mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for manipulating articles initially disposed in a stack comprising a plurality of tiers of articles, which apparatus comprises a moveable head and a receptacle, the receptacle being disposable adjacent to a stack of articles, characterised in that the moveable head is operable to abut and transfer a selected group of articles from an uppermost tier of the stack into the receptacle, wherein the moveable head comprises a body and a plurality of fingers for sliding said selected group of articles from the stack into the receptacle, the apparatus comprising moveable abutment plates (32, 36, 38) that are moveable into contact with one or more adjacent faces of the stack so as to urge the selected group of articles in the uppermost tier of the stack into a predetermined alignment.
A segment display, comprising a light guide having at least two light-guiding elements, which each have a light entry point and a light emission point, wherein the light guide has a closed surface on the side of the light emission point, wherein the segment display has at least one segment, characterised in that the at least one segment is embodied as an indentation in the closed surface.
An antibody that neutralizes the inhibitory activity of human NKG2A for use in treating cancer in a human individual who experiences progressive disease upon (during or following) treatment with an antibody that neutralizes the inhibitory activity of human PD-1.
An immunostimulatory composition, comprising: an isolated RNA oligomer 5-40 nucleotides long having a base sequence comprising at least 60% guanine and uracil, wherein the base sequence is free of CpG dinucleotides; and a cationic lipid. an isolated RNA oligomer 5-40 nucleotides long having a base sequence comprising at least 60% guanine and uracil, wherein the base sequence is free of CpG dinucleotides; and a cationic lipid.
A print head for additive manufacturing, comprising: at least two hobs, at least one of which is driven, configured to receive and extrude there between a print material filament for the additive manufacturing; a material guide configured to receive the extruded print material filament; at least one heater element coupled to a transition point along the material guide distally from the at least two hobs, wherein the transition point comprises an at least partial liquefication of the print material within the material guide by the at least one heater element to allow for printing of the at least partially liquefied print material; and at least one peltier device at least partially about an upper aspect of the transition point and configured to at least sink heat from the upper aspect of the transition point to thereby preclude partial liquefication of the print material above the upper aspect further comprising a controller associated with at least the at least one peltier device and configured to execute a print plan, characterized in that, the controller is configured to vary a print speed in accordance with cooling capabilities of the at least one peltier device. at least two hobs, at least one of which is driven, configured to receive and extrude there between a print material filament for the additive manufacturing; a material guide configured to receive the extruded print material filament; at least one heater element coupled to a transition point along the material guide distally from the at least two hobs, wherein the transition point comprises an at least partial liquefication of the print material within the material guide by the at least one heater element to allow for printing of the at least partially liquefied print material; and at least one peltier device at least partially about an upper aspect of the transition point and configured to at least sink heat from the upper aspect of the transition point to thereby preclude partial liquefication of the print material above the upper aspect further comprising a controller associated with at least the at least one peltier device and configured to execute a print plan,
A method of identifying a fault in a railway electrification system, the railway electrification system comprising: an electrical power source; a supply conductor; a return conductor; a rail line; and a plurality of autotransformers, the supply conductor configured to supply electrical power from the electrical power source to a rail vehicle on the rail line, the return conductor configured to provide a current return path to the electrical power source, the rail line electrically connected to ground, each autotransformer arranged along the rail line and configured to electrically interconnect the supply conductor, return conductor and rail line, the method comprising the steps of: determining voltage and current phasors from voltage and current measured at the electrical power source; determining, based on the voltage and current phasors, whether the fault is located between the supply and return conductors (28,30) or between the supply conductor and ground; determining, based on the voltage and current phasors, the location of the fault along the supply conductor. determining voltage and current phasors from voltage and current measured at the electrical power source; determining, based on the voltage and current phasors, whether the fault is located between the supply and return conductors (28,30) or between the supply conductor and ground; determining, based on the voltage and current phasors, the location of the fault along the supply conductor.
A method for managing a plurality of groups of Machine-Type Communication devices in a cellular network comprising an exposure function for exposing network capabilities and events detected by other network functions, the method characterized by comprising the following steps carried out at the exposure function: - a) receiving, from an MTC application, a request for membership management on the plurality of MTC groups, wherein the membership management comprises moving an MTC device among the plurality of MTC groups, wherein the request comprises corresponding a source MTC group identifier, a destination MTC group identifier and an MTC device identifier for the MTC application; and - b) transmitting, towards a user profile server, a corresponding request for membership management, wherein the corresponding request comprises the source MTC group identifier, the destination MTC group identifier, the MTC device identifier and a corresponding MTC application identifier. - a) receiving, from an MTC application, a request for membership management on the plurality of MTC groups, wherein the membership management comprises moving an MTC device among the plurality of MTC groups, wherein the request comprises corresponding a source MTC group identifier, a destination MTC group identifier and an MTC device identifier for the MTC application; and - b) transmitting, towards a user profile server, a corresponding request for membership management, wherein the corresponding request comprises the source MTC group identifier, the destination MTC group identifier, the MTC device identifier and a corresponding MTC application identifier.
