mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a temperature control system (TCS, 205) configured to regulate temperatures of multiple stages of a multi-stage cryocooler (210, 310), the temperature control system comprising: an input interface configured to receive (i) temperature setpoints (335, 340) for at least two of the stages of the multi-stage cryocooler and (ii) temperature information corresponding to temperatures measured at the at least two of the stages of the multi-stage cryocooler; processing circuitry (305, 345, 350, 355, 360) configured to determine temperature errors for the at least two of the stages using the temperature setpoints and the temperature information, and to calculate for each of the at least two of the stages at least one of a compressor stroke error and a pressure-volume phase error, using the temperature errors; and at least one controller (325, 330) configured to adjust at least one of a compressor setting and a pressure-volume phase of the multi-stage cryocooler for each of the at least two of the stages, to regulate the temperatures of the at least two of the stages independently, using at least one of the compressor stroke error and the pressure-volume phase error. an input interface configured to receive (i) temperature setpoints (335, 340) for at least two of the stages of the multi-stage cryocooler and (ii) temperature information corresponding to temperatures measured at the at least two of the stages of the multi-stage cryocooler; processing circuitry (305, 345, 350, 355, 360) configured to determine temperature errors for the at least two of the stages using the temperature setpoints and the temperature information, and to calculate for each of the at least two of the stages at least one of a compressor stroke error and a pressure-volume phase error, using the temperature errors; and at least one controller (325, 330) configured to adjust at least one of a compressor setting and a pressure-volume phase of the multi-stage cryocooler for each of the at least two of the stages, to regulate the temperatures of the at least two of the stages independently, using at least one of the compressor stroke error and the pressure-volume phase error.
An optical fiber cable comprising: at least one optical fiber; a plurality of strength members disposed around said at least one optical fiber and defining strength member interstices; a conductor disposed around one or more of said plurality of strength members; and a water blocking material disposed in said strength member interstices, characterised in that: said conductor is in electrical contact with said one or more of said plurality of strength members, said water blocking material is a conductive water blocking material comprising a carrier material and highly conductive metal particles having a predetermined size and a relative electrical conductivity greater than 60, using copper as a base reference with a relative electrical conductivity of 100. at least one optical fiber; a plurality of strength members disposed around said at least one optical fiber and defining strength member interstices; a conductor disposed around one or more of said plurality of strength members; and a water blocking material disposed in said strength member interstices, characterised in that: said conductor is in electrical contact with said one or more of said plurality of strength members, said water blocking material is a conductive water blocking material comprising a carrier material and highly conductive metal particles having a predetermined size and a relative electrical conductivity greater than 60, using copper as a base reference with a relative electrical conductivity of 100. said conductor is in electrical contact with said one or more of said plurality of strength members, said water blocking material is a conductive water blocking material comprising a carrier material and highly conductive metal particles having a predetermined size and a relative electrical conductivity greater than 60, using copper as a base reference with a relative electrical conductivity of 100.
A method to perform a drilling operation in a subterranean formation, the method characterised by: obtaining, during the drilling operation associated with a drilling direction, survey data from a sensor (201, 202) in a bottom hole assembly; calculating, by a hardware processor based on the survey data, a first estimate of a survey parameter using a first formula associated with a first noise sensitivity; calculating, by the hardware processor based on the survey data, a second estimate of the survey parameter using a second formula associated with a second noise sensitivity; assigning, based on a weighting function and the drilling direction, a plurality of weighting coefficients to the first estimate and the second estimate; and generating, by the hardware processor, a weighted estimate of the survey parameter based on the plurality of weighting coefficients, the first estimate, and the second estimate, wherein the plurality of weighting coefficients control contributions of the first estimate and the second estimate to the weighted estimate, wherein the plurality of weighting coefficients are assigned to reduce inaccuracy of the weighted estimate resulting from the first noise sensitivity and the second noise sensitivity, and wherein the first noise sensitivity and the second noise sensitivity are dependent on the drilling direction; and performing the drilling operation based on the weighted estimate of the survey parameter. obtaining, during the drilling operation associated with a drilling direction, survey data from a sensor (201, 202) in a bottom hole assembly; calculating, by a hardware processor based on the survey data, a first estimate of a survey parameter using a first formula associated with a first noise sensitivity; calculating, by the hardware processor based on the survey data, a second estimate of the survey parameter using a second formula associated with a second noise sensitivity; assigning, based on a weighting function and the drilling direction, a plurality of weighting coefficients to the first estimate and the second estimate; and generating, by the hardware processor, a weighted estimate of the survey parameter based on the plurality of weighting coefficients, the first estimate, and the second estimate, wherein the plurality of weighting coefficients control contributions of the first estimate and the second estimate to the weighted estimate, wherein the plurality of weighting coefficients are assigned to reduce inaccuracy of the weighted estimate resulting from the first noise sensitivity and the second noise sensitivity, and wherein the first noise sensitivity and the second noise sensitivity are dependent on the drilling direction; and performing the drilling operation based on the weighted estimate of the survey parameter.
