mhurhangee/ep-ind-claims huggingface dataset:
A system for determining the location of a portable tag (230, 231; 330, 331) in a distinct zone (205; 305) comprising: at least a first array based ultrasound transmitter (210; 310), wherein said array based ultrasound transmitter is configured to steer a beam in an array plane and to transmit data to two or more distinct sectors (220 - 224; 320) within said zone (205; 305), wherein the data transmitted to each sector consists of a sector identification code; a portable tag (230, 231; 330, 331) comprising (i) a radio frequency transmitter configured to transmit a radio frequency signal and (ii) an ultrasound receiver configured to receive a sector identification code from said first array based ultrasound transmitter and to determine a received signal strength; a radio frequency receiver configured to communicate with the radio frequency transmitter via said radio frequency signal; and a processor in communication with the first array based ultrasound transmitter and the radio frequency receiver, wherein the processor is configured to determine the location of the portable tag within said two or more distinct sectors based on information transmitted from the radio frequency transmitter on the portable tag via said radio frequency signal to the radio frequency receiver, wherein the system is configured to use the received signal strength to determine the strongest sector data is received in, and thereby determine the sector in which the portable tag is located. at least a first array based ultrasound transmitter (210; 310), wherein said array based ultrasound transmitter is configured to steer a beam in an array plane and to transmit data to two or more distinct sectors (220 - 224; 320) within said zone (205; 305), wherein the data transmitted to each sector consists of a sector identification code; a portable tag (230, 231; 330, 331) comprising (i) a radio frequency transmitter configured to transmit a radio frequency signal and (ii) an ultrasound receiver configured to receive a sector identification code from said first array based ultrasound transmitter and to determine a received signal strength; a radio frequency receiver configured to communicate with the radio frequency transmitter via said radio frequency signal; and a processor in communication with the first array based ultrasound transmitter and the radio frequency receiver, wherein the processor is configured to determine the location of the portable tag within said two or more distinct sectors based on information transmitted from the radio frequency transmitter on the portable tag via said radio frequency signal to the radio frequency receiver, wherein the system is configured to use the received signal strength to determine the strongest sector data is received in, and thereby determine the sector in which the portable tag is located.
A subsea deployable installation and workover control system (IWOCS) skid for connection to a subsea component, the skid comprising: - a wireless communication unit for communication with a wireless communication unit at a topside installation, wherein the wireless communication unit comprises an acoustic transponder for communication with an acoustic transponder topside; - a control system for data storage and data filtering and transferring the filtered data to the wireless communication unit and receiving data from the wireless communication unit; - a self-contained fluid system comprising a fluid supply tank (5, 8), the fluid system being configured to be connected to a fluid connection on the subsea component to provide fluid to the subsea component; - an electric power source for supplying electric power to the communication unit and the control system. - a wireless communication unit for communication with a wireless communication unit at a topside installation, wherein the wireless communication unit comprises an acoustic transponder for communication with an acoustic transponder topside; - a control system for data storage and data filtering and transferring the filtered data to the wireless communication unit and receiving data from the wireless communication unit; - a self-contained fluid system comprising a fluid supply tank (5, 8), the fluid system being configured to be connected to a fluid connection on the subsea component to provide fluid to the subsea component; - an electric power source for supplying electric power to the communication unit and the control system.
A gas turbine engine comprising: a fan, a compressor section, a combustor section, and a turbine section, said turbine section for driving a shaft to in turn drive said fan and said compressor, at least one accessory shaft to be connected for rotation with said turbine section; a nacelle having an inner wall defining a bypass duct receiving bypass air from said fan, and an outer wall, said at least one drive shaft extending through said inner wall, characterized in that said drive shaft is connected to drive at least two accessory gear boxes (88, 90; 108A, 108B), with said at least two accessory gear boxes (88, 90; 108A, 108B) being received between said inner and outer walls (80, 82) of said nacelle and axially between an upstream end and a downstream end of said nacelle; and in that said engine is divided into two halves (305, 307), and a mount bracket for mounting said engine to an aircraft is in one of the halves, and said at least two accessory gear boxes (88, 90; 108A, 108B) are in an opposed half. a fan, a compressor section, a combustor section, and a turbine section, said turbine section for driving a shaft to in turn drive said fan and said compressor, at least one accessory shaft to be connected for rotation with said turbine section; a nacelle having an inner wall defining a bypass duct receiving bypass air from said fan, and an outer wall, said at least one drive shaft extending through said inner wall, characterized in that said drive shaft is connected to drive at least two accessory gear boxes (88, 90; 108A, 108B), with said at least two accessory gear boxes (88, 90; 108A, 108B) being received between said inner and outer walls (80, 82) of said nacelle and axially between an upstream end and a downstream end of said nacelle; and in that said engine is divided into two halves (305, 307), and a mount bracket for mounting said engine to an aircraft is in one of the halves, and said at least two accessory gear boxes (88, 90; 108A, 108B) are in an opposed half.
