mhurhangee/patent-ind-claim-en huggingface dataset:
A carburetor having a metering system that controls fuel flow from a fuel source to an air-fuel passage , the metering system comprising: a metering assembly including a metering valve and a metering diaphragm sealed to a body of the carburetor to at least partly define a metering chamber between the metering diaphragm and the body , the metering diaphragm having a portion that is moveable relative to the body to actuate the metering valve , and the metering diaphragm including a continuous layer of a flexible material resistant to chemical attack from fuels, and a discontinuous layer of a wear resistant material; wherein the continuous layer is responsive to fluid pressure to move the discontinuous layer to open the metering valve to allow fuel flow from the fuel source into the metering chamber ; and characterized by an intermediate layer received at least partially between the continuous layer and the discontinuous layer to inhibit direct contact between the discontinuous layer and the continuous layer at least in the portion of the metering diaphragm that moves to actuate the metering valve . a metering assembly including a metering valve and a metering diaphragm sealed to a body of the carburetor to at least partly define a metering chamber between the metering diaphragm and the body , the metering diaphragm having a portion that is moveable relative to the body to actuate the metering valve , and the metering diaphragm including a continuous layer of a flexible material resistant to chemical attack from fuels, and a discontinuous layer of a wear resistant material; wherein the continuous layer is responsive to fluid pressure to move the discontinuous layer to open the metering valve to allow fuel flow from the fuel source into the metering chamber ; and characterized by an intermediate layer received at least partially between the continuous layer and the discontinuous layer to inhibit direct contact between the discontinuous layer and the continuous layer at least in the portion of the metering diaphragm that moves to actuate the metering valve .
Recombinant antigen of the porcine circovirus 2 (PCV-2) characterized in that is the SEQ ID NO: 02.
A MIG/MAG welding torch body , comprising a pipe bend , a contact nozzle for contacting and guiding a consumable welding wire , a gas nozzle , and an essentially cylindrical plug element , which is arranged at the pipe bend , for the detachable connection to a corresponding receiving part of a MIG/MAG welding torch handle , said plug element having an inlet opening for the protective gas (G), and a gas channel , which is connected to the inlet opening , for guiding the protective gas (G) to the gas nozzle and simultaneously for guiding the welding wire , and which is formed for transferring a welding current (I) to the contact nozzle , wherein the inlet opening is arranged essentially centrally at the distal end of the plug element , wherein the plug element is formed for the plug connection to the receiving part of the MIG/MAG welding torch handle , and has a torch closure , which is formed for the fixation to the receiving part of the MIG/MAG welding torch handle , so as to be rotatable preferably by 180°, characterized in that a connection channel , which is formed by means of a circumferential channel , which is spaced apart from the distal end of the plug element , and which, when the MIG/MAG welding torch handle is connected, is formed for connecting two orifices of channels for guiding a cooling medium (K) arranged on the lateral side in the receiving part of the MIG/MAG welding torch handle , is arranged at the plug element on the lateral side.
A lamination apparatus for manufacture of an electrode assembly, the lamination apparatus comprising: a pressing roll configured to press electrodes constituting the electrode assembly; a rotary shaft configured to rotate the pressing roll; a pressing cylinder configured to adjust a pressing force applied to the pressing roll; and a thickness measurement sensor configured to measure a thickness of an electrode mixture layer; wherein the pressing cylinder comprises a first pressing cylinder and a second pressing cylinder coupled to opposite ends of the rotary shaft, respectively; and the lamination apparatus is configured such that a pressing force applied by the first pressing cylinder and a pressing force applied by the second pressing cylinder are different from each other. a pressing roll configured to press electrodes constituting the electrode assembly; a rotary shaft configured to rotate the pressing roll; a pressing cylinder configured to adjust a pressing force applied to the pressing roll; and a thickness measurement sensor configured to measure a thickness of an electrode mixture layer; wherein the pressing cylinder comprises a first pressing cylinder and a second pressing cylinder coupled to opposite ends of the rotary shaft, respectively; and the lamination apparatus is configured such that a pressing force applied by the first pressing cylinder and a pressing force applied by the second pressing cylinder are different from each other.
