mhurhangee/patent-ind-claim-en huggingface dataset:
A centrifugal compressor for an aircraft engine, comprising: an impeller mounted for rotation about an axis , the impeller having impeller blades extending from an inducer end to an exducer end ; a shroud extending over the impeller blades ; a main flow passage (FP) defined between the shroud and the impeller ; a cavity fluidly communicating with the main flow passage (FP) via at least one extraction port and at least one reinjection port , the reinjection port fluidly connected to the main flow passage (FP) upstream of the extraction port relative to a flow direction through the main flow passage (FP), the reinjection port disposed upstream of the exducer end of the impeller blade, in an exducer portion (EX) of the shroud , characterized in that the at least one reinjection port has a central line (X, Y) extending from the cavity to a reinjection outlet defined in a gas path surface of the shroud , the central line (X, Y) radially angled such that a projection of the central line (X, Y) at the reinjection outlet extends radially away at an angle θ of 45° ≤ θ < 90° relative to the axis , in the flow direction. an impeller mounted for rotation about an axis , the impeller having impeller blades extending from an inducer end to an exducer end ; a shroud extending over the impeller blades ; a main flow passage (FP) defined between the shroud and the impeller ; a cavity fluidly communicating with the main flow passage (FP) via at least one extraction port and at least one reinjection port , the reinjection port fluidly connected to the main flow passage (FP) upstream of the extraction port relative to a flow direction through the main flow passage (FP), the reinjection port disposed upstream of the exducer end of the impeller blade, in an exducer portion (EX) of the shroud , characterized in that the at least one reinjection port has a central line (X, Y) extending from the cavity to a reinjection outlet defined in a gas path surface of the shroud , the central line (X, Y) radially angled such that a projection of the central line (X, Y) at the reinjection outlet extends radially away at an angle θ of 45° ≤ θ < 90° relative to the axis , in the flow direction.
A light emitting diode (LED) apparatus comprising: a plurality of substrate layers (10-1,10-2,10-3), each substrate layer of the plurality of substrate layers corresponding to one of a plurality of sub-pixels of a pixel; a heat sink plate provided on a first side of the plurality of substrate layers, the heat sink plate including a patterned area provided between adjacent substrate layers of the plurality of substrate layers; a fluorescent material (30-1, 30-2) provided on the heat sink plate overlapping at least a portion of one of the plurality of substrate layers; and a plurality of light emitting diodes (40-1, 40-2, 40-3), each light emitting diode of the plurality of light emitting diodes being provided on a second side opposite to the first side of each substrate layer, characterized in that : the patterned area of the heat sink plate is black-patterned to prevent lights emitted from the plurality of light emitting diodes (40-1, 40-2, 40-3) and passing through the plurality of substrate layers from mixing with one another. a plurality of substrate layers (10-1,10-2,10-3), each substrate layer of the plurality of substrate layers corresponding to one of a plurality of sub-pixels of a pixel; a heat sink plate provided on a first side of the plurality of substrate layers, the heat sink plate including a patterned area provided between adjacent substrate layers of the plurality of substrate layers; a fluorescent material (30-1, 30-2) provided on the heat sink plate overlapping at least a portion of one of the plurality of substrate layers; and a plurality of light emitting diodes (40-1, 40-2, 40-3), each light emitting diode of the plurality of light emitting diodes being provided on a second side opposite to the first side of each substrate layer, characterized in that : the patterned area of the heat sink plate is black-patterned to prevent lights emitted from the plurality of light emitting diodes (40-1, 40-2, 40-3) and passing through the plurality of substrate layers from mixing with one another. the patterned area of the heat sink plate is black-patterned to prevent lights emitted from the plurality of light emitting diodes (40-1, 40-2, 40-3) and passing through the plurality of substrate layers from mixing with one another.