Dismountable seat assembly for being attached to anchoring means of a vehicle, the seat assembly comprising an individual back and an individual seat, attached together; attaching means, suitable for attaching the seat assembly to the anchoring means of the vehicle; characterized in that it further comprises emergency connecting means, connecting at least a part of the individual seat which is attached to the individual back to the attaching means in a detachable way, so that the individual back and the at least part of the individual seat attached to the individual back are detachable together from the attaching means. an individual back and an individual seat, attached together; attaching means, suitable for attaching the seat assembly to the anchoring means of the vehicle;
A mirror assembly (100, 300) comprising: a reflective portion (110, 310) configured to reflect incident light; a display unit (120, 320) arranged to overlap the reflective portion, wherein the display unit is configured to display at least one of a visual element and a blurred effect element; and a control unit is configured to: receive instruction to display a visual element or instruction to display a blurred effect element; characterized in that the control unit is further configured to: determine, based on the received instruction, a blur region for the visual element or a motion trajectory of the blurred effect element, wherein the blur region or the blurred effect element is larger than a display resolution of the display unit; and control the display unit to display the visual element with the determined blur region or to display the blurred effect element in the determined motion trajectory in a field of view of a user. a reflective portion (110, 310) configured to reflect incident light; a display unit (120, 320) arranged to overlap the reflective portion, wherein the display unit is configured to display at least one of a visual element and a blurred effect element; and a control unit is configured to: receive instruction to display a visual element or instruction to display a blurred effect element; characterized in that the control unit is further configured to: determine, based on the received instruction, a blur region for the visual element or a motion trajectory of the blurred effect element, wherein the blur region or the blurred effect element is larger than a display resolution of the display unit; and control the display unit to display the visual element with the determined blur region or to display the blurred effect element in the determined motion trajectory in a field of view of a user. determine, based on the received instruction, a blur region for the visual element or a motion trajectory of the blurred effect element, wherein the blur region or the blurred effect element is larger than a display resolution of the display unit; and control the display unit to display the visual element with the determined blur region or to display the blurred effect element in the determined motion trajectory in a field of view of a user.
A computer-implemented method of identifying a genetic marker associated with a trait of interest in a nested population of Zea mays plants comprising: a) providing a genotypic value for each of a plurality of genetic markers for each member of said nested population, wherein said population comprises members exhibiting said trait of interest; b) providing a phenotypic value for said trait of interest for each member of said population; c) determining whether one or more of said markers is associated with the trait of interest using a suitably programmed computer to perform-nested association mapping comprising a combination of a single marker regression, SMR, and a multiple marker regression, MMR, wherein: i) noninformative genotypes are removed prior to evaluating an association between a trait value and a marker genotype using the SMR model; and, ii) stepwise regression is used to select cofactor markers for inclusion in the MMR model; wherein a genetic marker is considered to be associated with the trait of interest if both regression models detect an association; d) selecting a Zea mays plant with the associated genetic marker identified in step c). a) providing a genotypic value for each of a plurality of genetic markers for each member of said nested population, wherein said population comprises members exhibiting said trait of interest; b) providing a phenotypic value for said trait of interest for each member of said population; c) determining whether one or more of said markers is associated with the trait of interest using a suitably programmed computer to perform-nested association mapping comprising a combination of a single marker regression, SMR, and a multiple marker regression, MMR, wherein: i) noninformative genotypes are removed prior to evaluating an association between a trait value and a marker genotype using the SMR model; and, ii) stepwise regression is used to select cofactor markers for inclusion in the MMR model; wherein a genetic marker is considered to be associated with the trait of interest if both regression models detect an association; i) noninformative genotypes are removed prior to evaluating an association between a trait value and a marker genotype using the SMR model; and, ii) stepwise regression is used to select cofactor markers for inclusion in the MMR model; d) selecting a Zea mays plant with the associated genetic marker identified in step c).
