mhurhangee/ep-ind-claims huggingface dataset:
A dispenser for dispensing a material into a receptacle, the dispenser comprising a dispenser outlet for dispensing material into the receptacle; a support for receiving a receptacle; at least one lateral sensor positioned to laterally sense a receptacle received on the support; an upper sensor positioned to sense a receptacle received on the support from above; and a controller operatively connected to the lateral and upper sensors and configured to sense the presence of a receptacle received on the support, calculate the volume of the receptacle and/or the volume of material within the receptacle from data received from the lateral and upper sensors, and control the volume of material dispensed from the dispenser outlet into the receptacle based upon the calculated volume of the receptacle and/or the volume of material within the receptacle; wherein the dispenser comprises user input means through which a user can make selections regarding the material to be dispensed, and is configured to be able to add an additive to a receptable pre-filled with material, wherein the amount of additive to be dispensed is calculated in accordance with the user selection and the calculated volume of material within the receptable; and wherein the lateral and upper sensors comprise ultrasonic sensors. a dispenser outlet for dispensing material into the receptacle; a support for receiving a receptacle; at least one lateral sensor positioned to laterally sense a receptacle received on the support; an upper sensor positioned to sense a receptacle received on the support from above; and a controller operatively connected to the lateral and upper sensors and configured to sense the presence of a receptacle received on the support, calculate the volume of the receptacle and/or the volume of material within the receptacle from data received from the lateral and upper sensors, and control the volume of material dispensed from the dispenser outlet into the receptacle based upon the calculated volume of the receptacle and/or the volume of material within the receptacle; wherein the dispenser comprises user input means through which a user can make selections regarding the material to be dispensed, and is configured to be able to add an additive to a receptable pre-filled with material, wherein the amount of additive to be dispensed is calculated in accordance with the user selection and the calculated volume of material within the receptable; and wherein the lateral and upper sensors comprise ultrasonic sensors.
A compound, being represented by formula II: wherein: X represents a substituent on a benzene ring, and is selected from the group consisting of -I, -Br, -CI, and -F; R 1 is C 2-10 alkyl substituted by cyclopropane or fluorine; and M is an organic amine ion or a meta! ion. X represents a substituent on a benzene ring, and is selected from the group consisting of -I, -Br, -CI, and -F; R 1 is C 2-10 alkyl substituted by cyclopropane or fluorine; and M is an organic amine ion or a meta! ion.
A dishwasher comprising a washing chamber, a rack adapted to accommodate items to be washed by washing liquid within said washing chamber, an arm, and an arm moving arrangement arranged to move said arm within said washing chamber, characterized in that said arm comprises at least one washing liquid removing element arranged to touch at least one of said rack and washing liquid at said rack upon movement of said arm to remove said washing liquid from said rack.
A system for tissue treatment, comprising: a picosecond laser configured to emit light of at least one wavelength; a fractional optical system comprising a lens array including a plurality of foci for concentrating a laser emission, from the picosecond laser, to targets in the epidermis wherein the targets absorb light of at least one wavelength, and the picosecond laser configured to emit a pulse width within the range of from about 260 picoseconds to about 900 picoseconds and a fluence range from about 0.8 J/cm 2 to about 50 J/cm 2, wherein the at least one wavelength is absorbed by melanin and concentrating the laser emission at the targets initiates an electron avalanche ionization at the targets to provide a pressure wave emission to tissue adjacent the targets. a picosecond laser configured to emit light of at least one wavelength; a fractional optical system comprising a lens array including a plurality of foci for concentrating a laser emission, from the picosecond laser, to targets in the epidermis wherein the targets absorb light of at least one wavelength, and the picosecond laser configured to emit a pulse width within the range of from about 260 picoseconds to about 900 picoseconds and a fluence range from about 0.8 J/cm 2 to about 50 J/cm 2, wherein the at least one wavelength is absorbed by melanin and concentrating the laser emission at the targets initiates an electron avalanche ionization at the targets to provide a pressure wave emission to tissue adjacent the targets.
