mhurhangee/patent-ind-claim-en huggingface dataset:
Refrigerated sales cabinet , comprising: a cabinet body providing a refrigerated sales space for supporting refrigerated goods to be presented therein; a plurality of n cabinet doors , which are installed on a front side of a door frame , wherein n is a positive integer; the door frame having a top post , a bottom post , and n+1 upright posts ; wherein at least one of the upright posts comprises an air duct allowing to conduct air through the upright post , and wherein at least one fan is fluidly connected to the air duct in order to convey ambient air through the air duct; characterized in that the at least one fan is configured for conveying air from the top of the refrigerated sales cabinet to a lower portion of the refrigerated sales cabinet ; and in that the refrigerated sales cabinet comprises an air-liquid-separator , which is configured for separating condensation water from the air-liquid-mixture exiting the air duct. a cabinet body providing a refrigerated sales space for supporting refrigerated goods to be presented therein; a plurality of n cabinet doors , which are installed on a front side of a door frame , wherein n is a positive integer; the door frame having a top post , a bottom post , and n+1 upright posts ; wherein at least one of the upright posts comprises an air duct allowing to conduct air through the upright post , and wherein at least one fan is fluidly connected to the air duct in order to convey ambient air through the air duct; characterized in that the at least one fan is configured for conveying air from the top of the refrigerated sales cabinet to a lower portion of the refrigerated sales cabinet ; and in that the refrigerated sales cabinet comprises an air-liquid-separator , which is configured for separating condensation water from the air-liquid-mixture exiting the air duct.
A flask mating misalignment detection method for molds with flasks, characterized by , when automatically flask mating a cope with a cope molding flask (M1) and a drag with a drag molding flask (M2) molded by a molding machine: detecting a force (S3) generated on the cope molding flask (F1) by the flask mating of the cope molding flask (F1) and the drag molding flask (F2) by means of a physical quantity detection sensor capable of detecting the force, in two directions (X,Y) in a horizontal plane and a direction (Z) orthogonal to said two directions; and quantifying an output of the physical quantity detection sensor by means of computation (S5), comparing with a previously stored numerical value of an ideal state, and determining an abnormal state (S7) in which misalignment has occurred in flask mating if the comparison value is deviating more than a threshold value. detecting a force (S3) generated on the cope molding flask (F1) by the flask mating of the cope molding flask (F1) and the drag molding flask (F2) by means of a physical quantity detection sensor capable of detecting the force, in two directions (X,Y) in a horizontal plane and a direction (Z) orthogonal to said two directions; and quantifying an output of the physical quantity detection sensor by means of computation (S5), comparing with a previously stored numerical value of an ideal state, and determining an abnormal state (S7) in which misalignment has occurred in flask mating if the comparison value is deviating more than a threshold value.
A resin composition comprising a resin-impregnated fiber bundle prepared by impregnating and integrating 100 parts by mass of a bundle of a fiber material (A) with 25 to 300 parts by mass of a thermoplastic resin (B); and a lubricant (C), wherein: the resin-impregnated fiber bundle has a flat shape with a widthwise cross-sectional shape having a major axis and a minor axis, wherein the length of the major axis is greater than the length of the minor axis; the major axis has an average length (d1) of 0.5 to 4.0 mm; an average flatness ratio (d1/d2) determined from the average length (d1) of the major axis and an average length (d2) of the minor axis is 1.2 to 8.0; the resin-impregnated fiber bundle has a length (L) of 3 to 50 mm and a ratio (L/d1) between the L and the d1 is 10 to 50; the lubricant is contained in an amount of 0.001 to 0.05 parts by mass relative to 100 parts by mass of the resin-impregnated fiber bundle; and the resin composition has a bulk density of 0.1 to 0.4 g/cm 3 . the resin-impregnated fiber bundle has a flat shape with a widthwise cross-sectional shape having a major axis and a minor axis, wherein the length of the major axis is greater than the length of the minor axis; the major axis has an average length (d1) of 0.5 to 4.0 mm; an average flatness ratio (d1/d2) determined from the average length (d1) of the major axis and an average length (d2) of the minor axis is 1.2 to 8.0; the resin-impregnated fiber bundle has a length (L) of 3 to 50 mm and a ratio (L/d1) between the L and the d1 is 10 to 50; the lubricant is contained in an amount of 0.001 to 0.05 parts by mass relative to 100 parts by mass of the resin-impregnated fiber bundle; and the resin composition has a bulk density of 0.1 to 0.4 g/cm 3 .
