mhurhangee/ep-ind-claims huggingface dataset:
A galley refrigeration system for an aircraft comprising: a liquid heat exchange loop; a first air heat exchange loop in thermal communication with the liquid heat exchange loop, the first air heat exchange loop comprising a first heat exchanger and configured to be coupled in flow communication with a first galley cart in a cart compartment of the galley; a second air heat exchange loop in thermal communication with the liquid heat exchange loop, the second air heat exchange loop comprising a second heat exchanger and configured to be coupled in flow communication with a second galley cart, and wherein the galley refrigeration system is arranged within the galley, the galley having a rear wall, and wherein the first and second heat exchangers are located within the rear wall of the galley, wherein the liquid heat exchange loop comprises supply and return lines (132, 134) and each of the air heat exchange loops comprises supply and return ducts (142, 144), the supply and return lines (132, 134) and the supply and return ducts (142, 144) being provided in the rear wall, wherein the liquid heat exchange loop further comprises: a chiller, the supply line extending between the chiller and the air heat exchange loop, and the return line extending between the chiller and the air heat exchange loop, an accumulator in the supply line configured to store cold liquid, and characterized in that the chiller and the accumulator are provided at the top of the galley in a crown of the aircraft. a liquid heat exchange loop; a first air heat exchange loop in thermal communication with the liquid heat exchange loop, the first air heat exchange loop comprising a first heat exchanger and configured to be coupled in flow communication with a first galley cart in a cart compartment of the galley; a second air heat exchange loop in thermal communication with the liquid heat exchange loop, the second air heat exchange loop comprising a second heat exchanger and configured to be coupled in flow communication with a second galley cart, and wherein the galley refrigeration system is arranged within the galley, the galley having a rear wall, and wherein the first and second heat exchangers are located within the rear wall of the galley, wherein the liquid heat exchange loop comprises supply and return lines (132, 134) and each of the air heat exchange loops comprises supply and return ducts (142, 144), the supply and return lines (132, 134) and the supply and return ducts (142, 144) being provided in the rear wall, wherein the liquid heat exchange loop further comprises: a chiller, the supply line extending between the chiller and the air heat exchange loop, and the return line extending between the chiller and the air heat exchange loop, an accumulator in the supply line configured to store cold liquid, and a chiller, the supply line extending between the chiller and the air heat exchange loop, and the return line extending between the chiller and the air heat exchange loop, an accumulator in the supply line configured to store cold liquid, and characterized in that the chiller and the accumulator are provided at the top of the galley in a crown of the aircraft.
A traffic measuring system comprising: a location-determining device; a speed limit database storing speed limits for a plurality of road segments; a speed-determining device for determining a current speed of the system; and a processor determining a current location of the system, including a current road segment from the location-determining device, the processor determining a speed limit of the current road segment, the processor comparing the current speed of the system to the speed limit of the current road segment to determine a traffic condition, wherein the processor further reports the traffic condition to a server remote from the traffic measuring system, and wherein the processor requests traffic information from the server for road segments other than the current road segment, those requests being based upon a current direction of travel of the system and based upon the current location of the system. a location-determining device; a speed limit database storing speed limits for a plurality of road segments; a speed-determining device for determining a current speed of the system; and a processor determining a current location of the system, including a current road segment from the location-determining device, the processor determining a speed limit of the current road segment, the processor comparing the current speed of the system to the speed limit of the current road segment to determine a traffic condition, wherein the processor further reports the traffic condition to a server remote from the traffic measuring system, and wherein the processor requests traffic information from the server for road segments other than the current road segment, those requests being based upon a current direction of travel of the system and based upon the current location of the system.