Heating system having at least one first temperature sensor for sensing a room temperature (T1i) of a room to be heated, at least one valve for controlling the flow of a heat transfer medium through a heat exchanger by reference to setting commands, and a regulating circuit, connected to the first temperature sensor and the valve, for producing the setting commands, the regulating circuit being connected to a second temperature sensor which is positioned to sense a first temperature (T3i) of the heat transfer medium after the latter has passed through at least part of the heat exchanger, characterised in that the regulating circuit is adapted to produce the setting commands using the first temperature (T3i) as a regulating variable when the room temperature (T1i) is above a desired room temperature value (T1s).
A cooled aerofoil for a gas turbine engine, the aerofoil having an aerofoil section with pressure and suction surfaces extending between inboard and outboard ends thereof, wherein the aerofoil section includes: first and second internal passages (14, 15) for carrying cooling air, and a plurality of holes in the external surface of the aerofoil section which receive cooling air from the internal passages, the external holes being arranged such that cooling air exiting a first portion of the external holes participates in a cooling film extending from the leading edge of the aerofoil section over said pressure surface and cooling air exiting from a second portion of the external holes participates in a cooling film extending from the leading edge over said suction surface; and wherein the first portion of external holes receives cooling air from the first internal passage, the second portion of external holes receives cooling air from the second internal passage, and the first and second internal passage are supplied with cooling air from respective and separate passage entrances (16, 18), each entrance being located at either the inboard end or the outboard end of the aerofoil section; characterised in that the second internal passage is a radial multi-pass passage which extends along a serpentine path from its entrance to the passage towards the leading edge of the aerofoil, which has flow-disrupting formations on its internal surface, thereby matching the cooling air pressure at the external holes served by the passage to the external hot gas static pressure. first and second internal passages (14, 15) for carrying cooling air, and a plurality of holes in the external surface of the aerofoil section which receive cooling air from the internal passages, the external holes being arranged such that cooling air exiting a first portion of the external holes participates in a cooling film extending from the leading edge of the aerofoil section over said pressure surface and cooling air exiting from a second portion of the external holes participates in a cooling film extending from the leading edge over said suction surface; and wherein the first portion of external holes receives cooling air from the first internal passage, the second portion of external holes receives cooling air from the second internal passage, and the first and second internal passage are supplied with cooling air from respective and separate passage entrances (16, 18), each entrance being located at either the inboard end or the outboard end of the aerofoil section; characterised in that the second internal passage is a radial multi-pass passage which extends along a serpentine path from its entrance to the passage towards the leading edge of the aerofoil, which has flow-disrupting formations on its internal surface, thereby matching the cooling air pressure at the external holes served by the passage to the external hot gas static pressure.
A method of quantifying a total amount of protein in a complex target protein sample using detected haloalkylated tryptophan fluorescence, the method comprising: for the target protein sample and a plurality of different complex reference protein samples, exposing the protein samples to UV light while the protein samples are in contact with a haloalkane, thereby covalently reacting tryptophan residues of proteins in the protein samples with the haloalkane, and detecting light fluorescently emitted by proteins in the protein samples, wherein the light is haloalkylated tryptophan fluorescence; for each of the plurality of reference protein samples, providing a total amount of protein in the reference protein sample, and quantifying an amount of haloalkylated tryptophan fluorescence detected from the reference protein sample; quantifying an amount of haloalkylated tryptophan fluorescence detected from the target protein sample; and quantifying the total amount of protein in the target protein sample based upon the total amounts of protein in the reference protein samples and the amounts of haloalkylated tryptophan fluorescence detected from the reference protein samples and the target protein sample, wherein each protein sample comprises 50 or more different proteins. for the target protein sample and a plurality of different complex reference protein samples, exposing the protein samples to UV light while the protein samples are in contact with a haloalkane, thereby covalently reacting tryptophan residues of proteins in the protein samples with the haloalkane, and detecting light fluorescently emitted by proteins in the protein samples, wherein the light is haloalkylated tryptophan fluorescence; for each of the plurality of reference protein samples, providing a total amount of protein in the reference protein sample, and quantifying an amount of haloalkylated tryptophan fluorescence detected from the reference protein sample; quantifying an amount of haloalkylated tryptophan fluorescence detected from the target protein sample; and quantifying the total amount of protein in the target protein sample based upon the total amounts of protein in the reference protein samples and the amounts of haloalkylated tryptophan fluorescence detected from the reference protein samples and the target protein sample, wherein each protein sample comprises 50 or more different proteins.
