mhurhangee/ep-ind-claims huggingface dataset:
Lounger, comprising: - a frame, - a bed surface that is divided into at least three parts, including a torso segment, a middle segment, and a foot segment, wherein the three parts are hingedly connected to one another and wherein the torso segment is hingedly connected to the frame, - means for locking the bed surface in one or more tilt positions (α) relative to the frame, wherein the bed surface and the frame comprise a co-operating combination of a member projecting transversely to a longitudinal direction of the lounger and a corresponding recess (118, 172), wherein the recess is configured to receive the projecting member when the bed surface is in a completely horizontal position, characterised in that the recess is provided with a closure in the form of a movable closing member, wherein a movement of the closing member allows for opening and closing the recess, thus allowing the projecting member to be locked up in the recess when the bed surface is in the horizontal position, in order to lock the bed surface relative to the frame. - a frame, - a bed surface that is divided into at least three parts, including a torso segment, a middle segment, and a foot segment, wherein the three parts are hingedly connected to one another and wherein the torso segment is hingedly connected to the frame, - means for locking the bed surface in one or more tilt positions (α) relative to the frame,
Test kit, embodied for bioanalysis, in particular for an immunoassay, comprising at least one measurement sensor for quantitative detection of a substance and at least one reference sensor (R1, R2, R3), to which the substance has already been supplied in a defined manner, and wherein the reference sensor or sensors (R1, R2, R3) and/or the measurement sensor or sensors is/are formed with acoustic resonators, in particular FBARs, and comprising at least one reference compartment per reference sensor (R1, R2, R3), the at least one reference sensor (R1, R2, R3) respectively being introduced therein.
A towing vehicle, in particular a tractor, with a drive train as well as at least one attachment (3, 4) adapted to the towing vehicle, wherein the drive train comprises at least one propulsion engine, a transmission, at least one auxiliary power take-off and at least one auxiliary assembly, characterized in that the towing vehicle has a driver assistance system for controlling the drive train which is configured with a processing unit, a storage unit as well as an input/output unit, wherein the driver assistance system comprises an automated engine lugging device which operates on the basis of characteristic curves, wherein the automated engine lugging device is configured for an optimized control of the drive train as a function of selectable control strategies and/or optimization target variables stored in the storage unit.
User equipment for providing high speed uplink packet access to a base station comprising: a transmitter configured to transmit data packets to the base station; a receiver configured to receive control information from the base station which correspond to the data packets transmitted to the base station, the control information including an absolute grant channel indicator, the absolute grant channel indicator being included in an absolute grant channel targeted for the user equipments, and the absolute grant channel indicator identifying an absolute grant channel the user equipment should use on the next or subsequent transmissions; and a controller, coupled to the transmitter and receiver, configured to disable an uplink transmission of the transmitter based on a indicator in the control information. a transmitter configured to transmit data packets to the base station; a receiver configured to receive control information from the base station which correspond to the data packets transmitted to the base station, the control information including an absolute grant channel indicator, the absolute grant channel indicator being included in an absolute grant channel targeted for the user equipments, and the absolute grant channel indicator identifying an absolute grant channel the user equipment should use on the next or subsequent transmissions; and a controller, coupled to the transmitter and receiver, configured to disable an uplink transmission of the transmitter based on a indicator in the control information.
Vaccine for reducing infection by avian Reovirus, the vaccine comprising avian Reovirus antigenic material that is derived from avian Reoviruses from more than a single genotype group, and a pharmaceutically acceptable carrier, wherein the avian Reovirus antigenic material consists of inactivated avian Reoviruses from each one of two genotype groups: genotype group 1 and genotype group 4; wherein an avian Reovirus belonging to genotype group 1 contains genetic information encoding a sigmaC protein having an amino acid sequence that has at least 75 % amino acid sequence identity with the amino acid sequence of SEQ ID NO. 1.; wherein an avian Reovirus belonging to genotype group 4 contains genetic information encoding a sigmaC protein having an amino acid sequence that has at least 75 % amino acid sequence identity with the amino acid sequence of SEQ ID NO. 4; and wherein the vaccine comprises an adjuvant.