An electronic device comprising: a display having a first surface facing a first direction: a metal frame structure configured to form a side surface, which faces a second direction perpendicular to the first direction, of the electronic device; a rear plate having a second surface facing a third direction opposite to the first direction; at least one antenna module disposed inside the side surface and having a radiation surface facing the second direction; at least one dielectric layer having at least one partial region attached to the radiation surface of an antenna array, and disposed between the at least one antenna module and the side surface; and a wireless communication circuit configured to transmit or receive a radio frequency, RF, signal in a predetermined frequency band to or from the at least one antenna module, wherein the at least one dielectric layer comprises a first dielectric sheet attached to at least one partial region of the radiation surface of the antenna module and a second dielectric sheet disposed on the first dielectric sheet in the second direction, and wherein the first dielectric sheet comprises a thermal conductive material having a first permittivity and the second dielectric sheet comprising a material having a second permittivity larger than the first permittivity. a metal frame structure configured to form a side surface, which faces a second direction perpendicular to the first direction, of the electronic device; a rear plate having a second surface facing a third direction opposite to the first direction; at least one antenna module disposed inside the side surface and having a radiation surface facing the second direction; at least one dielectric layer having at least one partial region attached to the radiation surface of an antenna array, and disposed between the at least one antenna module and the side surface; and a wireless communication circuit configured to transmit or receive a radio frequency, RF, signal in a predetermined frequency band to or from the at least one antenna module, wherein the at least one dielectric layer comprises a first dielectric sheet attached to at least one partial region of the radiation surface of the antenna module and a second dielectric sheet disposed on the first dielectric sheet in the second direction, and wherein the first dielectric sheet comprises a thermal conductive material having a first permittivity and the second dielectric sheet comprising a material having a second permittivity larger than the first permittivity.
An apparatus for processing a workpiece along a drilling axis, the apparatus comprising an end effector, the end effector comprising: a pressure foot; a clamp linearly movable relative to the pressure foot along the drilling axis; a flat angle drill linearly movable relative to the pressure foot along the drilling axis; a base; a spindle linearly movable relative to the base along the drilling axis; a drill bracket fixed relative to the spindle and configured to retain the flat angle drill in a clocked orientation relative to the drill bracket and to brace the flat angle drill along the drilling axis; and a translation platform linearly movable relative to the base along the drilling axis, wherein the flat angle drill is configured to be operatively coupled to the spindle, the spindle is linearly movable relative to the translation platform along the drilling axis, and the pressure foot is fixed relative to the translation platform. a pressure foot; a clamp linearly movable relative to the pressure foot along the drilling axis; a flat angle drill linearly movable relative to the pressure foot along the drilling axis; a base; a spindle linearly movable relative to the base along the drilling axis; a drill bracket fixed relative to the spindle and configured to retain the flat angle drill in a clocked orientation relative to the drill bracket and to brace the flat angle drill along the drilling axis; and a translation platform linearly movable relative to the base along the drilling axis, wherein the flat angle drill is configured to be operatively coupled to the spindle, the spindle is linearly movable relative to the translation platform along the drilling axis, and the pressure foot is fixed relative to the translation platform.
A shoe last, comprising a heel part and a fore sole part that has several built-in ultraviolet sterilizing lights, wherein the heel part is connected to the fore sole part through a connecting part, wherein: an exterior edge of an end part of the fore sole part extends out several spreading claws that can be bent to a center, and the several ultraviolet sterilizing lights are disposed inside accommodation space surrounded and formed by the several spreading claws.
A system for charging at least two traction batteries (12, 14) of industrial trucks, with a charger, means for detecting the charging status of the battery (12, 14) which is connected to the charger via a charging cable, the means generating a signal when the battery (12, 14) is at least almost completely charged, as well as switching means for for ending the charging, an input of a change-over device being connected to the output of the charger, the change-over device being provided with at least two outputs (22, 24), which can be connected simultaneously to the at least two batteries (12, 14) via at least two charging cables (28, 30), wherein the input can be connected at option to one of the least two outputs (22, 24) and the input of the change-over device is switched over to another output when the change-over device receives the signal of the detecting means as change-over signal, the change-over device being arranged in a separate casing and being connected to the charger via a further charging cable, wherein the detecting means measures in addition the current and/or the voltage and/or the capacity of the traction battery, and the change-over of the change-over device occurs shortly before the traction battery (12, 14) is completely charged.
A semiconductor detector head, comprising: - a detector chip having a front side and a back side, - a substrate on the back side of said detector chip, - contact points (503, 504) on at least one of said substrate and said detector chip for providing electrical connection to the detector chip, characterized in that it further comprises: - a first set of protruding contact pins arranged in a ring on an opposite side of said substrate than said detector chip, wherein at least one of the contact pins of said first set is conductively coupled to at least one of said contact points (503, 504), - a base plate (404, 1502), - a second set of contact pins arranged in a ring and protruding from said base plate (404, 1502) towards the contact pins of said first set, and - electric connections between matching pairs of contact pins (506, 1501) of said first and second sets, wherein in each matching pair the respective ends of a pin from said first set and a pin from said second set are arranged close to or into contact with each other, and - a thermoelectric cooler arranged between said base plate (404, 1502) and said substrate within the ring defined by the first and second sets of contact pins (506, 1501). - a detector chip having a front side and a back side, - a substrate on the back side of said detector chip, - contact points (503, 504) on at least one of said substrate and said detector chip for providing electrical connection to the detector chip, - a first set of protruding contact pins arranged in a ring on an opposite side of said substrate than said detector chip, wherein at least one of the contact pins of said first set is conductively coupled to at least one of said contact points (503, 504), - a base plate (404, 1502), - a second set of contact pins arranged in a ring and protruding from said base plate (404, 1502) towards the contact pins of said first set, and - electric connections between matching pairs of contact pins (506, 1501) of said first and second sets, wherein in each matching pair the respective ends of a pin from said first set and a pin from said second set are arranged close to or into contact with each other, and - a thermoelectric cooler arranged between said base plate (404, 1502) and said substrate within the ring defined by the first and second sets of contact pins (506, 1501).