A method of detecting one or more complexes of proteins in a biological sample, wherein each complex comprises a first protein and one or more second proteins, the method comprising the steps of: (i) providing for each of the one or more complexes a cleaving probe specific for the first protein or an antigenic determinant thereof in each of the one or more complexes, each cleaving probe having a cleavage-inducing moiety with an effective proximity; (ii) providing one or more binding compounds specific for the second protein or an antigenic determinant thereof in each of the one or more complexes, wherein each binding compound has one or more molecular tags each attached thereto by a cleavable linkage, and wherein the one or more molecular tags attached to different binding compounds have different separation characteristics such that upon separation molecular tags from different binding compounds form distinct peaks in a separation profile; (iii) mixing the cleaving probes, the binding compounds, and the one or more complexes such that cleaving probes specifically bind to first proteins of the complexes and the binding compounds specifically bind to the second proteins of the complexes and such that cleavable linkages of the binding compounds are within the effective proximity of cleavage-inducing moieties of the cleaving probes so that molecular tags are released; and (iv) separating and identifying the released molecular tags to determine the presence or absence or the amount of the one or more complexes of proteins in the biological sample; wherein the one or more complexes comprises at least one of a complex of an IGF-1R protein and an IRS-1 protein, a complex of a GRB2 protein and a SHC protein, or a complex including a PI3K protein. (i) providing for each of the one or more complexes a cleaving probe specific for the first protein or an antigenic determinant thereof in each of the one or more complexes, each cleaving probe having a cleavage-inducing moiety with an effective proximity; (ii) providing one or more binding compounds specific for the second protein or an antigenic determinant thereof in each of the one or more complexes, wherein each binding compound has one or more molecular tags each attached thereto by a cleavable linkage, and wherein the one or more molecular tags attached to different binding compounds have different separation characteristics such that upon separation molecular tags from different binding compounds form distinct peaks in a separation profile; (iii) mixing the cleaving probes, the binding compounds, and the one or more complexes such that cleaving probes specifically bind to first proteins of the complexes and the binding compounds specifically bind to the second proteins of the complexes and such that cleavable linkages of the binding compounds are within the effective proximity of cleavage-inducing moieties of the cleaving probes so that molecular tags are released; and (iv) separating and identifying the released molecular tags to determine the presence or absence or the amount of the one or more complexes of proteins in the biological sample;
A fluidized bed regenerator for activating a catalyst to prepare light olefins from an oxygen-containing compound, wherein the fluidized bed regenerator comprises a first activation zone and a gas-solid separation zone; the first activation zone is an annular cavity; n baffles are radially arranged in the first activation zone, and the n baffles divide the first activation zone into n first activation zone subzones; and a catalyst circulation hole is formed in each of n-1 of the baffles, such that a catalyst entering the first activation zone flows in an annular direction; characterized in that the fluidized bed regenerator further comprises a second activation zone; m perforated plates are horizontally arranged in the second activation zone, wherein 1 ≤ m ≤ 10; the second activation zone, the first activation zone, and the gas-solid separation zone are arranged from bottom to top; the second activation zone axially communicates with the gas-solid separation zone; and the first activation zone is arranged on a periphery of a junction between the second activation zone and the gas-solid separation zone. the fluidized bed regenerator further comprises a second activation zone; m perforated plates are horizontally arranged in the second activation zone, wherein 1 ≤ m ≤ 10; the second activation zone, the first activation zone, and the gas-solid separation zone are arranged from bottom to top; the second activation zone axially communicates with the gas-solid separation zone; and the first activation zone is arranged on a periphery of a junction between the second activation zone and the gas-solid separation zone.
A sealing and mounting tape arrangement (100, 100a-100e, 100h) for setting a shower tub or bathtub (3, 3a-3e, 3h) on at least one connection wall (6a-6g, 6j) or at least one connection floor, comprising a sealing and mounting tape base body or carrier material (1, 1a-1e, 1h) which forms a first, lower region (4, 4a-4e, 4h) with an tub-side adhesive surface (9a, 21a, 21c, 21e, 21g, 21k, 21m) towards a tub rim (2, 2a-2e, 2h) of the shower tub or bathtub (3, 3a-3e, 3h) and a second, upper region (5, 5a-5e, 5h) with a wall-side adhesive surface (9b, 21b, 21d, 21f, 21h, 211, 21n) towards the at least one connection wall, wherein the sealing and mounting tape base body or carrier material is made of a material which is plastically expandable and deformable in any direction, and wherein in the finish-assembled state, a continuous one-piece cover film (7, 7a-7e, 7h) arranged on the tube side at least from the lower edge of the second, upper region up to the upper edge of the second, upper region is also plastically expandable and deformable.