A camera comprising: an information transmission unit configured to transmit position information to a server via a network; and an information reception unit configured to receive information related to a specific person who possesses a portable terminal located near a position indicated by the position information from the server via the network, wherein: the specific person is a camera operator who operates the camera; the information related to the specific person is camera setting information regarding the camera operator; and the camera further comprises a camera control unit configured to perform camera setting on a basis of the received information. an information transmission unit configured to transmit position information to a server via a network; and an information reception unit configured to receive information related to a specific person who possesses a portable terminal located near a position indicated by the position information from the server via the network, wherein: the specific person is a camera operator who operates the camera; the information related to the specific person is camera setting information regarding the camera operator; and the camera further comprises a camera control unit configured to perform camera setting on a basis of the received information. the specific person is a camera operator who operates the camera; the information related to the specific person is camera setting information regarding the camera operator; and the camera further comprises a camera control unit configured to perform camera setting on a basis of the received information.
An external therapeutic agent for use in treating dermatomycosis comprising tripotassium citrate.
Cutting machine comprising a cutting support for material to be cut, a vertically movable, horizontal blade bar which bears a blade for cutting the cut material located thereon, a vertically movable, horizontal clamping bar for pushing down the material to be cut, and two guide plates which are arranged adjacent to one another, spaced apart in parallel in the same vertical plane, and which in each case have an inclined linear slot in which the blade bar is guided, and on the front faces thereof facing one another in each case have a vertical guide on which the clamping bar is guided, wherein the blade bar is guided in the slots of the two guide plates , in each case by means of a guide unit which has an axle which is guided so as to be able to roll or slide in the slot , and wherein the guide unit has on both plate sides of the guide plate in each case an axle carrier on which the axle is fastened, characterized in that the axle carrier has, above and below the slot , rolling elements which roll outside on the respective plate side parallel to the slot , the rolling elements are configured as rollers , in particular radial deep groove ball bearings, which roll outside on the plate side of the guide plate , and the roller axles of the rollers of those two axle carriers to which the blade bar is fastened are displaceably mounted in a direction at right angles to the vertical plane of the two guide plates , in order to adjust the inclination of the blade and the gap distance (X) between the blade and the clamping bar . characterized in that the axle carrier has, above and below the slot , rolling elements which roll outside on the respective plate side parallel to the slot , the rolling elements are configured as rollers , in particular radial deep groove ball bearings, which roll outside on the plate side of the guide plate , and the roller axles of the rollers of those two axle carriers to which the blade bar is fastened are displaceably mounted in a direction at right angles to the vertical plane of the two guide plates , in order to adjust the inclination of the blade and the gap distance (X) between the blade and the clamping bar .
A system comprising: an elongated member ; a first filter body mechanically connected to the elongated member and defining a first filter mouth and a first filter end , the first filter mouth being one of proximal or distal to the first filter end; and a second filter body mechanically connected to the elongated member distal to the first filter body, the second filter body defining a second filter mouth and a second filter end , the second filter mouth being the one of proximal or distal to the second filter end, wherein at least a section of the elongated member between the first and second filter bodies is flexible, and wherein a proximal section of the elongated member proximal to the first filter body is more stiff than the section of the elongated member between the first and second filter bodies , and wherein the first and second filter bodies are axially slidable relative to the elongated member , wherein the elongated member includes mechanical stops that limit the relative proximal and distal sliding of the filter bodies along the axis of the elongated member . an elongated member ; a first filter body mechanically connected to the elongated member and defining a first filter mouth and a first filter end , the first filter mouth being one of proximal or distal to the first filter end; and a second filter body mechanically connected to the elongated member distal to the first filter body, the second filter body defining a second filter mouth and a second filter end , the second filter mouth being the one of proximal or distal to the second filter end, wherein at least a section of the elongated member between the first and second filter bodies is flexible, and wherein a proximal section of the elongated member proximal to the first filter body is more stiff than the section of the elongated member between the first and second filter bodies , and wherein the first and second filter bodies are axially slidable relative to the elongated member , wherein the elongated member includes mechanical stops that limit the relative proximal and distal sliding of the filter bodies along the axis of the elongated member .