A chimeric antigen receptor comprising (i) an antigen binding molecule that specifically binds to CLL-1, (ii) an extracellular domain, (iii) a transmembrane domain, (iv) a costimulatory domain and (v) an activating domain, wherein the antigen binding molecule is a single chain variable fragment (scFv) comprising: (a) a variable heavy chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 17, 18 and 19, respectively, and a variable light chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 22, 23 and 24, respectively, or (b) a variable heavy chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 51, 52 and 53, respectively, and a variable light chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 56, 57, and 58, respectively. (i) an antigen binding molecule that specifically binds to CLL-1, (ii) an extracellular domain, (iii) a transmembrane domain, (iv) a costimulatory domain and (v) an activating domain, wherein the antigen binding molecule is a single chain variable fragment (scFv) comprising: (a) a variable heavy chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 17, 18 and 19, respectively, and a variable light chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 22, 23 and 24, respectively, or (b) a variable heavy chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 51, 52 and 53, respectively, and a variable light chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 56, 57, and 58, respectively. (a) a variable heavy chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 17, 18 and 19, respectively, and a variable light chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 22, 23 and 24, respectively, or (b) a variable heavy chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 51, 52 and 53, respectively, and a variable light chain comprising CDR1, CDR2 and CDR3 according to SEQ ID NOs: 56, 57, and 58, respectively.
A piston comprising: a base piston unit comprising a piston boss having a pin hole; a moving piston unit having a piston head and a circumferential wall part surrounding an entire circumference of the piston head and extending in reciprocation directions (A, A1, A2) of the piston, holding the base piston unit in the circumferential wall part and being able to reciprocate with respect to the base piston unit; and an elastic member provided between the base piston unit and the moving piston unit and configured to expand and contract as the moving piston unit reciprocates with respect to the base piston unit, characterized in that the circumferential wall part has a pair of skirt parts opposing each other across the piston boss and a pair of side-wall parts coupling the skirt parts and each having an outer circumferential surface concaved toward a central axis of the piston; the side-wall parts have a penetration part each, which penetrates the side-wall part and which extends in the reciprocation directions; the base piston unit has projections extending perpendicular to the central axis of the piston and inserted in the penetration parts; and the penetration parts open at a side facing away from the piston head in the reciprocation directions. a base piston unit comprising a piston boss having a pin hole; a moving piston unit having a piston head and a circumferential wall part surrounding an entire circumference of the piston head and extending in reciprocation directions (A, A1, A2) of the piston, holding the base piston unit in the circumferential wall part and being able to reciprocate with respect to the base piston unit; and an elastic member provided between the base piston unit and the moving piston unit and configured to expand and contract as the moving piston unit reciprocates with respect to the base piston unit, characterized in that the circumferential wall part has a pair of skirt parts opposing each other across the piston boss and a pair of side-wall parts coupling the skirt parts and each having an outer circumferential surface concaved toward a central axis of the piston; the side-wall parts have a penetration part each, which penetrates the side-wall part and which extends in the reciprocation directions; the base piston unit has projections extending perpendicular to the central axis of the piston and inserted in the penetration parts; and the penetration parts open at a side facing away from the piston head in the reciprocation directions.
A process for continuously transforming waste to obtain products with appropriately controlled composition, characterised in that it comprises the operations of: forming a plasma at atmospheric pressure in a first chamber, introducing waste to be transformed, simultaneously with any combustion supporter, into a second chamber separated from the first chamber by at least one thermally conductive dividing element, wherein the introduction of waste to be transformed together with the combustion supporter takes place by means of a plurality of insertion points, which are on different levels, through nozzle or other means, and extracting products with controlled composition. forming a plasma at atmospheric pressure in a first chamber, introducing waste to be transformed, simultaneously with any combustion supporter, into a second chamber separated from the first chamber by at least one thermally conductive dividing element, wherein the introduction of waste to be transformed together with the combustion supporter takes place by means of a plurality of insertion points, which are on different levels, through nozzle or other means, and extracting products with controlled composition.
