mhurhangee/ep-ind-claims huggingface dataset:
A gas supply pump for a ship dual fuel engine, comprising: a rotatable camshaft; a plurality of cam noses arranged at regular intervals along a lengthwise direction of the camshaft, wherein the cam noses are eccentric from a center of the camshaft; a plurality of cam rollers, each cam roller in close contact with a respective cam nose; a plurality of drive shafts and a plurality of pistons wherein each drive shaft is adjacent to a respective piston on one side of the respective cam roller; and a plurality of liquefied gas compression devices, each comprising a liquefied gas supply passage, a suction valve, a discharge valve and a cylinder within which the piston reciprocates, to compress and discharge liquefied gas by a linear reciprocating motion of the piston, wherein as the camshaft rotates, when the cam nose moves in a compression direction of the piston, the liquefied gas in the suction valve is discharged through the discharge valve, and when the cam nose moves in a decompression direction of the piston, the piston is retracted and liquefied gas is supplied to an internal space of the suction valve from the liquefied gas supply passage, and characterized in that each cam roller is configured to be selectively spaced apart from the respective cam nose, and when the cam roller and the cam nose are spaced apart from each other, a rotational driving force of the cam nose is not transmitted to the piston. a rotatable camshaft; a plurality of cam noses arranged at regular intervals along a lengthwise direction of the camshaft, wherein the cam noses are eccentric from a center of the camshaft; a plurality of cam rollers, each cam roller in close contact with a respective cam nose; a plurality of drive shafts and a plurality of pistons wherein each drive shaft is adjacent to a respective piston on one side of the respective cam roller; and a plurality of liquefied gas compression devices, each comprising a liquefied gas supply passage, a suction valve, a discharge valve and a cylinder within which the piston reciprocates, to compress and discharge liquefied gas by a linear reciprocating motion of the piston, wherein as the camshaft rotates, when the cam nose moves in a compression direction of the piston, the liquefied gas in the suction valve is discharged through the discharge valve, and when the cam nose moves in a decompression direction of the piston, the piston is retracted and liquefied gas is supplied to an internal space of the suction valve from the liquefied gas supply passage, and characterized in that each cam roller is configured to be selectively spaced apart from the respective cam nose, and when the cam roller and the cam nose are spaced apart from each other, a rotational driving force of the cam nose is not transmitted to the piston.
A dermal filler composition consisting of: cross-linked dextran having a molecular weight of 30,000 to 100,000; an aqueous solution of sodium chloride; and a viscosity controlling agent; said dermal filler not including polymethylmetacrylate (PMMA) or collagen or hyaluronic acid. cross-linked dextran having a molecular weight of 30,000 to 100,000; an aqueous solution of sodium chloride; and a viscosity controlling agent; said dermal filler not including polymethylmetacrylate (PMMA) or collagen or hyaluronic acid.
Method of manufacturing a device for transmitting and/or receiving radiofrequency signals, the device for transmitting and/or receiving radiofrequency signals comprising at least one microelectronic circuit, the microelectronic circuit extending in a main extension plane defined by a main extension direction and a transverse extension perpendicular to said main direction, and the device for transmitting and/or receiving radiofrequency signals comprising at least one first antenna, the first antenna comprising at least one first electrically conductive surface extending in a first extension plan, the manufacturing method comprising at least the following successive steps: • providing the microelectronic circuit; • forming at least a first connection element of the first antenna in a first area of the microelectronic circuit, this step of forming at least one first connection element comprising the formation of a first plurality of electrically conductive vias, the first plurality electrically conductive vias being configured to have a distal end projecting relative to said first extension plane; • overmoulding at least the first area of the microelectronic circuit so as to cover said first connection element; • at least one step of polishing said overmoulding so as to define a first surface extending substantially in said first extension plane and so as to expose the distal end of the vias of said first plurality of electrically conductive vias on the first surface; • forming the first electrically conductive surface of the first antenna on said first surface in electrical continuity with said first plurality of electrically conductive vias, the formation comprising at least depositing at least one electrically conductive material onto said first surface. • providing the microelectronic circuit; • forming at least a first connection element of the first antenna in a first area of the microelectronic circuit, this step of forming at least one first connection element comprising the formation of a first plurality of electrically conductive vias, the first plurality electrically conductive vias being configured to have a distal end projecting relative to said first extension plane; • overmoulding at least the first area of the microelectronic circuit so as to cover said first connection element; • at least one step of polishing said overmoulding so as to define a first surface extending substantially in said first extension plane and so as to expose the distal end of the vias of said first plurality of electrically conductive vias on the first surface; • forming the first electrically conductive surface of the first antenna on said first surface in electrical continuity with said first plurality of electrically conductive vias, the formation comprising at least depositing at least one electrically conductive material onto said first surface.