Auxiliary headlamp (3, 3', 3") for a vehicle, which is set up to generate a light image in front of the vehicle by emitting light from at least one light module and to project it in front of the vehicle through downstream imaging optics , wherein at least one first light module is set up to generate a first light image (110', 110") with at least one first light distribution (111', 111") with at least one first, essentially vertically oriented, line-shaped intensity maximum (112', 112"), and at least a second light module is set up to generate a second light image (120', 120") with a second light distribution (121', 121") with at least one second, essentially rectangular intensity maximum (122', 122"), and the light images (110', 110", 120', 120") of both light modules are superimposed, the first intensity maximum (112', 112") being located vertically below the second intensity maximum (122', 122"), characterized in that the at least one firstlight module for generating a first light emission by at least one first light source , the at least one secondlight module for generating a second light emission by at least one second light source , the auxiliary headlamp (3, 3', 3") further comprising at least one primary optic , the primary optic having a plurality of light guiding elements , each light guiding element having a light input surface for coupling a light emission, and a light emission surface wherein the first light emission couples into at least one first light guide element of the primary optics , the second light emission couples into at least one second light guide element of the primary optics , at least one diaphragm downstream of the primary optics , having at least one first diaphragm opening , which faces the light exit surface of the first light guide element , and at least one second diaphragm opening , which faces the light exit surface of the second light guide element , 13b, 13c), wherein the primary optics and the diaphragm generate an overall illumination image from the light emissions and an imaging optics downstream of the diaphragm projects the overall illumination image as a light image in the radiation direction of the auxiliary headlamp (3, 3', 3").
A method of making a graphene-carbon nanotube hybrid material, comprising: associating a graphene film with a substrate; applying a catalyst and a carbon source onto the graphene film, wherein the catalyst comprises a metal and a buffer; and growing carbon nanotubes on the graphene film, wherein the catalyst is lifted off from the graphene film by the grown carbon nanotubes, and wherein the grown carbon nanotubes become covalently linked to the graphene film through carbon-carbon bonds, wherein the grown carbon-carbon bonds are at one or more junctions between the carbon nanotubes and the graphene film. associating a graphene film with a substrate; applying a catalyst and a carbon source onto the graphene film, wherein the catalyst comprises a metal and a buffer; and growing carbon nanotubes on the graphene film, wherein the catalyst is lifted off from the graphene film by the grown carbon nanotubes, and wherein the grown carbon nanotubes become covalently linked to the graphene film through carbon-carbon bonds, wherein the grown carbon-carbon bonds are at one or more junctions between the carbon nanotubes and the graphene film. wherein the catalyst is lifted off from the graphene film by the grown carbon nanotubes, and wherein the grown carbon nanotubes become covalently linked to the graphene film through carbon-carbon bonds, wherein the grown carbon-carbon bonds are at one or more junctions between the carbon nanotubes and the graphene film.
A pharmaceutical composition for oral administration comprising 6-(4,4-dimethylcyclohexyl)-4-[(1,1-dioxo-1λ 6 -thiomorpholin-4-yl)methyl]-2-methylthieno[2,3-d]pyrimidine or a pharmaceutically acceptable salt thereof, and a water-swellable substance, wherein the water-swellable substance is one, or two or more selected from the group consisting of a polymer compound obtained by condensation polymerization of β-glucose, a polymer compound obtained by condensation polymerization of α-glucose, and a polymer compound having a pyrrolidone functional group.
A communication apparatus comprising: a mapping unit configured to map sounding reference signals, SRSs, to frequency resources; and a transmitting unit configured to transmit the mapped SRSs, characterized in that each of the frequency resources has a fixed bandwidth regardless of variation of a SRS transmission bandwidth in a system bandwidth, to both ends of which control channels are mapped, the SRS transmission bandwidth covers a frequency band subject to estimation of channel quality information, and the SRS transmission bandwidth is uniformly divided into the frequency resources. a mapping unit configured to map sounding reference signals, SRSs, to frequency resources; and a transmitting unit configured to transmit the mapped SRSs,
A method of making a time-synchronised phasor measurement comprising: receiving, at an interrogator , an optical signal from a voltage and/or current sensor via an optical fibre ; characterised in that the method further comprises: receiving, at the interrogator , a time synchronisation signal ; determining, at the interrogator , a time t at which the optical signal was received from the voltage and/or current sensor ; determining, at the interrogator , a time delay to corresponding to the voltage and/or current sensor ; determining, at the interrogator , a time at which the optical signal originated from the voltage and/or current sensor by deducting the time delay to from the time t at which the optical signal was received; calculating, at the interrogator , a phasor from the received optical signal and time-stamping the phasor with the time at which the optical signal originated from the voltage and/or current sensor . receiving, at an interrogator , an optical signal from a voltage and/or current sensor via an optical fibre ; characterised in that the method further comprises: receiving, at the interrogator , a time synchronisation signal ; determining, at the interrogator , a time t at which the optical signal was received from the voltage and/or current sensor ; determining, at the interrogator , a time delay to corresponding to the voltage and/or current sensor ; determining, at the interrogator , a time at which the optical signal originated from the voltage and/or current sensor by deducting the time delay to from the time t at which the optical signal was received; calculating, at the interrogator , a phasor from the received optical signal and time-stamping the phasor with the time at which the optical signal originated from the voltage and/or current sensor . receiving, at the interrogator , a time synchronisation signal ; determining, at the interrogator , a time t at which the optical signal was received from the voltage and/or current sensor ; determining, at the interrogator , a time delay to corresponding to the voltage and/or current sensor ; determining, at the interrogator , a time at which the optical signal originated from the voltage and/or current sensor by deducting the time delay to from the time t at which the optical signal was received; calculating, at the interrogator , a phasor from the received optical signal and time-stamping the phasor with the time at which the optical signal originated from the voltage and/or current sensor .
