mhurhangee/ep-ind-claims huggingface dataset:
An optical fiber connecting structure, comprising: a first connector for a terminal of an optical fiber, comprising a plurality of ferrule holding members (12, 13) each holding a ferrule and being unitable with each other; and a second connector on an optical signal receiver side, comprising an interface housing with a cavity for insertion of the first connector, the interface housing in which a plurality of ferrule receivers for insertion of the ferrules are disposed, wherein each of the plurality of ferrule holding members (12, 13) comprises a ferrule holding groove (12b, 13b) for insertion of the corresponding ferrule in a direction perpendicular to an axial direction of the corresponding ferrule, wherein the plurality of ferrule holding members (12, 13) are united to each other with opening faces of the ferrule holding grooves (12b, 13b) being disposed to face each other, and characterized in that the interface housing comprises a ferrule guide configured to guide each of the ferrules to a proper insertion position upon insertion of the first connector into the cavity, wherein the ferrule guide comes at a position between the ferrules being inserted into the cavity to guide an interval of the ferrules to a predetermined pitch interval. a first connector for a terminal of an optical fiber, comprising a plurality of ferrule holding members (12, 13) each holding a ferrule and being unitable with each other; and a second connector on an optical signal receiver side, comprising an interface housing with a cavity for insertion of the first connector, the interface housing in which a plurality of ferrule receivers for insertion of the ferrules are disposed, wherein each of the plurality of ferrule holding members (12, 13) comprises a ferrule holding groove (12b, 13b) for insertion of the corresponding ferrule in a direction perpendicular to an axial direction of the corresponding ferrule, wherein the plurality of ferrule holding members (12, 13) are united to each other with opening faces of the ferrule holding grooves (12b, 13b) being disposed to face each other, and characterized in that the interface housing comprises a ferrule guide configured to guide each of the ferrules to a proper insertion position upon insertion of the first connector into the cavity, wherein the ferrule guide comes at a position between the ferrules being inserted into the cavity to guide an interval of the ferrules to a predetermined pitch interval. wherein the plurality of ferrule holding members (12, 13) are united to each other with opening faces of the ferrule holding grooves (12b, 13b) being disposed to face each other, and characterized in that the interface housing comprises a ferrule guide configured to guide each of the ferrules to a proper insertion position upon insertion of the first connector into the cavity, wherein the ferrule guide comes at a position between the ferrules being inserted into the cavity to guide an interval of the ferrules to a predetermined pitch interval.
A battery cell, comprising: a battery case having an accommodation portion in which an electrode assembly is mounted, and a sealing portion formed by sealing an outer periphery thereof; an electrode lead electrically connected to an electrode tab included in the electrode assembly and protruding out of the battery case via the sealing portion; and a lead film located at a portion corresponding to the sealing portion in at least one of an upper portion and a lower portion of the electrode lead, characterized in that a non-adhesion portion is formed on an outer surface of the lead film, and the non-adhesion portion is configured to face an outer surface of the electrode lead. a battery case having an accommodation portion in which an electrode assembly is mounted, and a sealing portion formed by sealing an outer periphery thereof; an electrode lead electrically connected to an electrode tab included in the electrode assembly and protruding out of the battery case via the sealing portion; and a lead film located at a portion corresponding to the sealing portion in at least one of an upper portion and a lower portion of the electrode lead, characterized in that a non-adhesion portion is formed on an outer surface of the lead film, and the non-adhesion portion is configured to face an outer surface of the electrode lead.
A method for wireless communication, the method performed by a user equipment, UE, the method comprising: receiving a measurement gap configuration from a base station specifying a measurement gap type of a plurality of different measurement gap types; measuring, in accordance with the received measurement gap configuration, in a measurement gap corresponding to the specified measurement gap type, a reference signal to generate a measurement using a first subarray of a plurality of subarrays of an antenna array of the UE; generating a measurement report specific to a rank supported by the UE and the first subarray, wherein the measurement report indicates the measurement, the supported rank, and an index of the first subarray of the plurality of subarrays used for the measurement; transmitting the measurement report to the base station; and receiving an instruction from the base station to use a particular subarray of the plurality of subarrays and a particular beam for communication with the base station. receiving a measurement gap configuration from a base station specifying a measurement gap type of a plurality of different measurement gap types; measuring, in accordance with the received measurement gap configuration, in a measurement gap corresponding to the specified measurement gap type, a reference signal to generate a measurement using a first subarray of a plurality of subarrays of an antenna array of the UE; generating a measurement report specific to a rank supported by the UE and the first subarray, wherein the measurement report indicates the measurement, the supported rank, and an index of the first subarray of the plurality of subarrays used for the measurement; transmitting the measurement report to the base station; and receiving an instruction from the base station to use a particular subarray of the plurality of subarrays and a particular beam for communication with the base station.