Wiper blade comprising a rubber structure, characterized in that said structure is formed from an elastomer matrix comprising: from 25 to 60 parts by weight per hundred parts by weight of elastomer, phr, of natural rubber; and from 40 to 75 phr of polybutadiene and that said structure further comprises 4 to 20 phr of an oil and at least 4 phr of a mixture of protective agents, said mixture of protective agents comprising from 1 to 3 phr of at least one antiozonizing agent and from 1 to 6 phr of at least one antioxidant. from 25 to 60 parts by weight per hundred parts by weight of elastomer, phr, of natural rubber; and from 40 to 75 phr of polybutadiene
A method of operating a plurality of data centers that store structured data records (131, 132; 301, 302), the method comprising: in a first data center (810; 910) that receives (801; 901) change actions (820, 821; 920, 921) related to the structured data records, wherein the change actions comprise edits, renaming or deletions for the structured data records, implementing the change actions and propagating replication data comprising the change actions to a redundant data center (811; 911); in the redundant data center, receiving the replication data comprising the change actions and implementing the change actions in parallel to affect the structured data records in the redundant data center; in the redundant data center, delaying consistency verifications of first ones of the change actions that affect a first portion of the structured data records in the redundant data center until subsequent change actions are performed that affect related structured data records; and while implementing the change actions, performing consistency verification of one of second ones of the change actions that affect a second portion of the structured data records immediately upon its completion. in a first data center (810; 910) that receives (801; 901) change actions (820, 821; 920, 921) related to the structured data records, wherein the change actions comprise edits, renaming or deletions for the structured data records, implementing the change actions and propagating replication data comprising the change actions to a redundant data center (811; 911); in the redundant data center, receiving the replication data comprising the change actions and implementing the change actions in parallel to affect the structured data records in the redundant data center; in the redundant data center, delaying consistency verifications of first ones of the change actions that affect a first portion of the structured data records in the redundant data center until subsequent change actions are performed that affect related structured data records; and while implementing the change actions, performing consistency verification of one of second ones of the change actions that affect a second portion of the structured data records immediately upon its completion.
An ink discharge complementing method which complements an ink discharge defect of a defective nozzle, out of a plurality of nozzles of a discharge head, comprising: a gradation data acquisition step of obtaining gradation data representing a gradation value of each of a plurality of pixels constituting a print image; a conversion step of converting the gradation data into defect complemented gradation data by converting the gradation values of the gradation data, using a first conversion rule for the gradation values of the pixels corresponding to normal nozzles other than surrounding nozzles located around the defective nozzle and the defective nozzle, out of the plurality of nozzles, and a second conversion rule for the gradation values of the pixels corresponding to the surrounding nozzles; a shading correction step of performing a shading correction to correct a variation of an amount of the ink discharged from each of the plurality of nozzles for the defect complemented gradation data; a halftone step of generating discharge control data by performing a halftone process for the defect complemented gradation data having the shading correction performed therefor; and an image printing step of printing the print image on a printing medium by the ink discharged from the nozzles by driving the nozzles based on the discharge control data, the first conversion rule converting the gradation values of the pixels corresponding to the normal nozzles by a first rate lower than 100 %, and the second conversion rule converting the gradation values of the pixels corresponding to the surrounding nozzles by a second rate higher than the first rate. a gradation data acquisition step of obtaining gradation data representing a gradation value of each of a plurality of pixels constituting a print image; a conversion step of converting the gradation data into defect complemented gradation data by converting the gradation values of the gradation data, using a first conversion rule for the gradation values of the pixels corresponding to normal nozzles other than surrounding nozzles located around the defective nozzle and the defective nozzle, out of the plurality of nozzles, and a second conversion rule for the gradation values of the pixels corresponding to the surrounding nozzles; a shading correction step of performing a shading correction to correct a variation of an amount of the ink discharged from each of the plurality of nozzles for the defect complemented gradation data; a halftone step of generating discharge control data by performing a halftone process for the defect complemented gradation data having the shading correction performed therefor; and an image printing step of printing the print image on a printing medium by the ink discharged from the nozzles by driving the nozzles based on the discharge control data, the first conversion rule converting the gradation values of the pixels corresponding to the normal nozzles by a first rate lower than 100 %, and the second conversion rule converting the gradation values of the pixels corresponding to the surrounding nozzles by a second rate higher than the first rate.