A method for operating a compressor unit comprising one or more compressors , the compressor unit being arranged in a vapour compression system , the vapour compression system further comprising a heat rejecting heat exchanger , a high pressure expansion device , a receiver and at least one evaporator unit, each evaporator unit comprising an evaporator and an expansion device controlling a supply of refrigerant to the evaporator, each compressor of the compressor unit being connectable to a high pressure suction line and/or to a medium pressure suction line , the high pressure suction line interconnecting a gaseous outlet of the receiver and the compressor unit and the medium pressure suction line interconnecting an outlet of the evaporator unit(s) and the compressor unit , characterized in that the vapour compression system further comprises at least one valve arrangement arranged to selectively connect one of the compressors to the high pressure suction line or to the medium pressure suction line , and in that the method comprises the steps of: - defining two or more options for distributing the available compressor capacity of the compressor unit between being connected to the high pressure suction line and to the medium pressure suction line , - for each option, predicting an expected impact on one or more operating parameters of the vapour compression system , resulting from distributing the available compressor capacity according to the option, - selecting an option, based on the predicted expected impact for the options, and based on current operating demands of the vapour compression system , and - distributing the available compressor capacity according to the selected option by switching one or more compressors from being connected to the medium pressure suction line to being connected to the high pressure suction line , or vice versa, by operating the at least one valve arrangement . - defining two or more options for distributing the available compressor capacity of the compressor unit between being connected to the high pressure suction line and to the medium pressure suction line , - for each option, predicting an expected impact on one or more operating parameters of the vapour compression system , resulting from distributing the available compressor capacity according to the option, - selecting an option, based on the predicted expected impact for the options, and based on current operating demands of the vapour compression system , and - distributing the available compressor capacity according to the selected option by switching one or more compressors from being connected to the medium pressure suction line to being connected to the high pressure suction line , or vice versa, by operating the at least one valve arrangement .
An apparatus for delivering a comestible coating powder towards a glutinous product, said apparatus comprising a conveyor support surface, an electrostatic powder spray unit and a roller ; wherein the conveyor support surface is arranged to convey glutinous product to be processed by said roller ; wherein said roller is mounted for rotation and is spaced apart from the conveyor support surface ; the arrangement being such that said roller operably compresses glutinous product as the glutinous product passes therebetween, characterised in that the electrostatic powder spray unit is operable to direct an electrostatically charged powder to the roller , which has an opposite electrical potential to the powder, whereby to uniformly apply the powder substantially only upon the roller , whereby contact of the roller upon product to be processed is lubricated by loss of powder from the roller to the product as the glutinous product passes therebetween.
A rack export-import unit comprising: a setting section that is capable of setting racks thereon and that is capable of transferring each of the set racks in the same direction as a lateral direction of the rack ; an export section that is positioned on one end side of the setting section and that exports the rack transferred from the setting section ; an import section that is positioned on another end side of the setting section and that imports the rack to the setting section ; and a transfer prevention section that is capable of being transferred on the setting section , and that prevents the rack imported from the import section to the setting section from being transferred from the setting section to the export section . a setting section that is capable of setting racks thereon and that is capable of transferring each of the set racks in the same direction as a lateral direction of the rack ; an export section that is positioned on one end side of the setting section and that exports the rack transferred from the setting section ; an import section that is positioned on another end side of the setting section and that imports the rack to the setting section ; and a transfer prevention section that is capable of being transferred on the setting section , and that prevents the rack imported from the import section to the setting section from being transferred from the setting section to the export section .