A fabric print medium comprising: a. a fabric base substrate; b. a primer layer composition applied to the fabric base substrate, the primer layer composition including: i. at least three types of polymeric particles, ii. at least two different fire retardant agents, iii. and a water-soluble high-valence metal complex. a. a fabric base substrate; b. a primer layer composition applied to the fabric base substrate, the primer layer composition including: i. at least three types of polymeric particles, ii. at least two different fire retardant agents, iii. and a water-soluble high-valence metal complex. i. at least three types of polymeric particles, ii. at least two different fire retardant agents, iii. and a water-soluble high-valence metal complex.
An organic light emitting device, comprising: an anode; a cathode; and an organic compound layer being placed between the anode and the cathode and including at least a hole transport layer and an emission layer, wherein: the emission layer contains a blue light emitting material; the hole transport layer contains a plurality of kinds of organic compounds; characterized in that an organic compound having the smallest ionization potential among the organic compounds contained in the hole transport layer has a concentration of 5% by weight or more to 30% by weight or less with respect to the entire layer and is a compound having no absorption spectrum peak in a blue color wavelength region in a radical cation state. an anode; a cathode; and an organic compound layer being placed between the anode and the cathode and including at least a hole transport layer and an emission layer, wherein: the emission layer contains a blue light emitting material; the hole transport layer contains a plurality of kinds of organic compounds; characterized in that an organic compound having the smallest ionization potential among the organic compounds contained in the hole transport layer has a concentration of 5% by weight or more to 30% by weight or less with respect to the entire layer and is a compound having no absorption spectrum peak in a blue color wavelength region in a radical cation state. the emission layer contains a blue light emitting material; the hole transport layer contains a plurality of kinds of organic compounds; characterized in that an organic compound having the smallest ionization potential among the organic compounds contained in the hole transport layer has a concentration of 5% by weight or more to 30% by weight or less with respect to the entire layer and is a compound having no absorption spectrum peak in a blue color wavelength region in a radical cation state.
Blade cascade for a turbomachine, in particular a gas turbine, comprising a number of first blade arrangements each having at least one first blade (100; 100, 110) and a first shroud which extends by a first extension in the circumferential and/or axial direction, at least a number of further blade arrangements each having at least one further blade (200; 200, 210) and a further shroud which extends by a further extension in the same direction, the further extension being different from this first extension, the first and at least one further blade arrangement being distributed cyclically over the circumference, all blade arrangements having the same number of blades, in particular exactly one blade, characterized in that shrouds of at least one blade arrangement have at least one recess and shrouds of at least one other blade arrangement do not have a recess or have a different number, arrangement and/or shape of recesses.
Heat exchanger for the indirect transfer of thermal energy between a first fluid and a second fluid, comprising a container for feeding the first fluid and a plurality of discs arranged inside the container, wherein the discs for feeding the second fluid are hollow and at least in some sections merge into each other in a helical manner, characterized in that the container comprises at least one partition, wherein the partition divides the container into chambers.
An oriented article comprising one or more layers, wherein at least one layer is a composition comprising: polyester; incompatible polymer selected from COC, partially or fully hydrogenated styrenic polymers and copolymers, and combinations thereof; and 0-8 wt% light scattering pigment, based on the total weight of the composition; wherein the article is oriented, the layer has an average light transmission percentage determined as disclosed in the description of about 20% or less for light having wavelengths in the range of 400nm to 700nm, and the layer has a non-pearlescent appearance of less than 15 units, measured as DE CMC with a 45° incident light source between 15° near-specular reflection and 110° far specular reflection as disclosed in the description. polyester; incompatible polymer selected from COC, partially or fully hydrogenated styrenic polymers and copolymers, and combinations thereof; and 0-8 wt% light scattering pigment, based on the total weight of the composition; wherein the article is oriented, the layer has an average light transmission percentage determined as disclosed in the description of about 20% or less for light having wavelengths in the range of 400nm to 700nm, and the layer has a non-pearlescent appearance of less than 15 units, measured as DE CMC with a 45° incident light source between 15° near-specular reflection and 110° far specular reflection as disclosed in the description.