A method for determining a condition of at least one personal protection article, 120 the method comprising: providing at least one PP article configured with a smart tag, 130 providing at least one predetermined criterion that governs use of the at least one PP article in a working environment, characterized in providing at least one sensing device 145 configured to sense data that is related to the at least one predetermined criterion; acquiring sensed data from the at least one sensing device; retrieving smart tag data from the smart tag; and processing the sensed data from the sensing device and the smart tag data to determine whether the condition of the at least one PP article satisfies the predetermined criterion.
A method for receiving downlink data by a user equipment, UE (400, 420, 440, 460), in a wireless communication system, the method comprising: checking a transmission parameter related to an interference signal transmitted from an interfering cell; determining whether a demodulation reference signal, DMRS, based interference signal is present or not based on the transmission parameter; determining whether a cell specific reference signal, CRS, based interference signal is present or not based on the transmission parameter, if the DMRS based interference signal is not present; determining whether to apply network assisted interference cancellation and suppression, NAICS, technology based on whether the DMRS or CRS based interference signal is present or not; and decoding (940, 950) the downlink data depending on whether to apply the NAICS technology. checking a transmission parameter related to an interference signal transmitted from an interfering cell; determining whether a demodulation reference signal, DMRS, based interference signal is present or not based on the transmission parameter; determining whether a cell specific reference signal, CRS, based interference signal is present or not based on the transmission parameter, if the DMRS based interference signal is not present; determining whether to apply network assisted interference cancellation and suppression, NAICS, technology based on whether the DMRS or CRS based interference signal is present or not; and decoding (940, 950) the downlink data depending on whether to apply the NAICS technology.
Method of using the heat quantity ( Q̇ ab) released by the extrudate during the cooling process within a process of extrusion for drying and preheating plastic granulate, a fluid, especially air, being guided along the extrudate and/or through the tool counter to the direction of extrusion, at least part of the heat released by the extrudate and/or the tool being transmitted to the fluid, the heated fluid being ducted from a first section of the process chain comprising at least a tool, a calibration and cooling device and an extraction device, via a connecting area, preferably consisting of at least one connecting pipe, into a second section of the process chain comprising at least one suction device, characterized in that the temperature of the heated fluid does not exceed a predetermined maximum value (T max), an external fluid being able to be mixed with the heated fluid within the connecting area, thus creating a fluid mixture to reduce the actual temperature of the heated fluid at least below the predetermined maximum value before ducting it into the second section of the process chain, a pre-heating and/or drying process being arranged downstream of the second section, the released heat quantity ( Q̇ ab) flowing in the form of the fluid mixture from the second section into a transition zone between the second section and the drying process, the flow velocity ( v̇) and the temperature of the fluid mixture being able to be reduced within the transition zone, an extra fan and an additional heating allowing for the flow velocity ( v̇) and/or the temperature of the fluid mixture to be increased, provided that this be necessary for the pre-heating and/or drying process.
Measuring system for optically measuring an object, comprising a dental camera and an optical attachment, characterized in that the optical attachment comprises at least one lens (7, 8) which is shaped and disposed such that the optical attachment has a negative focal length, so that a measurement field or a measurement volume of the dental camera is enlarged by the optical attachment.