A polymer composite comprising at least one thermoplastic polymer, and at least one chemical indicator dispersed in the at least one thermoplastic polymer, the at least one chemical indicator comprising a particulate inorganic substrate, and at least one reactive dye or ink coated on and/or impregnated within the particulate inorganic substrate.
A lubricating device for controlling lubrication in a stepped transmission comprising a splitter section (10, 20) with an input shaft and a main gear section (30, 40, 50, 60) with an output shaft and a countershaft; where the splitter section (10, 20) comprises - a first splitter gear set connectable to the input shaft by a first gear shift mechanism; - a second splitter gear set connectable to the input shaft by the first gear shift mechanism; and connectable to the output shaft by a second gear shift mechanism; characterized in that - a lubrication arrangement for the second splitter gear set is arranged to be controlled by the current positions of the first and the second gear shift mechanisms (23, 33); and that - the lubrication arrangement is controlled to at least reduce lubrication when the first and the second gear shift mechanisms (23, 33) are simultaneously connected to the second splitter gear set. - a first splitter gear set connectable to the input shaft by a first gear shift mechanism; - a second splitter gear set connectable to the input shaft by the first gear shift mechanism; and connectable to the output shaft by a second gear shift mechanism; - a lubrication arrangement for the second splitter gear set is arranged to be controlled by the current positions of the first and the second gear shift mechanisms (23, 33); and that - the lubrication arrangement is controlled to at least reduce lubrication when the first and the second gear shift mechanisms (23, 33) are simultaneously connected to the second splitter gear set.
A slide component comprising a pair of slide parts (1, 5) that relatively slide on each other, one of the slide parts being provided in a sealing face with a fluid circulation groove that communicates with a high-pressure fluid side via an inlet portion and an outlet portion and is separated from a low-pressure fluid side by a land portion, the other of the slide parts being provided in a sealing face with at least one interference groove (15, 20) that communicates with the high-pressure fluid side, the at least one interference groove (15, 20) producing pressure variations in a fluid in the fluid circulation groove, wherein the at least one interference groove (15, 20) comprises a plurality of interference grooves (15, 20) provided circumferentially, characterized in that the plurality of interference grooves (15, 20) is arranged so that when one of the interference grooves (15, 20) is in a position facing the inlet portion of the fluid circulation groove, the other interference groove or grooves (15, 20) are not in a position facing the outlet portion of the fluid circulation groove.
A display having an active area surrounded by an inactive area, comprising: a thin-film transistor layer; a color filter layer substrate; a layer of liquid crystal material interposed between the thin-film transistor layer and the color filter layer substrate; a black matrix on the color filter layer substrate, wherein the black matrix has openings; and an array of color filter elements (40B, 40G, 40R)) each of which overlaps a respective one of the openings, wherein the black matrix includes a grid of blue photoresist structures (40"B) and an overlapping aligned grid of black photoresist structures, and wherein the color filter elements (40B, 40G, 40R) are interposed between the grid of blue photoresist structures (40"B) and the grid of black photoresist structures. a thin-film transistor layer; a color filter layer substrate; a layer of liquid crystal material interposed between the thin-film transistor layer and the color filter layer substrate; a black matrix on the color filter layer substrate, wherein the black matrix has openings; and an array of color filter elements (40B, 40G, 40R)) each of which overlaps a respective one of the openings, wherein the black matrix includes a grid of blue photoresist structures (40"B) and an overlapping aligned grid of black photoresist structures, and wherein the color filter elements (40B, 40G, 40R) are interposed between the grid of blue photoresist structures (40"B) and the grid of black photoresist structures.
Dosing device constructed to combine liquid and/or solid substances in a predetermined mixture ratio with a high level of accuracy, comprising a weighing machine having a weighing space, a processor, an air conditioning module, which includes an air pressure sensor, a humidity sensor and an air temperature sensor and is removably arranged in the weighing space, a data transmission path configured to exchange data between the air conditioning module and the processor, and a display unit.