Process for degassing liquid sulfur, which contains dissolved hydrogen sulfide and hydrogen polysulfides, comprising the step of contacting said liquid sulfur with a catalyst module, while contacting said liquid sulfur with a stripping gas, wherein the voidage of said catalyst module is 60 % or more, wherein the LHSV of the catalyst module is at least about 2 m 3 sulfur /m 3 catalyst /hour, wherein the outer surface area of the catalyst module is up to about 400 m 2 /m 3, and wherein the stripping gas is introduced into the vessel such that it does not pass through the catalyst module.
A home appliance, comprising: an electromagnetic valve for a fluid flow comprising a valve chamber, an inflow line connected to the valve chamber, a first outflow line connected to the valve chamber, at least one second outflow line connected to the valve chamber, and a valve body displaceable in the valve chamber between more than one end positions, wherein at least one of the end positions corresponds to the second outflow line to control flow of the fluid through the corresponding second outflow line, and wherein the first outflow line is always open to fluid outflow regardless of the position of the valve body; a cooling circuit with a refrigerant fluid, wherein the outflow lines (39, 40) are each connected to a corresponding outflow capillary tube, and wherein the capillary tubes are connected to a single inlet of a heat exchanger of the cooling circuit. an electromagnetic valve for a fluid flow comprising a valve chamber, an inflow line connected to the valve chamber, a first outflow line connected to the valve chamber, at least one second outflow line connected to the valve chamber, and a valve body displaceable in the valve chamber between more than one end positions, wherein at least one of the end positions corresponds to the second outflow line to control flow of the fluid through the corresponding second outflow line, and wherein the first outflow line is always open to fluid outflow regardless of the position of the valve body; a cooling circuit with a refrigerant fluid, wherein the outflow lines (39, 40) are each connected to a corresponding outflow capillary tube, and wherein the capillary tubes are connected to a single inlet of a heat exchanger of the cooling circuit.
Cleaning machine for cleaning containers, wherein the containers which are to be cleaned are moved by means of a transport system in container cells of the transport system between a bottle inlet and a bottle delivery station through different treatment zones, wherein the treatment zones comprise at least one immersion bath (7, 8) as well as at least one spraying zone with at least one spraying station, wherein the at least one spraying station comprises at least one injection nozzle with at least one cleaning jet for the application imposition of a cleaning fluid onto the container received in a transport system (5, 15), with each respective container mouth (2.1) pointing downwards, wherein the alignment direction of the cleaning jet relative to the container which is to be cleaned is provided for in the region of the spraying station, during the imposition of the cleaning fluid onto the container, wherein the spraying station comprises at least one inspection device, which is configured such as to detect and/or evaluate the at least one cleaning jet produced by the injection nozzle, wherein at least one sensor unit is arranged above the at least one injection nozzle which is to be detected, such that, during the imposition of cleaning fluid, its cleaning jet impacts onto the sensor unit and/or a detection region of the sensor unit, and can therefore be detected when a free container cell is located above the injection nozzle, and the cleaning jet passes through an opening of the container cell on a side of the container cell opposite the injection nozzle.
A process for monitoring the operation of a desalter in a refining operation to mitigate fouling of heat exchangers, comprising: processing raw crude oil in a desalter with wash water to remove particles from the crude oil; measuring particles in the processed crude oil, wherein measuring particles includes collecting the total particle counts and sorting the counts based on particle size and generating data based on the measurements; and adjusting the processing in the desalter based on the data generated from the measurements. processing raw crude oil in a desalter with wash water to remove particles from the crude oil; measuring particles in the processed crude oil, wherein measuring particles includes collecting the total particle counts and sorting the counts based on particle size and generating data based on the measurements; and adjusting the processing in the desalter based on the data generated from the measurements.