Compound of Formula I: and salts thereof, wherein n is an integer from 1 to 6; X is CO or CH 2; Y is NR 1 R 2 or R 2 or R 1 is H or alkyl or alkyl-aryl; R 2 is Z-L-R 3; Z is non-existent, CO or CH 2; L is non-existent, CH=CH or (CH 2) m; m is an integer from 1 to 6; R 3 is phenyl, substituted by at least one OH group and one or more substituents selected from OH, C1 to C4 alkoxy and C1 to C4 alkyl, or R 3 is N-pyridinonyl, substituted by at least one OH group and optionally by one or more substituents selected from OH, C1 to C4 alkoxy and C1 to C4 alkyl. and salts thereof, wherein n is an integer from 1 to 6; X is CO or CH 2; Y is NR 1 R 2 or R 2 or R 1 is H or alkyl or alkyl-aryl; R 2 is Z-L-R 3; Z is non-existent, CO or CH 2; L is non-existent, CH=CH or (CH 2) m; m is an integer from 1 to 6; R 3 is phenyl, substituted by at least one OH group and one or more substituents selected from OH, C1 to C4 alkoxy and C1 to C4 alkyl, or R 3 is N-pyridinonyl, substituted by at least one OH group and optionally by one or more substituents selected from OH, C1 to C4 alkoxy and C1 to C4 alkyl.
An agrochemical aqueous composition containing a pesticide and a copolymer, which contains in polymerized form a) at least 20 wt% vinylimidazol and/or a quaternized vinylimidazol, b) an acidic comonomer, and c) up to 30 wt% of a hydrophobic comonomer, which comprises C 1-22 alkyl (meth)acrylate, mono C 1-22 alkyl terminated poly(ethylene glycol) (meth)acrylate, vinyl ester of aliphatic C 1-32 carboxylic acids, or vinyl C 1-4 alkyl ether, wherein the pesticide is dispersed in the aqueous composition and has a solubility in water of up to 10 g/l at 20 °C. a) at least 20 wt% vinylimidazol and/or a quaternized vinylimidazol, b) an acidic comonomer, and c) up to 30 wt% of a hydrophobic comonomer, which comprises C 1-22 alkyl (meth)acrylate, mono C 1-22 alkyl terminated poly(ethylene glycol) (meth)acrylate, vinyl ester of aliphatic C 1-32 carboxylic acids, or vinyl C 1-4 alkyl ether, wherein the pesticide is dispersed in the aqueous composition and has a solubility in water of up to 10 g/l at 20 °C.
An electric machine comprising - an outer casing comprising a bottom wall lying substantially perpendicular to an axis of rotation of the rotor; - a stator having at least one polar expansion and at least one winding having an annular shape and fitted inside the polar expansion; - a rotor; characterised in that the casing has a plurality of butting portions each defined by a protrusion of the bottom wall facing a space inside the electric machine and extending away from the bottom wall along a line parallel to the axis of rotation of the rotor to engage with and support the corresponding portion of the winding to enable heat exchange between the winding and the butting portion, the portion of the winding being electrically insulated from the butting portion in a condition of reciprocal engagement between the portions (11, 12), wherein each of the the protrusion has a butting surface which is rounded with concavity facing the space inside the electric machine and which is substantially shaped to match the portion of the winding. - an outer casing comprising a bottom wall lying substantially perpendicular to an axis of rotation of the rotor; - a stator having at least one polar expansion and at least one winding having an annular shape and fitted inside the polar expansion; - a rotor;
A substrate-less interposer, comprising: a plurality of metallization layers, at least a bottom most layer of the metallization layers comprising a plurality of metal segments, wherein each of the plurality of metal segments is formed between a top surface and a bottom surface of the bottom most layer of the metallization layers, and the metal segments are separated by dielectric material in the bottom most layer; a dielectric layer formed on the bottom surface of the bottom most layer, wherein the dielectric layer includes one or more openings for providing contact to at least some of the plurality of metal segments in the bottom most layer, and a passivation layer having one or more openings that correspond spatially with the one or more openings at the dielectric layer, wherein the passivation layer is formed on the dielectric layer; and characterised by an underbump metal layer in contact with the at least some of the plurality of metal segments in the bottom most layer, the UBM layer formed on the bottom most layer. a plurality of metallization layers, at least a bottom most layer of the metallization layers comprising a plurality of metal segments, wherein each of the plurality of metal segments is formed between a top surface and a bottom surface of the bottom most layer of the metallization layers, and the metal segments are separated by dielectric material in the bottom most layer; a dielectric layer formed on the bottom surface of the bottom most layer, wherein the dielectric layer includes one or more openings for providing contact to at least some of the plurality of metal segments in the bottom most layer, and a passivation layer having one or more openings that correspond spatially with the one or more openings at the dielectric layer, wherein the passivation layer is formed on the dielectric layer; and characterised by an underbump metal layer in contact with the at least some of the plurality of metal segments in the bottom most layer, the UBM layer formed on the bottom most layer.