A stackable unitized fuel cell system, comprising: a unitized fuel cell assembly, comprising: a first flow field plate; a second flow field plate; and a membrane electrode assembly provided between the first and second flow field plates; a cooling structure separable with respect to the unitized fuel cell assembly; and a retention arrangement provided on one or both of the unitized fuel cell assembly and cooling structure the retention arrangement configured to facilitate mating engagement between the unitized fuel cell assembly and cooling structure, and retention of the unitized fuel cell assembly in a predetermined orientations, wherein a recessed fit is provided between the unitized fuel cell assembly and the cooling structure for ease of alignement, and the unitized fuel cell assembly and associated cooling structure can be compressed by means of the rods rituated completely outside of the unitized fuel cell assembly. a unitized fuel cell assembly, comprising: a first flow field plate; a second flow field plate; and a membrane electrode assembly provided between the first and second flow field plates; a first flow field plate; a second flow field plate; and a membrane electrode assembly provided between the first and second flow field plates; a cooling structure separable with respect to the unitized fuel cell assembly; and a retention arrangement provided on one or both of the unitized fuel cell assembly and cooling structure the retention arrangement configured to facilitate mating engagement between the unitized fuel cell assembly and cooling structure, and retention of the unitized fuel cell assembly in a predetermined orientations, wherein a recessed fit is provided between the unitized fuel cell assembly and the cooling structure for ease of alignement, and the unitized fuel cell assembly and associated cooling structure can be compressed by means of the rods rituated completely outside of the unitized fuel cell assembly.
An article carrier robot, comprising: a horizontal base; a horizontally movable unit supported by the horizontal base so as to be movable in a horizontal direction, wherein the horizontally movable unit includes a vertical post, a robot main body supported by the vertical post so as to be vertically movable; at least one of wiring and piping introduced into the robot main body from the horizontal base; and a restriction unit supported by the horizontally movable unit so as to be swayable about a pivot provided to the horizontally movable unit, the restriction unit being configured to restrict deformation of a part of the at least one of wiring and piping, the restriction unit including a post-side protective pipe, wherein the post-side protective pipe is supported by the vertical post so as to be swayable about said pivot located at the vertical post, and wherein said pivot is located at an upper end portion of the vertical post. a horizontal base; a horizontally movable unit supported by the horizontal base so as to be movable in a horizontal direction, wherein the horizontally movable unit includes a vertical post, a robot main body supported by the vertical post so as to be vertically movable; at least one of wiring and piping introduced into the robot main body from the horizontal base; and a restriction unit supported by the horizontally movable unit so as to be swayable about a pivot provided to the horizontally movable unit, the restriction unit being configured to restrict deformation of a part of the at least one of wiring and piping, the restriction unit including a post-side protective pipe, wherein the post-side protective pipe is supported by the vertical post so as to be swayable about said pivot located at the vertical post, and wherein said pivot is located at an upper end portion of the vertical post.
A method for manufacturing a polarizer, comprising: providing a liquid crystal composition comprising a liquid crystal host and a viscosity enhancer; providing a thin film of said composition on a substrate; orienting said liquid crystal host to obtain an aligned film in a first liquid crystal mesophase, wherein the liquid crystal host is aligned planar to said substrate by having the long axis of the liquid crystal monomers directed perpendicular to the normal of the substrate; gelating said viscosity enhancer to congeal said film wherein the viscosity enhancer is adapted to maintain the planar orientation of the liquid crystal host; obtaining a second liquid crystal state in said congealed film; wherein said first liquid crystal state is obtained at a temperature above the gelating temperature for said viscosity enhancer; and wherein said second liquid crystal state is obtained at a temperature below the gelating temperature for said viscosity enhancer. providing a liquid crystal composition comprising a liquid crystal host and a viscosity enhancer; providing a thin film of said composition on a substrate; orienting said liquid crystal host to obtain an aligned film in a first liquid crystal mesophase, wherein the liquid crystal host is aligned planar to said substrate by having the long axis of the liquid crystal monomers directed perpendicular to the normal of the substrate; gelating said viscosity enhancer to congeal said film wherein the viscosity enhancer is adapted to maintain the planar orientation of the liquid crystal host; obtaining a second liquid crystal state in said congealed film; wherein said first liquid crystal state is obtained at a temperature above the gelating temperature for said viscosity enhancer; and wherein said second liquid crystal state is obtained at a temperature below the gelating temperature for said viscosity enhancer.