A method of generating geomechanical modeling input data, the method comprising: performing measurements of a geographic region to acquire geological data using a well subsystem , so as to acquire information about properties of a subterranean formation in the geographic region , receiving finite difference (FD) grid data representing physical and mechanical properties of the subterranean region identifying: FD grid node locations in a subterranean region; and FD grid values of a subterranean formation property for each of the FD grid node locations; receiving finite element (FE) mesh data identifying: FE mesh node locations in the subterranean region; and spatial domains about the FE mesh node locations, each of the spatial domains associated with one of the FE mesh node locations; generating FE mesh values of the subterranean formation property for the FE mesh node locations, the FE mesh value for each FE mesh node location generated based on the FD grid values for multiple FD grid node locations within the spatial domain about the FE mesh node location; and assigning the FE mesh values of the subterranean formation property to the FE mesh node locations for geomechanical modeling of the subterranean region, further comprising calculating the spatial domain associated with each of the FE mesh node locations and modelling geomechanical aspects of production or injection activities in the subterranean formation based on the FE mesh values. performing measurements of a geographic region to acquire geological data using a well subsystem , so as to acquire information about properties of a subterranean formation in the geographic region , receiving finite difference (FD) grid data representing physical and mechanical properties of the subterranean region identifying: FD grid node locations in a subterranean region; and FD grid values of a subterranean formation property for each of the FD grid node locations; FD grid node locations in a subterranean region; and FD grid values of a subterranean formation property for each of the FD grid node locations; receiving finite element (FE) mesh data identifying: FE mesh node locations in the subterranean region; and spatial domains about the FE mesh node locations, each of the spatial domains associated with one of the FE mesh node locations; FE mesh node locations in the subterranean region; and spatial domains about the FE mesh node locations, each of the spatial domains associated with one of the FE mesh node locations; generating FE mesh values of the subterranean formation property for the FE mesh node locations, the FE mesh value for each FE mesh node location generated based on the FD grid values for multiple FD grid node locations within the spatial domain about the FE mesh node location; and assigning the FE mesh values of the subterranean formation property to the FE mesh node locations for geomechanical modeling of the subterranean region, further comprising calculating the spatial domain associated with each of the FE mesh node locations and modelling geomechanical aspects of production or injection activities in the subterranean formation based on the FE mesh values.
A decorative member having no formaldehyde emission comprising: a base layer including PVC; a printing layer formed on the base layer; and an ink-receiving layer disposed between the base layer and the printing layer and formed of a composition including an acrylic emulsion, a metal salt, and an inorganic particle, wherein the ink-receiving layer is formed of the composition including 5 to 20 parts by weight of the metal salt and 10 to 30 parts by weight of the inorganic particle based on 100 parts by weight of the acrylic emulsion, and wherein the ink-receiving layer has a thickness of 2 to 5 microns. a base layer including PVC; a printing layer formed on the base layer; and an ink-receiving layer disposed between the base layer and the printing layer and formed of a composition including an acrylic emulsion, a metal salt, and an inorganic particle, wherein the ink-receiving layer is formed of the composition including 5 to 20 parts by weight of the metal salt and 10 to 30 parts by weight of the inorganic particle based on 100 parts by weight of the acrylic emulsion, and wherein the ink-receiving layer has a thickness of 2 to 5 microns.
A vinyl alcohol polymer (A) having a ratio (Mw/Mn) of a weight average molecular weight (Mw) to a number average molecular weight (Mn) being 3 or greater and 8 or less, wherein: the vinyl alcohol polymer (A) comprises a branched structure formed by binding, which is cleaved under alkaline condition, of PVA chains each other, when the vinyl alcohol polymer (A) is treated at 40 °C for 1 hour in a sodium hydroxide solution, a resulting vinyl alcohol polymer (B) has a ratio (Mw/Mn) of 2 or greater and less than 3, and the vinyl alcohol polymer (A) comprises a unit derived from at least one monomer selected from the group consisting of an alkyl ester of a carboxylic acid having an unsaturated double bond, and a silyl compound having an unsaturated double bond, in an amount of 0.1 mol% or greater and 2 mol% or less based on the number of moles of all monomer units constituting the vinyl alcohol polymer (A). the vinyl alcohol polymer (A) comprises a branched structure formed by binding, which is cleaved under alkaline condition, of PVA chains each other, when the vinyl alcohol polymer (A) is treated at 40 °C for 1 hour in a sodium hydroxide solution, a resulting vinyl alcohol polymer (B) has a ratio (Mw/Mn) of 2 or greater and less than 3, and the vinyl alcohol polymer (A) comprises a unit derived from at least one monomer selected from the group consisting of an alkyl ester of a carboxylic acid having an unsaturated double bond, and a silyl compound having an unsaturated double bond, in an amount of 0.1 mol% or greater and 2 mol% or less based on the number of moles of all monomer units constituting the vinyl alcohol polymer (A).