A method for packing absorbent articles, the method comprising: a forming process in which a plurality of folded absorbent articles are inserted into a packaging member to form a package; a loading process in which the package is compressed in a compression direction and a package bundle configured by a plurality of the packages is loaded into a cardboard box, the package bundle being loaded into the cardboard box in a state in which a length of the package bundle in the compression direction is shorter than an internal dimension of the cardboard box in the compression direction due to compression of the packages; and a contacting process in which the loaded package bundle is allowed to expand in an opposite direction to the compression direction so as to cause two ends of the package bundle in the opposite direction to contact an inner face of the cardboard box, the loading process separately including: a compressing stage in which the packages are compressed; and a loading stage in which the package bundle is loaded into the cardboard box, the loading stage being provided after the compression stage, characterized in that in the compressing stage, the packages are compressed one at a time and in the loading stage, a plurality of the packages that have been individually compressed are collected together and loaded into the cardboard box all at once. a forming process in which a plurality of folded absorbent articles are inserted into a packaging member to form a package; a loading process in which the package is compressed in a compression direction and a package bundle configured by a plurality of the packages is loaded into a cardboard box, the package bundle being loaded into the cardboard box in a state in which a length of the package bundle in the compression direction is shorter than an internal dimension of the cardboard box in the compression direction due to compression of the packages; and a contacting process in which the loaded package bundle is allowed to expand in an opposite direction to the compression direction so as to cause two ends of the package bundle in the opposite direction to contact an inner face of the cardboard box, the loading process separately including: a compressing stage in which the packages are compressed; and a loading stage in which the package bundle is loaded into the cardboard box, the loading stage being provided after the compression stage, characterized in that in the compressing stage, the packages are compressed one at a time and in the loading stage, a plurality of the packages that have been individually compressed are collected together and loaded into the cardboard box all at once. a compressing stage in which the packages are compressed; and a loading stage in which the package bundle is loaded into the cardboard box, the loading stage being provided after the compression stage, characterized in that in the compressing stage, the packages are compressed one at a time and in the loading stage, a plurality of the packages that have been individually compressed are collected together and loaded into the cardboard box all at once.
A hydraulic shock absorber comprising: a vehicle body side tube; an axle side tube, the vehicle body side tube and the axle side tube being slidably fitted; a cap sealed to an upper end opening portion of the vehicle body side tube; a single regulating portion provided in the cap, and a rod, inserted into a hollow portion of a piston rod, the piston rod being provided on a center axis of the vehicle body side tube and the cap, wherein the rod is arranged on the center axis of the cap and configured to be moved in an axial direction by the regulating portion, characterized in that the regulating portion is arranged eccentrically with respect to the rod, which is arranged on the center of the cap in a plan view of the cap. a vehicle body side tube; an axle side tube, the vehicle body side tube and the axle side tube being slidably fitted; a cap sealed to an upper end opening portion of the vehicle body side tube; a single regulating portion provided in the cap, and a rod, inserted into a hollow portion of a piston rod, the piston rod being provided on a center axis of the vehicle body side tube and the cap, wherein the rod is arranged on the center axis of the cap and configured to be moved in an axial direction by the regulating portion, characterized in that the regulating portion is arranged eccentrically with respect to the rod, which is arranged on the center of the cap in a plan view of the cap.
A guide system for guiding at least one movably-supported door wing, in particular a folding-sliding-door, relative to a stationary furniture part, comprising: - at least one carrier for movably supporting the at least one door wing, - at least one guide rail configured to be fixed to the stationary furniture part for guiding the at least one carrier, - at least one guiding device for displaceably supporting the at least one carrier along the guide rail, - at least one running carriage configured to be coupled to the at least one door wing, - at least one receiving device for receiving the at least one running carriage, the at least one receiving device adjoining the at least one carrier in a longitudinal direction of the at least one carrier, characterized in that the at least one receiving device is supported so as to be movable relative to the carrier along the longitudinal direction of the carrier. - at least one carrier for movably supporting the at least one door wing, - at least one guide rail configured to be fixed to the stationary furniture part for guiding the at least one carrier, - at least one guiding device for displaceably supporting the at least one carrier along the guide rail, - at least one running carriage configured to be coupled to the at least one door wing, - at least one receiving device for receiving the at least one running carriage, the at least one receiving device adjoining the at least one carrier in a longitudinal direction of the at least one carrier,
A combination of drugs including an endostatin and a chemotherapeutic agent for use in inhibiting the activity of a tumor or cancer cell, wherein the tumor or cancer cell is deficient in P53 function, wherein the tumor or cancer cell is a melanoma cell and wherein the chemotherapeutic agent is able to induce DNA double strand break in the cell.