A backward movement indicator apparatus for a vehicle having an alert device, the backward movement indicator apparatus comprising: an image capture device configured to capture image data which is representative of objects in front of the vehicle, wherein the image capture device is configured to capture a first image and configured to capture a second image, characterized by comprising a radar device configured to capture radar data which is representative of locations of objects in front of the vehicle; and an electronic controller configured to process the captured radar data to classify the objects in front of the vehicle and process the captured image data and the captured radar data to identify locations of three stationary objects in the first image and to identify locations of the three stationary objects in the second image; wherein, the electronic controller is configured to determine if the vehicle is moving backwards based upon comparing the locations of the three objects in the first image relative to the locations of the three objects in the second image; and wherein, the electronic controller is configured to provide a signal to the alert device to activate the alert device which is indicative of the vehicle moving backwards. an image capture device configured to capture image data which is representative of objects in front of the vehicle, wherein the image capture device is configured to capture a first image and configured to capture a second image, characterized by comprising a radar device configured to capture radar data which is representative of locations of objects in front of the vehicle; and an electronic controller configured to process the captured radar data to classify the objects in front of the vehicle and process the captured image data and the captured radar data to identify locations of three stationary objects in the first image and to identify locations of the three stationary objects in the second image; wherein, the electronic controller is configured to determine if the vehicle is moving backwards based upon comparing the locations of the three objects in the first image relative to the locations of the three objects in the second image; and wherein, the electronic controller is configured to provide a signal to the alert device to activate the alert device which is indicative of the vehicle moving backwards.
A pressure-sensitive adhesive composition, comprising: a polymer derived from butylene; and a compound satisfying Formula 1, and wherein the composition further comprises a multifunctional active energy ray polymerizable compound, wherein the polymer is comprised at 50 to 90 parts by weight, the compound satisfying Formula 1 is comprised at 5 to 35 parts by weight, and the multifunctional active energy ray polymerizable compound is comprised at 5 to 25 parts by weight, and where T is a linear or branched alkyl group, alkenyl group or alkynyl group having 6 to 30 carbon atoms, or -U-[O-W] n -O-Q, in which U and W are each independently an alkylene group or alkylidene group, Q is an alkyl group, alkenyl group, alkynyl group or aryl group, and n is a number from 0 to 10. a polymer derived from butylene; and a compound satisfying Formula 1, and wherein the composition further comprises a multifunctional active energy ray polymerizable compound, wherein the polymer is comprised at 50 to 90 parts by weight, the compound satisfying Formula 1 is comprised at 5 to 35 parts by weight, and the multifunctional active energy ray polymerizable compound is comprised at 5 to 25 parts by weight, and where T is a linear or branched alkyl group, alkenyl group or alkynyl group having 6 to 30 carbon atoms, or -U-[O-W] n -O-Q, in which U and W are each independently an alkylene group or alkylidene group, Q is an alkyl group, alkenyl group, alkynyl group or aryl group, and n is a number from 0 to 10.