Crosslinkable polymer powder compositions redispersible in water comprising one or more protective colloid-stabilized vinyl ester polymers, one or more compounds bearing epoxide groups and optionally one or more curing agents which crosslink with the compounds bearing epoxide groups, wherein the vinyl ester polymers do not comprise any epoxide-functional monomer units, and the crosslinkable polymer powder compositions redispersible in water comprise ≥ 51% by weight, based on the total weight of the vinyl ester polymers, of one or more compounds bearing epoxide groups, and mixtures of the protective colloid-stabilized vinyl ester polymers and the compounds bearing epoxide groups have glass transition temperatures Tg of -40°C to +20°C, determined by means of Differential Scanning Calorimetry. one or more protective colloid-stabilized vinyl ester polymers, one or more compounds bearing epoxide groups and optionally one or more curing agents which crosslink with the compounds bearing epoxide groups, wherein the vinyl ester polymers do not comprise any epoxide-functional monomer units, and the crosslinkable polymer powder compositions redispersible in water comprise ≥ 51% by weight, based on the total weight of the vinyl ester polymers, of one or more compounds bearing epoxide groups, and mixtures of the protective colloid-stabilized vinyl ester polymers and the compounds bearing epoxide groups have glass transition temperatures Tg of -40°C to +20°C, determined by means of Differential Scanning Calorimetry.
A demodulation reference signal transmission apparatus, comprising: • a transmitter, configured to send a configuration indication to a user equipment UE, wherein the configuration indication is used to instruct the UE to send a demodulation reference signal, DMRS, before scheduling the UE to perform a transmission on a Physical Uplink Shared Channel, PUSCH, wherein the DMRS is a DMRS that does not depend on uplink data; and • a receiver, configured to receive the DMRS sent by the UE. • a transmitter, configured to send a configuration indication to a user equipment UE, wherein the configuration indication is used to instruct the UE to send a demodulation reference signal, DMRS, before scheduling the UE to perform a transmission on a Physical Uplink Shared Channel, PUSCH, wherein the DMRS is a DMRS that does not depend on uplink data; and • a receiver, configured to receive the DMRS sent by the UE.
Method for winding a stator, comprising: - supplying a stator comprising - supports for the windings and - a ring comprising branches for receiving the supports for the windings, the branches extending radially toward the outside of the ring, and - winding of at least two supports for the windings using a continuous wire. - supplying a stator comprising - supports for the windings and - a ring comprising branches for receiving the supports for the windings, the branches extending radially toward the outside of the ring, and - winding of at least two supports for the windings using a continuous wire.
A process for purification of recombinant human albumin, the process comprising the steps of: a. separating plurality of cells from fermentation broth or harvest by centrifugation; b. microfiltering the obtained cell free supernatant; c. concentrating the microfiltered supernatant and diafiltering it against water; d. loading the diafiltered sample on a cation exchange column for purification in bind and elute mode; e. separating the monomeric albumin from aggregates and degradation products by hydrophobic interaction chromatography by addition of 5-30mM cysteine and 5-30mM caprylate in a flow through mode; f. pooling the flow-through and wash and diafiltering the same against water; g. loading the albumin on anion exchange resin for chromatography in bind and elute mode; h. concentrating the eluted protein and diafiltering against water; and i. sterile filtering the protein and subjecting to pasteurization at 60°C for 1-10 hours. a. separating plurality of cells from fermentation broth or harvest by centrifugation; b. microfiltering the obtained cell free supernatant; c. concentrating the microfiltered supernatant and diafiltering it against water; d. loading the diafiltered sample on a cation exchange column for purification in bind and elute mode; e. separating the monomeric albumin from aggregates and degradation products by hydrophobic interaction chromatography by addition of 5-30mM cysteine and 5-30mM caprylate in a flow through mode; f. pooling the flow-through and wash and diafiltering the same against water; g. loading the albumin on anion exchange resin for chromatography in bind and elute mode; h. concentrating the eluted protein and diafiltering against water; and i. sterile filtering the protein and subjecting to pasteurization at 60°C for 1-10 hours.