of a distance between a point group constituting the object and a second sensor, measured by the second sensor; acquiring a first vector, a second vector in a different direction from the first vector, and a first translation point from the first distance image information; acquiring information of a third vector treated as a vector parallel to and in a same direction as the first vector in a real space, a fourth vector treated as a vector parallel to and in a same direction as the second vector in the real space, and a second translation point treated as a same position as the first translation point in the real space from the second distance image information; calculating a rotation angle and a translation distance for aligning the point group of the object measured by the second sensor with respect to the point group of the object measured by the first sensor on the basis of an end point of the first vector, an end point of the second vector, the first translation point, an end point of the third vector, an end point of the fourth vector, and the second translation point; and storing the rotation angle and the translation distance in a storage device. acquiring first distance image information including information of a distance between a point group constituting an object and a first sensor, measured by the first sensor, and second distance image information including information of a distance between a point group constituting the object and a second sensor, measured by the second sensor; acquiring a first vector, a second vector in a different direction from the first vector, and a first translation point from the first distance image information; acquiring information of a third vector treated as a vector parallel to and in a same direction as the first vector in a real space, a fourth vector treated as a vector parallel to and in a same direction as the second vector in the real space, and a second translation point treated as a same position as the first translation point in the real space from the second distance image information; calculating a rotation angle and a translation distance for aligning the point group of the object measured by the second sensor with respect to the point group of the object measured by the first sensor on the basis of an end point of the first vector, an end point of the second vector, the first translation point, an end point of the third vector, an end point of the fourth vector, and the second translation point; and storing the rotation angle and the translation distance in a storage device.
A cluster-supporting catalyst, comprising boron-substituted zeolite particles, and catalyst metal clusters supported within the pores of the boron-substituted zeolite particles, wherein the metal is rhodium, and the boron-substituted zeolite particles are silicalite type (code: MFI) having an Si/(Al and B) ratio of 500 or less, wherein the cluster-supporting catalyst is obtainable by: providing a dispersion liquid containing acetone and the boron-substituted zeolite particles dispersed in acetone, and forming, in the dispersion liquid, catalyst metal clusters having a positive charge, and supporting the catalyst metal clusters on the acid sites within the pores of the boron-substituted zeolite particles through an electrostatic interaction, wherein the clusters are formed in the dispersion liquid by a method of laser ablation in liquid, using a NAD:YAG laser with an intensity of 2W. the metal is rhodium, and the boron-substituted zeolite particles are silicalite type (code: MFI) having an Si/(Al and B) ratio of 500 or less, wherein the cluster-supporting catalyst is obtainable by: providing a dispersion liquid containing acetone and the boron-substituted zeolite particles dispersed in acetone, and forming, in the dispersion liquid, catalyst metal clusters having a positive charge, and supporting the catalyst metal clusters on the acid sites within the pores of the boron-substituted zeolite particles through an electrostatic interaction, wherein the clusters are formed in the dispersion liquid by a method of laser ablation in liquid, using a NAD:YAG laser with an intensity of 2W. providing a dispersion liquid containing acetone and the boron-substituted zeolite particles dispersed in acetone, and forming, in the dispersion liquid, catalyst metal clusters having a positive charge, and supporting the catalyst metal clusters on the acid sites within the pores of the boron-substituted zeolite particles through an electrostatic interaction, wherein the clusters are formed in the dispersion liquid by a method of laser ablation in liquid, using a NAD:YAG laser with an intensity of 2W.
An antenna and a circuit board, the antenna comprising a wiring pattern disposed in a substantially-rectangular antenna region on the circuit board, the substantially-rectangular antenna region being longer in a first direction than in a second direction crossing the first direction, the wiring pattern comprising: a first pad and a second pad each spreading, respectively, between each of short sides at both ends of the first direction of the antenna region and the first pad and second pad being positioned spaced from each other with respect to the first direction in the antenna region; a radiating element and a feeding point, characterised in that the radiating element extends from the feeding point in the vicinity of one long side of the antenna region toward another long side in the second direction between the first pad and the second pad with respect to the first direction, further bending toward the first pad, and extending in the first direction to be capacitively coupled to the first pad; and a meandering element connected to the radiating element in the vicinity of the first pad and extending in the first direction away from the first pad while meandering reciprocally in the second direction; and a third pad extending from an adjacent point that is adjacent to the second pad side and in the first direction from the feeding point, toward the other long side in the second direction, further bending toward the second pad, and extending in the first direction to be capacitively coupled to the second pad, wherein the first pad and the second pad are for low bands of the antenna and the third pad is for a high band of the antenna. a first pad and a second pad each spreading, respectively, between each of short sides at both ends of the first direction of the antenna region and the first pad and second pad being positioned spaced from each other with respect to the first direction in the antenna region; a radiating element and a feeding point, characterised in that the radiating element extends from the feeding point in the vicinity of one long side of the antenna region toward another long side in the second direction between the first pad and the second pad with respect to the first direction, further bending toward the first pad, and extending in the first direction to be capacitively coupled to the first pad; and a meandering element connected to the radiating element in the vicinity of the first pad and extending in the first direction away from the first pad while meandering reciprocally in the second direction; and a third pad extending from an adjacent point that is adjacent to the second pad side and in the first direction from the feeding point, toward the other long side in the second direction, further bending toward the second pad, and extending in the first direction to be capacitively coupled to the second pad, wherein the first pad and the second pad are for low bands of the antenna and the third pad is for a high band of the antenna.