Process for producing storage-stable concentrated aqueous solution of anionic dyes characterized in that an aqueous solution of at least one anionic crude dye of the formula wherein DK is phenyl or naphtyl or phenyl groups or naphtyl groups substituted by -SO 3 H, -COOH, -OH, -NH 2 or by C 1-4 -alkyl groups which are unsubstituted or which are further substituted by -OH, -COOH, -NH 2, -NHalkyl, -N(alkyl) 2 or by C 1-4 -alkoxy groups which are unsubstituted or which are further substituted by -SO 3 H, -COOH or-OH, KK1 and KK2 independently from each other are phenylen or naphtylen or phenylen groups or naphtylen groups which are further substituted by -OH, -COOH, -NH 2, -NHalkyl, -N(alkyl) 2 or by C 1-4 -alkoxy groups which are unsubstituted or which are further substituted by -SO 3 H, -COOH or -OH, R5 and R6 independently from each other are -H, -NH 2, -NH-C 6 H 5, -NH-CO-CH 3 or -NH-CO-C 6 H 5, is subjected to ultrafiltration and subsequent concentration, wherein the concentration of the dye in the solution is at least 5% by weight, and wherein no additional solubilizers, dispersants or tensides are used. DK is phenyl or naphtyl or phenyl groups or naphtyl groups substituted by -SO 3 H, -COOH, -OH, -NH 2 or by C 1-4 -alkyl groups which are unsubstituted or which are further substituted by -OH, -COOH, -NH 2, -NHalkyl, -N(alkyl) 2 or by C 1-4 -alkoxy groups which are unsubstituted or which are further substituted by -SO 3 H, -COOH or-OH, KK1 and KK2 independently from each other are phenylen or naphtylen or phenylen groups or naphtylen groups which are further substituted by -OH, -COOH, -NH 2, -NHalkyl, -N(alkyl) 2 or by C 1-4 -alkoxy groups which are unsubstituted or which are further substituted by -SO 3 H, -COOH or -OH, R5 and R6 independently from each other are -H, -NH 2, -NH-C 6 H 5, -NH-CO-CH 3 or -NH-CO-C 6 H 5,
Coin sorting device for processing coins, comprising - an insertion device into which coins for sorting are insertable, - a sorting device for sorting coins inserted via the insertion device, - a plurality of receiving containers for storing sorted coins, - an overflow collecting device for receiving coins after at least one receiving container has overflowed, wherein coins for reinserting into the insertion device are removable from the overflow collecting device and are reinsertable into the insertion device in a reinserting operation, and - a counting device for counting coins inserted into the insertion device and coins passing into the overflow collecting device, characterized by a checking device which is designed to check whether, in the event of a reinserting operation, the number of coins reinserted into the insertion device corresponds to the number of coins removed from the overflow collecting device, wherein the checking device is designed to produce an indication if it is determined during a reinserting operation that the number of coins reinserted into the insertion device does not correspond to the number of coins removed from the overflow collecting device, wherein the overflow collecting device has a first container and a second container for collecting coins, wherein the second container is arrangeable in or on the first container, wherein the overflow collecting device is designed in such a manner that, with a second container arranged in or on the first container, after at least one receiving container has overflowed, coins are collected in the second container, and the second container with coins collected therein is removable from the first container, wherein the overflow collecting device is designed in such a manner that, with the second container not arranged in or on the first container, after at least one receiving container has overflowed, coins are collected in the first container. - an insertion device into which coins for sorting are insertable, - a sorting device for sorting coins inserted via the insertion device, - a plurality of receiving containers for storing sorted coins, - an overflow collecting device for receiving coins after at least one receiving container has overflowed, wherein coins for reinserting into the insertion device are removable from the overflow collecting device and are reinsertable into the insertion device in a reinserting operation, and - a counting device for counting coins inserted into the insertion device and coins passing into the overflow collecting device,
Turbine module for a turbomachine, comprising a first flow bypass structure and a second flow bypass structure, which flow bypass structures (6, 21) are arranged in a hot gas channel which is delimited by the turbine module and designed for conducting a hot gas, and are arranged consecutively in a circumferential direction with respect to a longitudinal axis of the turbine module, the flow bypass structures (6, 21) each having, with respect to the bypass flow in the hot gas channel, a leading edge (6a, 21a) and a trailing edge (6b, 21b) downstream thereof, and the second flow bypass structure being provided in the form of a deflection vane, the second flow bypass structure having a smaller profile thickness than the first flow bypass structure, and the first flow bypass structure being arranged on the suction side of the second flow bypass structure, and a first portion of the hot gas that flows through between the first flow bypass structure and the second flow bypass structure, which is adjacent thereto in terms of circulation, passes, upstream, a first inflow region which is on a pressure-side wall of the first flow bypass structure and the leading edge of the second flow bypass structure, characterized in that the hot gas channel is designed so as to have a radial width, with respect to the longitudinal axis of the turbine module, which changes in the circulation direction, the radial width of the hot gas channel in the first inflow region being greater on the pressure-side wall of the first flow bypass structure than on the leading edge of the second flow bypass structure. a first flow bypass structure and a second flow bypass structure, the flow bypass structures (6, 21) each having, with respect to the bypass flow in the hot gas channel, a leading edge (6a, 21a) and a trailing edge (6b, 21b) downstream thereof, and the second flow bypass structure being provided in the form of a deflection vane, the second flow bypass structure having a smaller profile thickness than the first flow bypass structure, and the first flow bypass structure being arranged on the suction side of the second flow bypass structure, and a first portion of the hot gas that flows through between the first flow bypass structure and the second flow bypass structure, which is adjacent thereto in terms of circulation, passes, upstream, a first inflow region which is on a pressure-side wall of the first flow bypass structure and the leading edge of the second flow bypass structure, characterized in that the hot gas channel is designed so as to have a radial width, with respect to the longitudinal axis of the turbine module, which changes in the circulation direction, the radial width of the hot gas channel in the first inflow region being greater on the pressure-side wall of the first flow bypass structure than on the leading edge of the second flow bypass structure.