A flow cytometer comprising: a light source configured to emit at least one beam of light (214; 314) along a first axis; a passageway configured to permit liquid carrying particles to pass therethrough, the passageway extending along a second axis, the second axis extending at an angle (θ) of greater than 0° and less than 90° with respect to the first axis; and at least one detector (222; 322a; 322b) configured to observe at least a point where the beam of light (214; 314) and liquid intersect, at least one beam dump being configured to receive at least some of at least one exit beam and at least one scatter beam from the at least one beam of light (214; 314), the flow cytometer being characterized in that it further comprises at least one cone being configured to receive at least some of at least one exit beam and at least one scatter beam from the at least one beam of light (214; 314). a light source configured to emit at least one beam of light (214; 314) along a first axis; a passageway configured to permit liquid carrying particles to pass therethrough, the passageway extending along a second axis, the second axis extending at an angle (θ) of greater than 0° and less than 90° with respect to the first axis; and at least one detector (222; 322a; 322b) configured to observe at least a point where the beam of light (214; 314) and liquid intersect, at least one beam dump being configured to receive at least some of at least one exit beam and at least one scatter beam from the at least one beam of light (214; 314), the flow cytometer being characterized in that it further comprises at least one cone being configured to receive at least some of at least one exit beam and at least one scatter beam from the at least one beam of light (214; 314).
A method for transmitting an uplink channel by a user equipment, UE, (3010, 3020) in a wireless communication system, the method comprising: transmitting, to a base station, BS, (3010, 3020), UE capability information, wherein the UE capability information includes (i) first information for coherence capability supported by the UE and (ii) second information for a subset of transmit precoding matrix indicators, TPMIs, which deliver full transmission power, wherein the first information includes information for one of (i) full coherent, (ii) partial coherent or (iii) non coherent, wherein the second information includes (i) a first parameter for a first TPMI for uplink transmission using two antenna ports and (ii) a second parameter for a second TPMI for uplink transmission using four antenna ports, and wherein the first TPMI and the second TPMI are used to deliver full transmission power; receiving, from the BS, control information including precoding information for a TPMI used for the UE to transmit the uplink channel; determining a transmission power for the uplink channel; and transmitting, to the BS, the uplink channel based on the control information and the determined transmission power, wherein based on the TPMI determined based on the precoding information being equal to the first TPMI or the second TPMI, the uplink channel is transmitted with full transmission power. transmitting, to a base station, BS, (3010, 3020), UE capability information, wherein the UE capability information includes (i) first information for coherence capability supported by the UE and (ii) second information for a subset of transmit precoding matrix indicators, TPMIs, which deliver full transmission power, wherein the first information includes information for one of (i) full coherent, (ii) partial coherent or (iii) non coherent, wherein the second information includes (i) a first parameter for a first TPMI for uplink transmission using two antenna ports and (ii) a second parameter for a second TPMI for uplink transmission using four antenna ports, and wherein the first TPMI and the second TPMI are used to deliver full transmission power; receiving, from the BS, control information including precoding information for a TPMI used for the UE to transmit the uplink channel; determining a transmission power for the uplink channel; and transmitting, to the BS, the uplink channel based on the control information and the determined transmission power, wherein based on the TPMI determined based on the precoding information being equal to the first TPMI or the second TPMI, the uplink channel is transmitted with full transmission power.
An apparatus comprising: a measuring unit configured to measure a biosignal representing electrodermal activity of the patient via a plurality of electrodes; a therapy unit configured to deliver electrocutaneous stimulation therapy to a skin area of a patient via the plurality of electrodes; and a processor configured to receive the biosignal from the measuring unit, to establish an oscillation rate characteristic of the biosignal, to establish a slow wave sleep stage of the patient based on the oscillation rate of the biosignal, and to operate the therapy unit to deliver electrocutaneous stimulation therapy to the skin area of the patient during only the established slow wave sleep stage and to discontinue operation of the therapy unit based upon a determination that the patient is not in the established slow wave sleep stage. a measuring unit configured to measure a biosignal representing electrodermal activity of the patient via a plurality of electrodes; a therapy unit configured to deliver electrocutaneous stimulation therapy to a skin area of a patient via the plurality of electrodes; and a processor configured to receive the biosignal from the measuring unit, to establish an oscillation rate characteristic of the biosignal, to establish a slow wave sleep stage of the patient based on the oscillation rate of the biosignal, and to operate the therapy unit to deliver electrocutaneous stimulation therapy to the skin area of the patient during only the established slow wave sleep stage and to discontinue operation of the therapy unit based upon a determination that the patient is not in the established slow wave sleep stage.