A gas shutoff device (100, 110) comprising: a flow rate measuring part configured to measure a flow rate of gas flowing through a flow passage; a shutoff valve that is configured to shut off the flow passage; a wireless communicator configured to periodically perform wireless communication externally; and a communication interval setting part configured to set a communication interval in the wireless communication, wherein the communication interval setting part is configured to set the communication interval shorter as the flow rate of gas measured by the flow rate measuring part increases, and the wireless communicator is configured to transmit an integrated value of the gas usage amount obtained by integrating the flow rate of gas measured by the flow rate measuring part. a flow rate measuring part configured to measure a flow rate of gas flowing through a flow passage; a shutoff valve that is configured to shut off the flow passage; a wireless communicator configured to periodically perform wireless communication externally; and a communication interval setting part configured to set a communication interval in the wireless communication, wherein the communication interval setting part is configured to set the communication interval shorter as the flow rate of gas measured by the flow rate measuring part increases, and the wireless communicator is configured to transmit an integrated value of the gas usage amount obtained by integrating the flow rate of gas measured by the flow rate measuring part.
A composition comprising a compatible blend of i) 24 to less than 84.5 weight percent of a linear poly(arylene sulfide) ii) 14 to 75 weight percent of a polysiloxane/polyimide block copolymer; and iii) 0.1 to less than 2.5 weight percent of a polymeric compatibilizer having an average of 2 or more epoxy groups per molecule wherein weight percent is based on the total weight of the composition and an article made from the composition has tensile elongation greater than or equal to 60% as determined by ASTM D638 and a Notched Izod impact of greater than 50 joules per meter as determined by ASTM D256 at room temperature. i) 24 to less than 84.5 weight percent of a linear poly(arylene sulfide) ii) 14 to 75 weight percent of a polysiloxane/polyimide block copolymer; and iii) 0.1 to less than 2.5 weight percent of a polymeric compatibilizer having an average of 2 or more epoxy groups per molecule
A twin-shaft gas turbine (1; 31) with a gas generator, the gas turbine comprising: a compressor for generating compressed air; a combustor for generating combustion gases by burning a fuel mixedly with the compressed air supplied from the compressor; a high-pressure turbine rotationally driven by the combustion gases supplied from the combustor, the high-pressure turbine being used to generate a driving force of the compressor, the compressor having variable inlet guide vanes; and a control system capable of applying control modes on the gas turbine, wherein a first control mode and a second control mode are selectively useable for control of the gas generator, in the first control mode, an IGV angle in the compressor is controlled in accordance with a corrected shaft rotation speed of the gas generator, in the second control mode, the IGV angle is controlled to maintain a constant rotation speed of the gas generator shaft, the first control mode is used to start, to stop, and to operate the turbine under fixed or lower load conditions, and • the second control mode is used under operational states other than those to which the first control mode is applied. a compressor for generating compressed air; a combustor for generating combustion gases by burning a fuel mixedly with the compressed air supplied from the compressor; a high-pressure turbine rotationally driven by the combustion gases supplied from the combustor, the high-pressure turbine being used to generate a driving force of the compressor, the compressor having variable inlet guide vanes; and a control system capable of applying control modes on the gas turbine, wherein a first control mode and a second control mode are selectively useable for control of the gas generator, in the first control mode, an IGV angle in the compressor is controlled in accordance with a corrected shaft rotation speed of the gas generator, in the second control mode, the IGV angle is controlled to maintain a constant rotation speed of the gas generator shaft, the first control mode is used to start, to stop, and to operate the turbine under fixed or lower load conditions, and • the second control mode is used under operational states other than those to which the first control mode is applied.