A foldable wheeled conveyance comprising a rear frame and a second or seat frame, rear wheels and a least one front wheel, the second or seat frame pivotally mounted by pivot units on the rear frame, and in which the second or seat frame assumes one of two stable positions with respect to the rear frame, the first position being a locked, open, position projecting substantially forwards with respect to the rear frame and a second folded position being substantially adjacent the rear frame when the conveyance is folded wherein the rear wheels are mounted on the rear frame and the rear frame has at least one handle; characterized in that: the at least one front wheel is mounted on the second or seat frame; the rear frame comprises a pair of spaced apart members which are telescopic and comprise a main side member and a lower portion telescoping one within the other and in which the pivot mountings are mounted on the rear frame around the telescoping portions of the main side members and lower portions of the spaced apart members; the lower portion is lockable in one of two positions with respect to the main side member.
A contactless power receiving device, comprising: - a power reception coil unit including a power reception coil configured to contactlessly receive magnetic flux sent from a power supply coil; - iron bolts for fixing the power reception coil unit to a vehicle body; and - a magnetic shield plate configured to suppress diffusion of the magnetic flux received by the power reception coil unit to surroundings; wherein: - the magnetic shield plate is arranged on a bottom side of the vehicle body below all of the iron bolts, - the magnetic shield plate is formed to have a rectangular shape in a plan view and a rectangular opening in a center of the magnetic shield plate, - the magnetic shield plate includes: a shield plate main body; and bolt shield portions recessed downward formed in four portions which are front-left, front-right, rear-left and rear-right portions in a peripheral edge of the shield plate main body on a side of the opening and configured to shield against the magnetic flux flowing toward the iron bolts, and - the bolt shield portions are arranged below all of the iron bolts and are covering the iron bolts at said four portions. - a power reception coil unit including a power reception coil configured to contactlessly receive magnetic flux sent from a power supply coil; - iron bolts for fixing the power reception coil unit to a vehicle body; and - a magnetic shield plate configured to suppress diffusion of the magnetic flux received by the power reception coil unit to surroundings; - the magnetic shield plate is arranged on a bottom side of the vehicle body below all of the iron bolts, - the magnetic shield plate is formed to have a rectangular shape in a plan view and a rectangular opening in a center of the magnetic shield plate, - the magnetic shield plate includes: a shield plate main body; and bolt shield portions recessed downward formed in four portions which are front-left, front-right, rear-left and rear-right portions in a peripheral edge of the shield plate main body on a side of the opening and configured to shield against the magnetic flux flowing toward the iron bolts, and - the bolt shield portions are arranged below all of the iron bolts and are covering the iron bolts at said four portions.
Genetically modified cytotoxic T cell comprising one or more exogenous nucleic acid molecules encoding a transgenic antigen-targeting construct, wherein in said cells estrogen receptor-binding fragment-associated antigen 9 (EBAG9) activity is inhibited.
A cast roller device for use with an image forming apparatus, the cast roller device comprising: at least one tube formed of a steel composition to transport a fluid; a cast body formed of an iron composition, the cast body including the at least one tube; an inlet tube to provide the fluid to the at least one tube; and an outlet tube to transport the fluid out of the at least one tube; wherein the at least one tube is implanted into the cast body using a combined casting process to form a thermal connection between the at least one tube and the cast body, wherein the steel composition of the at least one tube has a melting temperature that is greater than the melting temperature of the iron composition of the cast body to enable combined casting. at least one tube formed of a steel composition to transport a fluid; a cast body formed of an iron composition, the cast body including the at least one tube; an inlet tube to provide the fluid to the at least one tube; and an outlet tube to transport the fluid out of the at least one tube;
A method for producing an optical fiber, said method comprising the steps of: drawing an optical fiber from a heated glass source in a furnace; treating the optical fiber by maintaining the optical fiber in a treatment device to cool the optical fiber at a rate that is slower than the cooling rate of the fiber in air at 25°C and a pressure of 1 atm.; and characterized by reducing pressure in at least one of the furnace and the treatment device such that the pressure in the at least one of the furnace and the treatment device is in the range of 0.01 to 0.80 atm, wherein the step of reducing pressure comprises reducing pressure in multiple stages of the treatment device such that each stage has a different reduced pressure to provide different cooling rates. drawing an optical fiber from a heated glass source in a furnace; treating the optical fiber by maintaining the optical fiber in a treatment device to cool the optical fiber at a rate that is slower than the cooling rate of the fiber in air at 25°C and a pressure of 1 atm.; and characterized by reducing pressure in at least one of the furnace and the treatment device such that the pressure in the at least one of the furnace and the treatment device is in the range of 0.01 to 0.80 atm, wherein the step of reducing pressure comprises reducing pressure in multiple stages of the treatment device such that each stage has a different reduced pressure to provide different cooling rates.