Method for operating a selection circuit apparatus for signals, wherein the selection circuit apparatus is a waveguide filter, comprising the following steps: - determining (S1) a present temperature in the region of the selection circuit apparatus and a temperature drift that results in a frequency shift in a filter function of the selection circuit apparatus, - determining (S2) a signal shift in the selection circuit apparatus on account of the present temperature, wherein the signal shift is a frequency shift, - adding (S3) the signal shift to an input signal of the selection circuit apparatus in order to obtain a compensated signal in which the signal shift on account of the present temperature is compensated for, the input signal being an input spectrum, and - removing (S4) the signal shift from an output signal of the selection circuit apparatus in order to obtain a corrected signal in which the compensation is corrected, the output signal being an output spectrum. - determining (S1) a present temperature in the region of the selection circuit apparatus and a temperature drift that results in a frequency shift in a filter function of the selection circuit apparatus, - determining (S2) a signal shift in the selection circuit apparatus on account of the present temperature, wherein the signal shift is a frequency shift, - adding (S3) the signal shift to an input signal of the selection circuit apparatus in order to obtain a compensated signal in which the signal shift on account of the present temperature is compensated for, the input signal being an input spectrum, and - removing (S4) the signal shift from an output signal of the selection circuit apparatus in order to obtain a corrected signal in which the compensation is corrected, the output signal being an output spectrum.
An intermediate store in an apparatus of the tobacco industry for the vertical transport of rod-like articles (R), comprising sidewalls , a back wall , and a plurality of partitions dividing the intermediate store into vertical channels which are adapted to receive rod-like articles (R) from above, the axes of the rod-like articles being situated parallel to the sidewalls , whereas the intermediate store is provided with a movable transferring element being slidable relative to the partitions of the intermediate store , in addition the transferring element comprising supporting plates which support the mass flow of the rod-like articles (R) in the vertical channels of the intermediate store above the supporting plates , whereas the supporting plates are adapted to move downwards (A) within the vertical channels and move upwards (C) outside of the vertical channels , whereas the back wall is provided with at least one slot along which the supporting plate moves, in addition, the supporting plates are adapted to be put into the channels in the inlet area of the channels and pulled out of the vertical channels in the outlet area of the channels, characterised in that the store is provided with at least one movable wall element being slidable so that it may take at least two positions, whereas one position of the movable wall element is located in the slot , and another position of the movable wall element is located outside of the slot .
A method for producing isobutylene, in which a raw material gas containing isobutanol is brought into contact with a catalyst to produce isobutylene from isobutanol, the method comprising: bringing the raw material gas containing isobutanol into contact with the catalyst at a linear velocity of 1.20 cm/s or more under a pressure of 120 kPa or more in terms of absolute pressure to produce isobutylene from isobutanol.
Viral particle comprising a nucleotide sequence consisting essentially of: SEQ ID NO: 1 or SEQ ID NO: 2 for use in the treatment of cancer, wherein the cancer is characterized by presenting at least one mutation in the gene TP53 or p53 protein selected from the group consisting of: R273H, P72R, E258K, G245S, V173L, and/or phosphorylation of the p53 protein.
A process for fueling of vehicle tanks with compressed hydrogen comprising splitting ammonia into hydrogen and nitrogen in an ammonia cracking unit compressing the hydrogen from the ammonia cracking unit, and dispensing the compressed hydrogen to the vehicle tanks in a hydrogen fueling unit comprising one or more dispensing units, wherein chilled ammonia is used to cool the compressed hydrogen before being dispensed to the vehicle tanks by heat exchange between the compressed hydrogen and the chilled ammonia which after the heat exchange is transferred to the ammonia cracking unit, characterized in that the heat exchange between the chilled ammonia and the compressed hydrogen is effected by a first heat exchange between the chilled ammonia and a heat exchange fluid in a first heat exchanger and second heat exchange of the heat exchange fluid and the compressed hydrogen in a second heat exchanger . splitting ammonia into hydrogen and nitrogen in an ammonia cracking unit compressing the hydrogen from the ammonia cracking unit, and dispensing the compressed hydrogen to the vehicle tanks in a hydrogen fueling unit comprising one or more dispensing units, wherein chilled ammonia is used to cool the compressed hydrogen before being dispensed to the vehicle tanks by heat exchange between the compressed hydrogen and the chilled ammonia which after the heat exchange is transferred to the ammonia cracking unit, characterized in that the heat exchange between the chilled ammonia and the compressed hydrogen is effected by a first heat exchange between the chilled ammonia and a heat exchange fluid in a first heat exchanger and second heat exchange of the heat exchange fluid and the compressed hydrogen in a second heat exchanger .
