mhurhangee/ep-ind-claims huggingface dataset:
A device for collecting a sample of the first pass portion of urine voided by a donor isolated from the midstream portion of the urine which device comprises a first part comprising an opening at its upper end adapted to receive urine voided by a donor, a urine collection body downstream of the upper end and a closable exit located downstream of the urine collection body and at the lower end of the first part, the exit providing a circular orifice, a second part located downstream of the exit of the first part and comprising a collecting vessel which is in communication with the exit of the first part wherein the circular orifice provided by the exit of the first part defines an inlet into the collecting vessel and has a diameter which is smaller than the diameter of the collecting vessel at the upper end thereof, wherein the collecting vessel is in the form of a container having a closed end which container contains a spherical bead having a diameter which is greater than the diameter of the circular orifice for blocking the inlet into the collecting vessel, characterised in that the spherical bead is freely moveable within the container and is capable of floating in urine such that, in use, it blocks the inlet into the collecting vessel on the filling of the collecting vessel with urine so as to cause further voided urine to be collected in the urine collection body of the first part and further such that, in use, the bead is capable of floating to the closed end of the container when the container is rotated.
A combination of an infusion set and an infusion set package, wherein the infusion set is sealed within the infusion set package, wherein on the infusion set package there are displayed in mutually offset and partially overlapping fashion on a surface thereof a plurality of illustrations (la) that are displayed with respectively different colors, wherein the infusion set comprises a plurality of groups, each group comprising: a spike cap; a spike on which said spike cap is installed; infusion tubing, one end of which is connected to said spike; a shutoff clamp for pressing on said infusion tubing and opening and/or closing a flow path within said infusion tubing; and a stopcock and/or splitter which is connected to the other end of said infusion tubing, wherein respective groups are given different colors, colors being assigned so as to indicate an order in which spikes are to be used during intravenous drip infusion, one or more of the constituent elements of each group being colored with the color assigned for that group, the order of those colors being identical to the order of colors employed at the images displayed on the infusion set package. a spike cap; a spike on which said spike cap is installed; infusion tubing, one end of which is connected to said spike; a shutoff clamp for pressing on said infusion tubing and opening and/or closing a flow path within said infusion tubing; and a stopcock and/or splitter which is connected to the other end of said infusion tubing, wherein respective groups are given different colors, colors being assigned so as to indicate an order in which spikes are to be used during intravenous drip infusion, one or more of the constituent elements of each group being colored with the color assigned for that group, the order of those colors being identical to the order of colors employed at the images displayed on the infusion set package.
A device for connecting a primary superconducting cable to a plurality of secondary superconducting cables (1 A), said device comprising: a primary superconducting cable provided with a screen and several concentric phase conductors (3, 5, 7), several secondary superconducting cables each provided with a screen and several concentric phase conductors (3A, 5A, 7A), the screen of the primary superconducting cable being connected to the screen of each secondary superconducting cable (1 A) using a screen connecting element, each phase conductor (3, 5, 7) of the primary superconducting cable being connected to the corresponding phase conductor (3A, 5A, 7A) of each secondary superconducting cable (1 A) using a phase connecting element. a primary superconducting cable provided with a screen and several concentric phase conductors (3, 5, 7), several secondary superconducting cables each provided with a screen and several concentric phase conductors (3A, 5A, 7A), the screen of the primary superconducting cable being connected to the screen of each secondary superconducting cable (1 A) using a screen connecting element, each phase conductor (3, 5, 7) of the primary superconducting cable being connected to the corresponding phase conductor (3A, 5A, 7A) of each secondary superconducting cable (1 A) using a phase connecting element.
A polyalkyl(meth)acrylate polymer, comprising: (a) 0% to 8% by weight of methyl (meth)acrylate; (b) 1.5% to 4.5% by weight of a hydroxyl-substituted C 1-4 alkyl (meth)acrylate; and (c) 87.5% to 98.5% by weight of C 6-30 alkyl (meth)acrylates, wherein the polyalkyl(meth)acrylate polymer has a weight-average molecular weight M w in the range of 30,000 to 130,000 g/mol. (a) 0% to 8% by weight of methyl (meth)acrylate; (b) 1.5% to 4.5% by weight of a hydroxyl-substituted C 1-4 alkyl (meth)acrylate; and (c) 87.5% to 98.5% by weight of C 6-30 alkyl (meth)acrylates, wherein
A printing method for printing on a three-dimensional workpiece using a three-dimensional object printing apparatus comprising: a liquid discharge head having a nozzle surface on which a plurality of nozzles which discharge a liquid are provided; and a moving mechanism that changes a position and a pose of the liquid discharge head relative the workpiece, wherein the workpiece has a first surface and a second surface that forms a corner bent or curved in a concave shape between the first surface and the second surface, the printing method comprising: a first printing operation step in which the liquid discharge head performs printing on the first surface while the moving mechanism moves the liquid discharge head along a first scanning axis with respect to a workpiece, characterized in that a first discharge vector, which is normal to the nozzle surface in the first printing operation step, has a component in a direction toward the second surface along the first scanning axis.