A method for removing hydrogen sulfide from a sour gas stream comprising hydrogen sulfide, the method comprising: oxidizing hydrogen sulfide in a converter by contacting the sour gas stream with an aqueous catalytic solution, thereby producing a desulfurized gas stream and a liquid stream comprising reduced catalyst and elemental sulfur; introducing an oxidant and the liquid stream comprising reduced catalyst and elemental sulfur into an external high shear device (40, 200) and producing a dispersion wherein the mean bubble diameter of the oxidant gas in the dispersion is less than 5 μm; introducing the dispersion into an oxidizer vessel from which a sulfur-containing slurry is removed and a regenerated catalyst stream is removed, wherein the sulfur slurry comprises elemental sulfur and aqueous liquid; and recycling at least a portion of the regenerated catalyst stream to the converter. oxidizing hydrogen sulfide in a converter by contacting the sour gas stream with an aqueous catalytic solution, thereby producing a desulfurized gas stream and a liquid stream comprising reduced catalyst and elemental sulfur; introducing an oxidant and the liquid stream comprising reduced catalyst and elemental sulfur into an external high shear device (40, 200) and producing a dispersion wherein the mean bubble diameter of the oxidant gas in the dispersion is less than 5 μm; introducing the dispersion into an oxidizer vessel from which a sulfur-containing slurry is removed and a regenerated catalyst stream is removed, wherein the sulfur slurry comprises elemental sulfur and aqueous liquid; and recycling at least a portion of the regenerated catalyst stream to the converter.
A golf ball comprising a spherical core and at least one cover layer covering the spherical core, wherein the spherical core is formed from a rubber composition containing (a) a base rubber, (b) an α, β-unsaturated carboxylic acid having 3 to 8 carbon atoms and/or a metal salt thereof as a co-crosslinking agent, (c) a crosslinking initiator and (d) a carboxylic acid and/or a salt thereof, wherein the carboxylic acid and/or a salt thereof (d) does not include the α, β-unsaturated carboxylic acid having 3 to 8 carbon atoms and/or the a metal salt thereof (b), the hardness difference (Hs-Ho) between the surface hardness (Hs) of the spherical core and the center hardness (Ho) thereof is 20 or more, and the ratio ((H 37.5 -Ho)/(H 75.0 -Ho)) of the hardness difference (H 37.5 -Ho) between the 37.5% point hardness (H 37. 5) and the center hardness (Ho) to the hardness difference (H 75.0 -Ho) between the 75.0% point hardness (H 75.0) and the center hardness (Ho) of the spherical core is 0.6 or less, when the JIS-C hardness of the spherical core is measured at points located at distances of 0% (core center), 37.5%, 75.0% and 100% (core surface) from the core center of the spherical core by an auto loading durometer with a JIS C type spring hardness tester according to the description, and the compression deformation amount (D (mm)) of the spherical core when applying a load from an initial load of 98N to a final load of 1275 N to the spherical core and the 37.5% point hardness (H 37. 5) satisfy the relation of H 37.5 ≦ -9 × D + 95.
A piston cooling jet comprising: a housing; a nozzle provided to project outward from the housing and capable of spraying oil toward a piston; a valve capable of moving reciprocally inside the housing and configured to receive a load (Fu) due to a hydraulic pressure in an engine-side oil passage applied from a front side of the valve, the valve including a valve-side oil passage that communicates with the engine-side oil passage; a pressure chamber defined inside the housing on a back side of the valve, the pressure chamber communicating with the valve-side oil passage; a pressure adjusting passage disposed between the pressure chamber and a space outside the housing; and a filter disposed in the valve and configured to remove foreign matter that cannot pass through the pressure adjusting passage from oil passing through the valve-side oil passage, wherein the piston cooling jet is switchable between a valve closed state in which communication between the engine-side oil passage and the nozzle is prohibited, and a valve open state in which communication between the engine-side oil passage and the nozzle is allowed with the valve moved toward the back side to reduce a volume of the pressure chamber compared to that in the valve closed state. a housing; a nozzle provided to project outward from the housing and capable of spraying oil toward a piston; a valve capable of moving reciprocally inside the housing and configured to receive a load (Fu) due to a hydraulic pressure in an engine-side oil passage applied from a front side of the valve, the valve including a valve-side oil passage that communicates with the engine-side oil passage; a pressure chamber defined inside the housing on a back side of the valve, the pressure chamber communicating with the valve-side oil passage; a pressure adjusting passage disposed between the pressure chamber and a space outside the housing; and a filter disposed in the valve and configured to remove foreign matter that cannot pass through the pressure adjusting passage from oil passing through the valve-side oil passage, wherein the piston cooling jet is switchable between a valve closed state in which communication between the engine-side oil passage and the nozzle is prohibited, and a valve open state in which communication between the engine-side oil passage and the nozzle is allowed with the valve moved toward the back side to reduce a volume of the pressure chamber compared to that in the valve closed state.