A microwave plasma reactor for manufacturing synthetic diamond material via chemical vapour deposition, the microwave plasma reactor comprising: a plasma chamber; a substrate holder disposed in the plasma chamber and comprising a supporting surface for supporting a substrate on which the synthetic diamond material is to be deposited in use; a microwave coupling configuration for feeding microwaves from a microwave generator into the plasma chamber; and a gas flow system (12, 14) for feeding process gases into the plasma chamber and removing them therefrom; wherein the microwave plasma reactor further comprises an electrically conductive plasma stabilizing annulus (20, 22) disposed around the substrate holder within the plasma chamber when viewed down a central axis of the plasma chamber, the microwave plasma reactor characterised in that the electrically conductive plasma stabilizing annulus (20, 22) is in the form of a projecting ring which protrudes into the plasma chamber from a side wall of the plasma chamber and is positioned at a height within 50 mm of a height of the supporting surface of the substrate holder and at a height which is aligned with a plasma formed within the plasma chamber in use. a plasma chamber; a substrate holder disposed in the plasma chamber and comprising a supporting surface for supporting a substrate on which the synthetic diamond material is to be deposited in use; a microwave coupling configuration for feeding microwaves from a microwave generator into the plasma chamber; and a gas flow system (12, 14) for feeding process gases into the plasma chamber and removing them therefrom; wherein the microwave plasma reactor further comprises an electrically conductive plasma stabilizing annulus (20, 22) disposed around the substrate holder within the plasma chamber when viewed down a central axis of the plasma chamber, the microwave plasma reactor characterised in that the electrically conductive plasma stabilizing annulus (20, 22) is in the form of a projecting ring which protrudes into the plasma chamber from a side wall of the plasma chamber and is positioned at a height within 50 mm of a height of the supporting surface of the substrate holder and at a height which is aligned with a plasma formed within the plasma chamber in use.
A light-emitting device, comprising: a semiconductor structure having an active region disposed between an n-type layer and a p-type layer; a transparent substrate formed above the semiconductor structure; a wavelength conversion element formed above the transparent substrate; an insulating side coating around the semiconductor structure; and a reflective side coating around the wavelength conversion element and the transparent substrate, the reflective side coating being stacked over the insulating side coating, the reflective side coating having a top surface that is flush with a top surface of the wavelength conversion element; wherein the wavelength conversion element extends over the transparent substrate such that an exposed portion of a bottom surface and the side surfaces of the wavelength conversion element is in contact with the reflective side coating. a semiconductor structure having an active region disposed between an n-type layer and a p-type layer; a transparent substrate formed above the semiconductor structure; a wavelength conversion element formed above the transparent substrate; an insulating side coating around the semiconductor structure; and a reflective side coating around the wavelength conversion element and the transparent substrate, the reflective side coating being stacked over the insulating side coating, the reflective side coating having a top surface that is flush with a top surface of the wavelength conversion element; wherein the wavelength conversion element extends over the transparent substrate such that an exposed portion of a bottom surface and the side surfaces of the wavelength conversion element is in contact with the reflective side coating.
A method for manufacturing vehicle body parts, the method comprising: a) rolling a blank including a coated layer, such that the blank has two or more regions with different thicknesses, characterized in that the method further comprises; b) trimming the rolled blank into a shape necessary for press forming; and c) performing hot press forming by heating the trimmed blank and cooling the heated blank in a press forming apparatus, and the blank to be rolled in the step a) is provided with a hole, and at least a portion of the hole is positioned in a region where the rolling is performed. a) rolling a blank including a coated layer, such that the blank has two or more regions with different thicknesses, b) trimming the rolled blank into a shape necessary for press forming; and c) performing hot press forming by heating the trimmed blank and cooling the heated blank in a press forming apparatus, and
Mounting device for fastening a component, such as in particular a bracket, at a defined location with a base body which comprises a receptacle for the component, a suction device to hold the component held in the receptacle at the defined location and a pressing device to press the component held in the receptacle to the defined location, characterised in that at least one height stop is arranged on the base body in order to position it at a specific height. a base body which comprises a receptacle for the component, a suction device to hold the component held in the receptacle at the defined location and a pressing device to press the component held in the receptacle to the defined location, characterised in that at least one height stop is arranged on the base body in order to position it at a specific height.