A sensor assembly comprising: a housing defining a hollow body , a formed connection defining a fluid communication from outside of the hollow body into the hollow body , a printed circuit board placed in the hollow body , wherein the printed circuit board carries a pressure sensor , and a ventilation connection ; a breathable seal placed such that in relation to the connection , the fluid communication has to pass the breathable seal prior to reaching the pressure sensor ; at least one first ventilation hole (17 1 ) providing the fluid communication from the connection to the hollow body , and at least one second ventilation hole (17 2 ) providing the fluid communication from the hollow body to the ventilation connection ; and a further breathable seal covering the at least one second ventilation hole (17 2 ) leading from the hollow body to the ventilation connection . a housing defining a hollow body , a formed connection defining a fluid communication from outside of the hollow body into the hollow body , a printed circuit board placed in the hollow body , wherein the printed circuit board carries a pressure sensor , and a ventilation connection ; a breathable seal placed such that in relation to the connection , the fluid communication has to pass the breathable seal prior to reaching the pressure sensor ; at least one first ventilation hole (17 1 ) providing the fluid communication from the connection to the hollow body , and at least one second ventilation hole (17 2 ) providing the fluid communication from the hollow body to the ventilation connection ; and a further breathable seal covering the at least one second ventilation hole (17 2 ) leading from the hollow body to the ventilation connection .
Neck mold assembly comprising: - N rows of holding plates , wherein N is an integer equal to or larger than 2, each of the N rows of holding plates holding a plurality of neck molds , - a supporting mechanism that supports the N rows of holding plates , the supporting mechanism member including: at least one reinforcement shaft that is provided along a row direction of the N rows of holding plates , and a plurality of first securing sections that secure either end of the at least one reinforcement shaft , - each of the N rows of holding plates having at least one first through-hole that receives the at least one reinforcement shaft , wherein each of the N rows of holding plates including: a pair of split plates that secure a pair of neck split molds , a plurality of second through-holes that are formed in the row direction at a plurality of positions in the longitudinal direction of the N rows of holding plates ; a plurality of guide shafts that are respectively inserted into the plurality of second through-holes ; and a plurality of biasing members that are respectively inserted into the plurality of guide shafts , and bias the pair of split plates in a closing direction, and the at least one reinforcement shaft being disposed between the plurality of guide shafts in the longitudinal direction. - N rows of holding plates , wherein N is an integer equal to or larger than 2, each of the N rows of holding plates holding a plurality of neck molds , - a supporting mechanism that supports the N rows of holding plates , the supporting mechanism member including: at least one reinforcement shaft that is provided along a row direction of the N rows of holding plates , and a plurality of first securing sections that secure either end of the at least one reinforcement shaft , at least one reinforcement shaft that is provided along a row direction of the N rows of holding plates , and a plurality of first securing sections that secure either end of the at least one reinforcement shaft , - each of the N rows of holding plates having at least one first through-hole that receives the at least one reinforcement shaft , a pair of split plates that secure a pair of neck split molds , a plurality of second through-holes that are formed in the row direction at a plurality of positions in the longitudinal direction of the N rows of holding plates ; a plurality of guide shafts that are respectively inserted into the plurality of second through-holes ; and a plurality of biasing members that are respectively inserted into the plurality of guide shafts , and bias the pair of split plates in a closing direction, and the at least one reinforcement shaft being disposed between the plurality of guide shafts in the longitudinal direction.
A planar velour knitted fabric , said velour knitted fabric having an upper side and a lower side , said upper side comprising a pile and said lower side comprising a knitted fabric of at least one pile material and a base material, said lower side being free of an adhesive, wherein the at least one pile material in the knitted fabric is formed as at least one pile yarn and the base material in the knitted fabric is formed as at least one base yarn and wherein the pile comprises the at least one pile material, wherein the at least one pile material of the pile comprises individual fibrils with a fineness of at most 2 dtex per fibril, characterized in that said knitted fabric has a stitch density of 400 to 800 stitches/cm 2 .