Structural subassembly for a compressor of a turbomachine, which has: - a rotor having a plurality of blades, which extend radially in a flow path of the turbomachine, and - a compressor casing, which forms a flow path boundary, which delimits the flow path through the turbomachine radially on the outside, wherein - the compressor casing has casing structuring adjoining the rotor, which casing structuring counteracts rotating stall, - the compressor casing has a plurality of circumferential segments (41, 42), which extend in a circumferential direction, wherein only one or only some of the circumferential segments forms or form the casing structuring, and - at least one circumferential segment (41, 42) of the compressor casing has an abradable lining (7, 71, 72), characterized in that only one or only some of the circumferential segments has or have an abradable lining, wherein the circumferential segments (41, 42) have two different casing radii, wherein the casing radius of a circumferential segment which has an abradable lining (7, 71, 72) is larger than the casing radius of a circumferential segment which does not have an abradable lining. - a rotor having a plurality of blades, which extend radially in a flow path of the turbomachine, and - a compressor casing, which forms a flow path boundary, which delimits the flow path through the turbomachine radially on the outside, wherein - the compressor casing has casing structuring adjoining the rotor, which casing structuring counteracts rotating stall, - the compressor casing has a plurality of circumferential segments (41, 42), which extend in a circumferential direction, wherein only one or only some of the circumferential segments forms or form the casing structuring, and - at least one circumferential segment (41, 42) of the compressor casing has an abradable lining (7, 71, 72),
An optical semiconductor package (1C-1G) comprising: a base material that includes a principal surface; an optical semiconductor element that is located on the principal surface of the base material to project or receive light; and an optical transparency sealing layer that seals the optical semiconductor element while covering the principal surface of the base material, wherein an air gap having a shape surrounding an optical axis of the optical semiconductor element is provided in the optical transparency sealing layer such that the light is reflected by an interface of a portion corresponding to an inner circumferential surface of the air gap in an interface formed by the air gap and the optical transparency sealing layer, characterized in that an internally added air gap formed into a conical plate shape and disposed in coaxial with the air gap, or a plurality of array-shape added air gaps, each formed into a conical plate shape, is/are further provided on the internal side of the air gap in the optical transparency sealing layer in a portion located on an opposite side to a side on which the base material is located, or in a portion closer to the base material or a neighborhood of a central portion of the optical transparency sealing layer along a direction of the optical axis. a base material that includes a principal surface; an optical semiconductor element that is located on the principal surface of the base material to project or receive light; and an optical transparency sealing layer that seals the optical semiconductor element while covering the principal surface of the base material, wherein an air gap having a shape surrounding an optical axis of the optical semiconductor element is provided in the optical transparency sealing layer such that the light is reflected by an interface of a portion corresponding to an inner circumferential surface of the air gap in an interface formed by the air gap and the optical transparency sealing layer, characterized in that an internally added air gap formed into a conical plate shape and disposed in coaxial with the air gap, or a plurality of array-shape added air gaps, each formed into a conical plate shape, is/are further provided on the internal side of the air gap in the optical transparency sealing layer in a portion located on an opposite side to a side on which the base material is located, or in a portion closer to the base material or a neighborhood of a central portion of the optical transparency sealing layer along a direction of the optical axis.
An isolated polypeptide having a glycosyltransferase activity apt to form dextrans with α(1→2) side-chains, from saccharose, α-D-fluoro-glucose, para-nitrophenyl-α-D-glucopyranoside, α-D-glucopyranoside-α-D-sorbofuranoside, or 4-O-α-D-galactopyranosylsucrose, said polypeptide being characterized: a. in that it comprises the SEQ ID NR 2; or b. in that it has a structure made up, from the polypeptide's amino end, of a signal sequence, a variable region, a first catalytic domain, a glucan-binding domain and a second catalytic domain, in which: i. the sequences of the first and second catalytic domains of said polypeptide have a similarity percentage with the SEQ ID NR: 1 of between 65% and 100%, the catalytic triad Asp/Glu/Asp in respective positions 230/268/342 of SEQ ID NR: 1 being conserved, and ii. the glucan-binding domain being over 500 amino-acids in length. a. in that it comprises the SEQ ID NR 2; or b. in that it has a structure made up, from the polypeptide's amino end, of a signal sequence, a variable region, a first catalytic domain, a glucan-binding domain and a second catalytic domain, in which: i. the sequences of the first and second catalytic domains of said polypeptide have a similarity percentage with the SEQ ID NR: 1 of between 65% and 100%, the catalytic triad Asp/Glu/Asp in respective positions 230/268/342 of SEQ ID NR: 1 being conserved, and ii. the glucan-binding domain being over 500 amino-acids in length. i. the sequences of the first and second catalytic domains of said polypeptide have a similarity percentage with the SEQ ID NR: 1 of between 65% and 100%, the catalytic triad Asp/Glu/Asp in respective positions 230/268/342 of SEQ ID NR: 1 being conserved, and ii. the glucan-binding domain being over 500 amino-acids in length.