A method comprising: generating a digital model of a tooth structure; attaching a virtual pedestal of known physical characteristic to the digital model; generating a physical model of the tooth structure with attached pedestal of known physical characteristic from the digital model with the attached virtual pedestal of known physical characteristic; and characterized by mating the physical pedestal of known physical characteristic into fixture of manufacturing equipment for registering coordinate system of the physical and digital models to coordinate system of the manufacturing equipment. generating a digital model of a tooth structure; attaching a virtual pedestal of known physical characteristic to the digital model; generating a physical model of the tooth structure with attached pedestal of known physical characteristic from the digital model with the attached virtual pedestal of known physical characteristic; and characterized by mating the physical pedestal of known physical characteristic into fixture of manufacturing equipment for registering coordinate system of the physical and digital models to coordinate system of the manufacturing equipment.
Compound of the formula in which R 1 represents hydrogen or halogen, R 2 represents hydrogen or halogen, R 3 represents chloro or trifluoromethyl, R 4 represents hydrogen or C 1 -C 4 -alkyl R 5 represents C 1 -C 6 -alkyl X 1 represents nitrogen or carbon X 2 represents nitrogen or carbon or one of the salts thereof, solvates thereof or solvates of the salts thereof. R 1 represents hydrogen or halogen, R 2 represents hydrogen or halogen, R 3 represents chloro or trifluoromethyl, R 4 represents hydrogen or C 1 -C 4 -alkyl R 5 represents C 1 -C 6 -alkyl X 1 represents nitrogen or carbon X 2 represents nitrogen or carbon
Method for moving an object between a platform of a wind turbine and a deck of a vessel, wherein the platform is located at a tower of the wind turbine, wherein the object is moved vertically by a hoist coupled between the object and at least one fixation site of the wind turbine located above the platform and the deck, wherein the object is deflected radially from the tower by a pulling means coupled between the object and the vessel, characterized in that at least one fixation element mounted to or comprised by a bedframe of the nacelle located on the bottom side of the nacelle is used as at least one fixation site.
A strainer for a food container, the strainer comprising apertures (103, 202) randomly scattered on the surface of the strainer, suitable for allowing liquids to drain therethrough, characterized in that said strainer is provided with at least two holes (104a, 104b) sealed by capping covers (207a, 207b) through which two fingers of a user can be inserted to a level below the strainer's plane, said strainer being bendable by the action of forces applied by said fingers, thereby to place said strainer into or remove said strainer from said food container.
Tyre tread comprising a tread surface intended to come into contact with a road surface during running, this tread having a thickness corresponding to the thickness of material to be worn away, this tread comprising at least one groove that opens onto the tread surface of the tread in the new state, this groove having a maximum depth and a maximum width at the tread surface when new, this groove comprising a plurality of first and second portions of groove, each first portion of groove being delimited by facing walls (211, 212) spaced apart by a maximum width measured at the tread surface when new, these walls (211, 212) approaching one another such that, at an intermediate depth between 20 and 80% of the maximum depth of the groove, they are spaced apart by a minimum width (L1') less than the maximum width, this minimum width (L1') being appropriate for the facing walls (211, 212) to come into contact when in the contact patch in contact with the road surface, these same walls (211, 212) diverging from one another down to the maximum depth of the groove such that they are spaced apart from one another by a groove-bottom width (L1"), each second portion of groove being delimited by facing walls (221, 222) spaced apart by a minimum width measured at the tread surface when new, these walls (221, 222) diverging from one another such that, at an intermediate depth between 20% and 80% of the maximum depth of the groove, they are spaced apart from one another by a maximum width (L2') greater than the minimum width, the minimum width being appropriate for the facing walls (221, 222) to come into contact when in the contact patch in contact with the road surface at least when new, these same walls (221, 222) of the second portion of groove then approaching one another down to the maximum depth of the groove such that they are spaced apart by a groove-bottom width (L2"), this groove being characterized in that it is formed by a plurality of first and second portions of groove that are disposed in alternation and continuously one after another so as to form a continuous passage between all the portions of groove in order to allow liquid to flow in the groove regardless of the level of wear, this continuous passage being broken down into two elementary passages (31, 32) disposed radially one above the other.