Attachment element for attaching a functional housing comprising: - a first plate equipped with first attachment means capable of being actuated in the one same predetermined attachment direction (D1), - a second plate equipped with second attachment means , the second plate being situated at a predetermined distance from the first plate and extending at least partially opposite the first plate in said predetermined direction of attachment (D1), - a connecting element rigidly connecting the first plate to the second plate , wherein the first attachment means are positioned on parts of the first plate that do not face the second plate in said predetermined direction of attachment (D1). - a first plate equipped with first attachment means capable of being actuated in the one same predetermined attachment direction (D1), - a second plate equipped with second attachment means , the second plate being situated at a predetermined distance from the first plate and extending at least partially opposite the first plate in said predetermined direction of attachment (D1), - a connecting element rigidly connecting the first plate to the second plate ,
A variable stiffness actuator , comprising: a flexure plate comprising a first cantilevered beam extending inwards from an outer periphery of the flexure plate ; a housing , the housing and the flexure plate rotatable about a common joint axis ; and a first contactor pivotably secured at a revolute joint to the housing , the first contactor rotates about the revolute joint at a first rotation axis , the first rotation axis offset on the housing from the joint axis ; wherein the first contactor engages the first cantilevered beam at a variable angle about the rotation axis to adjust a stiffness of a mechanical connection between the flexure plate and the housing . a flexure plate comprising a first cantilevered beam extending inwards from an outer periphery of the flexure plate ; a housing , the housing and the flexure plate rotatable about a common joint axis ; and a first contactor pivotably secured at a revolute joint to the housing , the first contactor rotates about the revolute joint at a first rotation axis , the first rotation axis offset on the housing from the joint axis ; wherein the first contactor engages the first cantilevered beam at a variable angle about the rotation axis to adjust a stiffness of a mechanical connection between the flexure plate and the housing .
A sounding reference signal, SRS, transmission method, comprising: Receiving (S2001), by a terminal , configuration information of an SRS subframe that is from a base station in a current cell in which a terminal is located; Determining (S2002), by the terminal , a configuration of the SRS subframe according to the received configuration information; and Sending (S2003), by the terminal , an SRS in the SRS subframe according to the determined configuration of the SRS subframe, wherein the SRS subframe is an uplink subframe, or is a subframe in which a quantity of uplink symbols is not less than a quantity of downlink symbols; and all uplink symbols in the SRS subframe can be used to carry an SRS; characterized in that a symbol transmission mode of the terminal in the SRS subframe comprises: sending SRSs on all symbols in the SRS subframe without multiplexing the SRSs with the Physical Uplink Shared Channel or the Physical Uplink Control Channel; and the configuration information further comprises: indication information used to indicate the symbol transmission mode of the terminal in the SRS subframe. Receiving (S2001), by a terminal , configuration information of an SRS subframe that is from a base station in a current cell in which a terminal is located; Determining (S2002), by the terminal , a configuration of the SRS subframe according to the received configuration information; and Sending (S2003), by the terminal , an SRS in the SRS subframe according to the determined configuration of the SRS subframe, wherein the SRS subframe is an uplink subframe, or is a subframe in which a quantity of uplink symbols is not less than a quantity of downlink symbols; and all uplink symbols in the SRS subframe can be used to carry an SRS; characterized in that a symbol transmission mode of the terminal in the SRS subframe comprises: sending SRSs on all symbols in the SRS subframe without multiplexing the SRSs with the Physical Uplink Shared Channel or the Physical Uplink Control Channel; and the configuration information further comprises: indication information used to indicate the symbol transmission mode of the terminal in the SRS subframe. sending SRSs on all symbols in the SRS subframe without multiplexing the SRSs with the Physical Uplink Shared Channel or the Physical Uplink Control Channel; and the configuration information further comprises: indication information used to indicate the symbol transmission mode of the terminal in the SRS subframe.
A data frame implementation method, comprising: configuring (Step 101) a data frame used for radio signal transmission, wherein the data frame comprises at least two subframes of at least two subframe types comprising a first subframe type and a second subframe type, each subframe type has a fixed length, the at least two subframes comprising a first subframe of the first subframe type of a first length and a second subframe of the second subframe type of a second length different from the first length, wherein the at least two subframe types can be mapped to different data frames in at least two frequency bands into which a high system bandwidth is divided, wherein each of the at least two frequency bands has a different subcarrier spacing, and a quantity of symbols comprised in each subframe type is corresponding to a subcarrier spacing of a frequency band to which the subframe type is mapped.