Tyre comprising a tread, the composition of which is based on at least a predominant diene elastomer and a minor thermoplastic elastomer, the said thermoplastic elastomer being a block copolymer comprising at least one elastomer block of polyether type and at least one thermoplastic block of non-styrene type, the said composition comprising a reinforcing filler at a content of less than 80 phr and the said composition not comprising a plasticizing system or comprising less than 20 phr thereof.
Process for producing an aqueous chlorine dioxide solution by means of chlorine (Cl 2) and oxygen ions (O 2 - /O 2 +) in a reactor (10; 30; 80), characterized in that the oxygen ions are produced by means of high voltage in an ionization unit located upstream of the reactor, giving a gas containing oxygen ions, in that the chlorine is produced electrolytically and in that the electrolytically produced chlorine is reacted with the oxygen ions in an aqueous medium in order to give an aqueous chlorine dioxide solution.
Fitting, in particular an inlet and/or outlet fitting, comprising a water guide pipe with a wall laterally delimiting the water guide pipe, an opening and a further opening and an insert element which can be inserted at least partially into the water guide pipe via one of the two openings (4a, 4b) and removed again, wherein the water guide pipe has a first pipe section extending along a first central axis and a second pipe section extending along a second central axis, wherein the first central axis is oriented at an angle (α) inclined at an angle to the second central axis, wherein the insert element is at least partially insertable into the second pipe section, characterized in that, in the inserted state, the insert element projects into a projection of the cross section of the first pipe section as seen in the direction of the first central axis and forms a baffle surface for the water emerging from the first pipe section into the second pipe section. a water guide pipe with a wall laterally delimiting the water guide pipe, an opening and a further opening and an insert element which can be inserted at least partially into the water guide pipe via one of the two openings (4a, 4b) and removed again, wherein the water guide pipe has a first pipe section extending along a first central axis and a second pipe section extending along a second central axis, wherein the first central axis is oriented at an angle (α) inclined at an angle to the second central axis, wherein the insert element is at least partially insertable into the second pipe section, characterized in that, in the inserted state, the insert element projects into a projection of the cross section of the first pipe section as seen in the direction of the first central axis and forms a baffle surface for the water emerging from the first pipe section into the second pipe section.
A motor drive device comprising: an electric motor; a controller configured to control a torque of the electric motor, or a quantity of state corresponding to the torque; and a torque transmitter configured to transmit the torque of the electric motor to a wheel of a vehicle, wherein the controller includes a torque fluctuation inhibiting section configured to inhibit torque fluctuation in the electric motor, and the torque fluctuation inhibiting section includes: an execution determination section configured to determine whether or not to inhibit the torque fluctuation in the electric motor, based on a result of comparison between an estimated value of a torque fluctuation frequency in the electric motor, and one or both of transmission characteristics of the torque transmitter and vibration characteristics in the vehicle; characterised by a torque fluctuation estimation section configured to generate the estimated value of the torque fluctuation frequency, based on a relationship between an angular velocity of the electric motor and a torque fluctuation cycle per predetermined rotation angle in the electric motor. an electric motor; a controller configured to control a torque of the electric motor, or a quantity of state corresponding to the torque; and a torque transmitter configured to transmit the torque of the electric motor to a wheel of a vehicle, wherein the controller includes a torque fluctuation inhibiting section configured to inhibit torque fluctuation in the electric motor, and the torque fluctuation inhibiting section includes: an execution determination section configured to determine whether or not to inhibit the torque fluctuation in the electric motor, based on a result of comparison between an estimated value of a torque fluctuation frequency in the electric motor, and one or both of transmission characteristics of the torque transmitter and vibration characteristics in the vehicle; characterised by a torque fluctuation estimation section configured to generate the estimated value of the torque fluctuation frequency, based on a relationship between an angular velocity of the electric motor and a torque fluctuation cycle per predetermined rotation angle in the electric motor. an execution determination section configured to determine whether or not to inhibit the torque fluctuation in the electric motor, based on a result of comparison between an estimated value of a torque fluctuation frequency in the electric motor, and one or both of transmission characteristics of the torque transmitter and vibration characteristics in the vehicle; characterised by a torque fluctuation estimation section configured to generate the estimated value of the torque fluctuation frequency, based on a relationship between an angular velocity of the electric motor and a torque fluctuation cycle per predetermined rotation angle in the electric motor.