A device for pivoting one or more nose flaps (1a, 1b) of a track-guided vehicle, in particular a rail vehicle, wherein the device comprises: - at least one nose flap (1a, 1b) to be pivoted by the device; - at least one supporting element connected on one side to the nose flap (1a, 1b) and on the other side to the vehicle undercarriage of the track-guided vehicle which is pivotable in the horizontal plane relative to the vehicle undercarriage and which is designed to convey the nose flap (1a, 1b) from a closed position into an open position and vice versa when pivoting; and - an actuating element connected on one side to the at least one supporting element and on the other side to the vehicle undercarriage for pivoting the at least one supporting element relative to the vehicle undercarriage, wherein the at least one supporting element is arranged on a guide connectable to the vehicle undercarriage so as to be pivotable in the horizontal plane such that the supporting element is guided in its horizontal pivoting motion and a large part of the force of the weight of the nose flap (1a, 1b) connected to the at least one supporting element is transferred directly to the vehicle undercarriage, characterized in that the at least one supporting element comprises a shifting mechanism which is designed to move the nose flap (1a, 1b) in the longitudinal direction of the supporting element particularly when in the closed state. - at least one nose flap (1a, 1b) to be pivoted by the device; - at least one supporting element connected on one side to the nose flap (1a, 1b) and on the other side to the vehicle undercarriage of the track-guided vehicle which is pivotable in the horizontal plane relative to the vehicle undercarriage and which is designed to convey the nose flap (1a, 1b) from a closed position into an open position and vice versa when pivoting; and - an actuating element connected on one side to the at least one supporting element and on the other side to the vehicle undercarriage for pivoting the at least one supporting element relative to the vehicle undercarriage, wherein the at least one supporting element is arranged on a guide connectable to the vehicle undercarriage so as to be pivotable in the horizontal plane such that the supporting element is guided in its horizontal pivoting motion and a large part of the force of the weight of the nose flap (1a, 1b) connected to the at least one supporting element is transferred directly to the vehicle undercarriage, characterized in that the at least one supporting element comprises a shifting mechanism which is designed to move the nose flap (1a, 1b) in the longitudinal direction of the supporting element particularly when in the closed state.
A fabric treating apparatus comprising: a casing including a treating chamber for clothes, and a machinery room disposed below the treating chamber; a base defining a bottom of the machinery room; a heat pump module for performing air-conditioning on air supplied to the treating chamber; at least one supporter supporting the heat pump module and limiting a predetermined space between the at least one supporter and the base below the heat pump module; a steam generating module for generating steam to be supplied to the treating chamber; and a controller for controlling at least one of the heat pump module and the steam generating module, wherein the heat pump module, the steam generating module, and the controller are disposed in the machinery room, characterized in that the steam generating module is mounted in the predetermined space between the at least one supporter and the base below the heat pump module, that the controller is disposed below the steam generating module in the predetermined space, and that the supporter comprises: a pair of legs (171, 172) fixed on the base; and a shelf supported by the legs (171, 172), wherein the heat pump module is supported by the shelf. a casing including a treating chamber for clothes, and a machinery room disposed below the treating chamber; a base defining a bottom of the machinery room; a heat pump module for performing air-conditioning on air supplied to the treating chamber; at least one supporter supporting the heat pump module and limiting a predetermined space between the at least one supporter and the base below the heat pump module; a steam generating module for generating steam to be supplied to the treating chamber; and a controller for controlling at least one of the heat pump module and the steam generating module, wherein the heat pump module, the steam generating module, and the controller are disposed in the machinery room, characterized in that the steam generating module is mounted in the predetermined space between the at least one supporter and the base below the heat pump module, that the controller is disposed below the steam generating module in the predetermined space, and that the supporter comprises: a pair of legs (171, 172) fixed on the base; and a shelf supported by the legs (171, 172), wherein the heat pump module is supported by the shelf. a pair of legs (171, 172) fixed on the base; and a shelf supported by the legs (171, 172), wherein the heat pump module is supported by the shelf.