A knitted structure suitable for use as, or as a component of, a wound dressing, the structure consisting of and being knitted from yarn spun from a blend of gelling fibres and cellulosic non-gelling fibres, wherein the yarn comprises at least 50% w/w gelling fibres.
A thin-film broadband antireflection layer for use with an optical element or an optoelectronic device, comprising: at least a thin-film dielectric spacer layer arranged on a substrate; at least one array of nanoparticles disposed on said thin-film dielectric spacer layer, the dielectric spacer layer being interposed between the at least one array of nanoparticles and the substrate, wherein the dielectric constant of said nanoparticles is substantially distinct from distinct from the dielectric constant of said dielectric spacer layer, wherein at least part of said nanoparticles are metallic nanoparticles, and wherein the average dimensions of said nanoparticles are selected between approximately 100 and 300 nm and wherein the average distance between said particles is selected between approximately 200 and 700 nm such that a surface coverage is provided between 10-20% of a surface area of the antireflection layer. at least a thin-film dielectric spacer layer arranged on a substrate; at least one array of nanoparticles disposed on said thin-film dielectric spacer layer, the dielectric spacer layer being interposed between the at least one array of nanoparticles and the substrate, wherein the dielectric constant of said nanoparticles is substantially distinct from distinct from the dielectric constant of said dielectric spacer layer, wherein at least part of said nanoparticles are metallic nanoparticles, and wherein the average dimensions of said nanoparticles are selected between approximately 100 and 300 nm and wherein the average distance between said particles is selected between approximately 200 and 700 nm such that a surface coverage is provided between 10-20% of a surface area of the antireflection layer.
A method of reducing growth of a vegetative tissue in a plant, the method comprising: spraying a vegetative tissue in the plant one or more times with a herbicidally active amount of a composition comprising (a) aspterric acid and (b) glufosinate; wherein growth of the vegetative tissue in the plant is reduced as compared to a corresponding control plant not receiving the composition. spraying a vegetative tissue in the plant one or more times with a herbicidally active amount of a composition comprising (a) aspterric acid and (b) glufosinate; wherein growth of the vegetative tissue in the plant is reduced as compared to a corresponding control plant not receiving the composition.
A wiring structure for an electric vehicle configured to supply electric power from a charging port provided at a front end portion of the vehicle, to an electrical component of the vehicle through an electric charging harness, a front compartment being formed on a frontward portion of the vehicle, said electric harness including a first wiring portion electrically connected to the charging port and a second wiring portion electrically connected to an electrical component of the vehicle, comprising: an intermediate connector (15, 16) releasably connecting the first wiring portion of the electric harness to the second wiring portion of the electric harness with a repeatable connecting and disconnecting connection, characterized in that the intermediate connector (15, 16) is disposed inside the front compartment, rearward of the charging port and rearward of a front end of a radiator core support assembly spanning across in a widthwise direction of the vehicle and being spaced separately from the charging port such that the intermediate connector (15, 16) and the charging port are disposed on opposite sides of the radiator core assembly. an intermediate connector (15, 16) releasably connecting the first wiring portion of the electric harness to the second wiring portion of the electric harness with a repeatable connecting and disconnecting connection, characterized in that the intermediate connector (15, 16) is disposed inside the front compartment, rearward of the charging port and rearward of a front end of a radiator core support assembly spanning across in a widthwise direction of the vehicle and being spaced separately from the charging port such that the intermediate connector (15, 16) and the charging port are disposed on opposite sides of the radiator core assembly.