A sensor package structure, comprising: a substrate; a retaining wall disposed on the substrate and enclosing an accommodating space; an electronic chip arranged in the accommodating space and fixed on the substrate by flip-chip bonding; a bottom layer filled in the accommodating space and surrounding a lateral side of the electronic chip; an adhesive layer having a bottom side adhered to the electronic chip and the bottom layer, thereby entirely embedding the electronic chip in the bottom layer and the adhesive layer; a sensor chip having a size greater than that of the electronic chip, wherein the sensor chip has a top surface, a bottom surface, and a lateral surface that is connected to the top surface and the bottom surface; the bottom surface of the sensor chip is adhered to a top side of the adhesive layer; a light-permeable sheet arranged above the top surface of the sensor chip; a plurality of metal wires electrically connected to the substrate and the sensor chip; and a package body disposed on the substrate and covering a lateral side of the retaining wall and the lateral surface of the sensor chip, wherein the metal wires are entirely embedded in the package body; the light-permeable sheet is fixed above the sensor chip through the package body, and is partially exposed from the package body. a substrate; a retaining wall disposed on the substrate and enclosing an accommodating space; an electronic chip arranged in the accommodating space and fixed on the substrate by flip-chip bonding; a bottom layer filled in the accommodating space and surrounding a lateral side of the electronic chip; an adhesive layer having a bottom side adhered to the electronic chip and the bottom layer, thereby entirely embedding the electronic chip in the bottom layer and the adhesive layer; a sensor chip having a size greater than that of the electronic chip, wherein the sensor chip has a top surface, a bottom surface, and a lateral surface that is connected to the top surface and the bottom surface; the bottom surface of the sensor chip is adhered to a top side of the adhesive layer; a light-permeable sheet arranged above the top surface of the sensor chip; a plurality of metal wires electrically connected to the substrate and the sensor chip; and a package body disposed on the substrate and covering a lateral side of the retaining wall and the lateral surface of the sensor chip, wherein the metal wires are entirely embedded in the package body; the light-permeable sheet is fixed above the sensor chip through the package body, and is partially exposed from the package body.
A print liquid supply apparatus, comprising a container to hold print liquid, wherein the container comprises either (a) a liquid reservoir to hold the print liquid and a vent and/or pressurizing mechanism connected to the inside of the reservoir or (b) a collapsible bag to hold the print liquid and a support structure arranged at least partially around the collapsible bag and an interface structure to fluidically connect the container to a receiving station, the container having a first, second and third dimension that are perpendicular to each other, the interface structure having a first, second and third dimension parallel to said first, second and third dimension of the container, respectively, the interface structure projecting outwards with respect to the container in the direction of the first dimensions (d1, D1), wherein the first dimension of the interface structure is less than half of the first dimension of the container, wherein the interface structure comprises a liquid interface configured to fluidically connect to a corresponding fluidic interface of the receiving station, and a liquid channel fluidically connecting the container and the liquid interface, the liquid channel and interface defining a main liquid flow direction approximately parallel to the second dimension (d2, D2) of the interface and container, wherein a projecting portion of the container projects in a direction parallel to the main liquid flow direction surpassing the liquid interface in the main liquid flow direction. a container to hold print liquid, wherein the container comprises either (a) a liquid reservoir to hold the print liquid and a vent and/or pressurizing mechanism connected to the inside of the reservoir or (b) a collapsible bag to hold the print liquid and a support structure arranged at least partially around the collapsible bag and an interface structure to fluidically connect the container to a receiving station, the container having a first, second and third dimension that are perpendicular to each other, the interface structure having a first, second and third dimension parallel to said first, second and third dimension of the container, respectively, the interface structure projecting outwards with respect to the container in the direction of the first dimensions (d1, D1), wherein the first dimension of the interface structure is less than half of the first dimension of the container, wherein the interface structure comprises a liquid interface configured to fluidically connect to a corresponding fluidic interface of the receiving station, and a liquid channel fluidically connecting the container and the liquid interface, the liquid channel and interface defining a main liquid flow direction approximately parallel to the second dimension (d2, D2) of the interface and container,
A compound of formula: wherein R 1 is selected from hydrogen, fluorine, bromine, -OCH 3 and methyl; R 2 is hydrogen or methyl; R 3 is hydrogen or methyl; X is N; R 5 is selected from hydrogen, fluorine, -CF 3 and -CN; YisN; Z is N or CR 7; R 7 is selected from hydrogen, fluorine, -OCH 3, -OCHF 2, -OCH 2 CF 3, and -N(CH 3) 2; R 8 is selected from hydrogen, fluorine, methyl and -OCH 3; n is 1 or 2; R 9 is selected from fluorine, cyclopropyl, -OCH 3, -OH, -OCF 3, CHF 2, -CH CH 3 and-CH CH 3, or a pharmaceutically acceptable salt thereof. R 1 is selected from hydrogen, fluorine, bromine, -OCH 3 and methyl; R 2 is hydrogen or methyl; R 3 is hydrogen or methyl; X is N; R 5 is selected from hydrogen, fluorine, -CF 3 and -CN; YisN; Z is N or CR 7; R 7 is selected from hydrogen, fluorine, -OCH 3, -OCHF 2, -OCH 2 CF 3, and -N(CH 3) 2; R 8 is selected from hydrogen, fluorine, methyl and -OCH 3; n is 1 or 2; R 9 is selected from fluorine, cyclopropyl, -OCH 3, -OH, -OCF 3, CHF 2, -CH CH 3 and-CH CH 3, or a pharmaceutically acceptable salt thereof.