A method for removing rust from a ferrous metal-containing surface comprising contacting the surface with a composition comprising: (a) a carboxylic acid; (b) a synthetic hectorite clay; and (c) water. (a) a carboxylic acid; (b) a synthetic hectorite clay; and (c) water.
A method for monitoring a laser machining process, said method comprising the steps of: - inputting at least one process signal data set of the laser machining process into an autoencoder; - reconstructing the input process signal data set by means of said autoencoder, comprising: generating an encoding by means of an encoder of the autoencoder based on the at least one process signal data set, wherein generating the encoding comprises a dimension reduction of the at least one process signal data set, generating a reconstructed process signal data set (51, 5) by a decoder of the autoencoder based on the generated encoding, wherein the encoder and the decoder consist of a deep neural network, respectively; - determining a reconstruction error based on the at least one process signal data set and the at least one reconstructed process signal data set comprising determining a deviation of the at least one process signal data set from the at least one reconstructed process signal data set; and - detecting an anomaly of the laser machining process based on the determined reconstruction error. - inputting at least one process signal data set of the laser machining process into an autoencoder; - reconstructing the input process signal data set by means of said autoencoder, comprising: generating an encoding by means of an encoder of the autoencoder based on the at least one process signal data set, wherein generating the encoding comprises a dimension reduction of the at least one process signal data set, generating a reconstructed process signal data set (51, 5) by a decoder of the autoencoder based on the generated encoding, wherein the encoder and the decoder consist of a deep neural network, respectively; generating an encoding by means of an encoder of the autoencoder based on the at least one process signal data set, wherein generating the encoding comprises a dimension reduction of the at least one process signal data set, generating a reconstructed process signal data set (51, 5) by a decoder of the autoencoder based on the generated encoding, wherein the encoder and the decoder consist of a deep neural network, respectively; - determining a reconstruction error based on the at least one process signal data set and the at least one reconstructed process signal data set comprising determining a deviation of the at least one process signal data set from the at least one reconstructed process signal data set; and - detecting an anomaly of the laser machining process based on the determined reconstruction error.
A method of making a sensor comprising (a) a polyurethane resin foam containing a magnetic filler and (b) a magnetic sensor that detects a magnetic change caused by a deformation of the resin foam, the method comprising the steps of: (i) forming an isocyanate group-containing urethane prepolymer from a polyisocyanate component and an active hydrogen component, (ii) preliminary stirring an active hydrogen component, a catalyst and a magnetic filler to form a magnetic filler dispersion, (iii) adding a foam stabilizer to the isocyanate group-containing urethane prepolymer to vigorously stir it under a non-reactive gas atmosphere such that it incorporates bubbles therein as a primary stirring step, (iv) further adding the magnetic filler dispersion thereto and stirring it as a secondary stirring step to prepare a bubble dispersed urethane composition containing the magnetic filler, (v) molding the bubble dispersed urethane composition into a desired shape and then curing it to prepare an urethane resin foam containing the magnetic filler, and (vi) magnetizing the urethane resin foam to form a magnetic urethane resin foam, wherein the resin foam has a hardness change (H 1 -H 60) of 0 to 10 between a JIS-C hardness (H 1) in one second after contact with a pressure surface of a hardness tester and a JIS-C hardness (H 60) in 60 seconds after the contact, and the JIS-C hardness is measured according to JIS K-7312. (i) forming an isocyanate group-containing urethane prepolymer from a polyisocyanate component and an active hydrogen component, (ii) preliminary stirring an active hydrogen component, a catalyst and a magnetic filler to form a magnetic filler dispersion, (iii) adding a foam stabilizer to the isocyanate group-containing urethane prepolymer to vigorously stir it under a non-reactive gas atmosphere such that it incorporates bubbles therein as a primary stirring step, (iv) further adding the magnetic filler dispersion thereto and stirring it as a secondary stirring step to prepare a bubble dispersed urethane composition containing the magnetic filler, (v) molding the bubble dispersed urethane composition into a desired shape and then curing it to prepare an urethane resin foam containing the magnetic filler, and (vi) magnetizing the urethane resin foam to form a magnetic urethane resin foam,