A distributor plate for an impelling rotor of a rotating shaft impactor , where the impelling rotor is a chamber arranged in use to rotate about an axis and to radially eject material received therein through one or more ejection ports in a side wall of the chamber , characterised in that the distributor plate includes a body comprising a basal spigot configured to fasten the distributor plate into the rotor chamber when in use, the basal spigot being provided with a downwardly facing cavity arranged to receive a coupling bolt therein when the distributor plate is mounted in the chamber ; and a single wear element only, the single wear element being positioned on the body to alone cover an outer surface of the body onto which the material would otherwise be received.
A display system for a vehicle for displaying first images captured by at least one image sensor to a driver of the vehicle , the display system comprising: a first display screen configured to emit the first images in a first emission direction; a mirror apparatus configured to reflect the first images from the first display screen towards a viewing direction; and a first lens apparatus configured to receive the first images from the mirror apparatus , wherein the first lens apparatus : is configured to project the first images to a focal distance substantially opposite the viewing direction; and comprises a neutral display region configured to transmit visual information that appears to be located on a plane formed by a surface of the first lens apparatus ; and a rearview assembly housing containing the first display screen , the mirror apparatus , and the first lens apparatus disposed therein, wherein: the focal distance is positioned at least about 750 mm from eyes of the driver, and the distance from the eyes of the driver to the first lens apparatus is about 500 mm. a first display screen configured to emit the first images in a first emission direction; a mirror apparatus configured to reflect the first images from the first display screen towards a viewing direction; and a first lens apparatus configured to receive the first images from the mirror apparatus , wherein the first lens apparatus : is configured to project the first images to a focal distance substantially opposite the viewing direction; and comprises a neutral display region configured to transmit visual information that appears to be located on a plane formed by a surface of the first lens apparatus ; and is configured to project the first images to a focal distance substantially opposite the viewing direction; and comprises a neutral display region configured to transmit visual information that appears to be located on a plane formed by a surface of the first lens apparatus ; and a rearview assembly housing containing the first display screen , the mirror apparatus , and the first lens apparatus disposed therein, wherein: the focal distance is positioned at least about 750 mm from eyes of the driver, and the distance from the eyes of the driver to the first lens apparatus is about 500 mm. the focal distance is positioned at least about 750 mm from eyes of the driver, and the distance from the eyes of the driver to the first lens apparatus is about 500 mm.
A bispecific antibody comprising (i) a first heavy chain and a first light chain connected via disulfide bridges forming a first binding region that binds to human CD3 and (ii) a second heavy chain and a second light chain connected via disulfide bridges forming a second binding region that binds to human CD20; wherein the first heavy chain comprises the VH sequence as set forth in SEQ ID NO:6, and the first light chain comprises the VL sequence as set forth in SEQ ID NO:10; and the second heavy chain comprises the VH sequence as set forth in SEQ ID NO:29, and the second light chain comprises the VL sequence as set forth in SEQ ID NO:30; wherein the first and the second heavy chains comprise modified IgG1 constant regions, wherein in both the first and second heavy chains the amino acids in the positions corresponding to positions L234, L235, and D265 in a human IgG1 heavy chain are F, E, and A, respectively; wherein in the first heavy chain the amino acid in the position corresponding to position F405 in a human IgG1 heavy chain is L, and in the second heavy chain the amino acid in the position corresponding to position K409 in a human IgG1 heavy chain is R; wherein said amino acid positions are in accordance with Eu-numbering. wherein the first heavy chain comprises the VH sequence as set forth in SEQ ID NO:6, and the first light chain comprises the VL sequence as set forth in SEQ ID NO:10; and the second heavy chain comprises the VH sequence as set forth in SEQ ID NO:29, and the second light chain comprises the VL sequence as set forth in SEQ ID NO:30; wherein the first and the second heavy chains comprise modified IgG1 constant regions, wherein in both the first and second heavy chains the amino acids in the positions corresponding to positions L234, L235, and D265 in a human IgG1 heavy chain are F, E, and A, respectively; wherein in the first heavy chain the amino acid in the position corresponding to position F405 in a human IgG1 heavy chain is L, and in the second heavy chain the amino acid in the position corresponding to position K409 in a human IgG1 heavy chain is R; wherein said amino acid positions are in accordance with Eu-numbering.