Composition for a lightweight pasty filler material, comprising a binding agent, fillers, and additives, wherein the composition further comprises 0.1 to 0.4 % by weight of an additive consisting of a blend of liquid hydrocarbons, modified fatty acid compounds, nonionic emulsifiers, and silicone oil.
Method for preparing beverages through a system comprising a water supplying assembly for a unit for producing a hot beverage, said assembly comprising at least one device for heating water equipped with at least one heat source, at least one pump interposed between at least one container of water and said device, at least one supplying duct of hot water from said device to said unit, at least one temperature sensor associated with said duct, control means, which comprise at least one processor, operatively associated with said sensor and with said pump to continuously check the water temperature in said duct and to control the operation of said pump, said processor being adapted to control frequency, voltage and current of an electric motor of said pump to be able to change the water flow-rate depending on the temperature detected by said sensor, said heat source being composed of a battery of electric resistances controlled by said control means to allow said processor to select each electric resistance depending on the temperature detected by said temperature sensor, said method comprising the following steps: - said processor uses an algorithm (531-A) for setting the selection of each electric resistance of the heat source, depending on the desired temperature next to said duct; - said processor uses an algorithm (531-B) for defining the flow-rate of said pump, depending on said algorithm (531-A) and on the values of frequency, voltage and current of said electric motor of said pump; - said processor continuously updates the definition of the flow-rate of said pump to keep the temperature constant next to said duct. - said processor uses an algorithm (531-A) for setting the selection of each electric resistance of the heat source, depending on the desired temperature next to said duct; - said processor uses an algorithm (531-B) for defining the flow-rate of said pump, depending on said algorithm (531-A) and on the values of frequency, voltage and current of said electric motor of said pump; - said processor continuously updates the definition of the flow-rate of said pump to keep the temperature constant next to said duct.
A connector fixing structure comprising: a housing integrally formed with a tubular resin housing-side insertion opening member; and a connector provided in the housing and joined to the housing-side insertion opening member, wherein the connector comprises: a connector-side insertion opening member having a shape corresponding to that of the housing-side insertion opening member; and a resin welding portion; wherein the housing-side insertion opening member and the connector-side insertion opening member are welded together by melting the shape of the welding portion over its entire circumference; characterized in that: said tubular resin housing-side insertion opening member protrudes inward; said resin welding portion is provided to the connector-side insertion opening member and combined with the housing-side insertion opening member, wherein the housing-side insertion opening member has at its end a joining portion having a concave shape, wherein the welding portion has a convex shape corresponding to the concave shape of the joining portion. a housing integrally formed with a tubular resin housing-side insertion opening member; and a connector provided in the housing and joined to the housing-side insertion opening member, wherein the connector comprises: a connector-side insertion opening member having a shape corresponding to that of the housing-side insertion opening member; and a resin welding portion; a connector-side insertion opening member having a shape corresponding to that of the housing-side insertion opening member; and a resin welding portion; wherein the housing-side insertion opening member and the connector-side insertion opening member are welded together by melting the shape of the welding portion over its entire circumference; characterized in that: said tubular resin housing-side insertion opening member protrudes inward; said resin welding portion is provided to the connector-side insertion opening member and combined with the housing-side insertion opening member, wherein the housing-side insertion opening member has at its end a joining portion having a concave shape, wherein the welding portion has a convex shape corresponding to the concave shape of the joining portion. said tubular resin housing-side insertion opening member protrudes inward; said resin welding portion is provided to the connector-side insertion opening member and combined with the housing-side insertion opening member, wherein the housing-side insertion opening member has at its end a joining portion having a concave shape, wherein the welding portion has a convex shape corresponding to the concave shape of the joining portion.
A method for an AP, access point, controlling a NAV, network allocation vector, setting of an STA,station, in a WLAN, wireless local area network, system, the method comprising: detecting a BSS, basic service set, color overlap with an OBSS, overlapping basic service set; transmitting, to the STA, a first frame containing BSS color disabled information set to a first value for disablement of a use of the BSS color; and transmitting, to the STA, a second frame containing a TXOP_DURATION field set to a specific value other than values for duration indication in response that the AP sets the BSS color disabled information to the first value. detecting a BSS, basic service set, color overlap with an OBSS, overlapping basic service set; transmitting, to the STA, a first frame containing BSS color disabled information set to a first value for disablement of a use of the BSS color; and transmitting, to the STA, a second frame containing a TXOP_DURATION field set to a specific value other than values for duration indication in response that the AP sets the BSS color disabled information to the first value.