Soil compactor comprising a compaction roller rotatably supported by a compaction roller frame, wherein the compaction roller frame comprises two longitudinal members (14, 16) arranged in a direction longitudinal to the compactor on both sides of the compaction roller and supporting said compaction roller, and, connecting the two longitudinal members (14, 16), two cross members (20, 22) arranged in a direction perpendicular to the compactor and along both sides of the compaction roller, wherein the compaction roller frame is connected to a compactor main frame via one of the two cross members, and wherein at least one sight opening is provided within the other of the two cross members, characterized in that the at least one sight opening is essentially open upward in a direction vertical to the compactor and in that an upper area of the at least one sight opening is furnished with at least one brace bridging said sight opening in a direction perpendicular to the compactor, wherein the at least one brace has a smaller cross-sectional area than the other cross member in the area of the at least one sight opening, or in that the other cross member comprises at least two cross member support elements arranged one above the other in a direction vertical to the compactor and forming the sight opening between them.
A drum washing machine comprising a spraying washing device, wherein a window gasket ring is arranged between a feeding clothes opening of a door of the washing machine and an opening of an outer cylinder, wherein the window gasket ring is bent to form a groove-shaped fold on the front of the opening of the outer cylinder, and wherein the spraying washing device comprises: an inlet solenoid valve connected with a controller of the washing machine, an inlet pipe connected with the inlet solenoid valve, and a first spraying nozzle configured to spray water towards a watching window and the window gasket ring for washing an outer surface of the watching window and the window gasket ring, characterized by a three-way pipe connected with the inlet pipe and further connected with the first spraying nozzle through a first bypass pipe, wherein the inlet solenoid valve, the inlet pipe, and the three-way pipe are connected in sequence, a second spraying nozzle arranged in a the groove-shaped fold through the window gasket ring from the top, said second spraying nozzle being provided with a spraying mouth on both sides of the circumferential direction of the window gasket ring or said second spraying nozzle having a cylindrical structure of which the end is closed end and the side wall is provided with a plurality of spraying holes, for allowing water sprayed from the spraying mouth on both sides or from the spaying holes to flow along an inner wall of the groove-shaped fold and converge on the bottom, and, after washing the inner surface of the groove-shaped fold, to be drained into the outer cylinder from a water outlet on the bottom of the window gasket ring, and a second bypass pipe connecting the second spraying valve with the three-way pipe. an inlet solenoid valve connected with a controller of the washing machine, an inlet pipe connected with the inlet solenoid valve, and a first spraying nozzle configured to spray water towards a watching window and the window gasket ring for washing an outer surface of the watching window and the window gasket ring, characterized by a three-way pipe connected with the inlet pipe and further connected with the first spraying nozzle through a first bypass pipe, wherein the inlet solenoid valve, the inlet pipe, and the three-way pipe are connected in sequence, a second spraying nozzle arranged in a the groove-shaped fold through the window gasket ring from the top, said second spraying nozzle being provided with a spraying mouth on both sides of the circumferential direction of the window gasket ring or said second spraying nozzle having a cylindrical structure of which the end is closed end and the side wall is provided with a plurality of spraying holes, for allowing water sprayed from the spraying mouth on both sides or from the spaying holes to flow along an inner wall of the groove-shaped fold and converge on the bottom, and, after washing the inner surface of the groove-shaped fold, to be drained into the outer cylinder from a water outlet on the bottom of the window gasket ring, and a second bypass pipe connecting the second spraying valve with the three-way pipe.
A method for preloading a target application, characterised by comprising: collecting, in a preset collection period, an historical state feature information of a terminal device at time points at which the target application is closed, as samples of the target application: monitoring whether the target application is launched within a preset time period starting from each time point at which the target application is closed; recording monitoring results as sample labels of the samples; constructing a random forest prediction model corresponding to the target application according to the samples of the target application and the sample labels corresponding to the samples, wherein the samples are configured to indicate the historical state feature information of the terminal device at time points at which the target application is closed; and the sample labels are configured to indicate whether the target application is launched within the preset time period starting from each time point at which the target application is closed; acquiring current state feature information of the terminal device, in response to the target application being detected to be closed; inputting the current state feature information into the random forest prediction model corresponding to the target application; and determining whether to preload the target application according to a prediction result of the random forest prediction model. collecting, in a preset collection period, an historical state feature information of a terminal device at time points at which the target application is closed, as samples of the target application: monitoring whether the target application is launched within a preset time period starting from each time point at which the target application is closed; recording monitoring results as sample labels of the samples; constructing a random forest prediction model corresponding to the target application according to the samples of the target application and the sample labels corresponding to the samples, wherein the samples are configured to indicate the historical state feature information of the terminal device at time points at which the target application is closed; and the sample labels are configured to indicate whether the target application is launched within the preset time period starting from each time point at which the target application is closed; acquiring current state feature information of the terminal device, in response to the target application being detected to be closed; inputting the current state feature information into the random forest prediction model corresponding to the target application; and determining whether to preload the target application according to a prediction result of the random forest prediction model.
A base station apparatus comprising: a transmitter configured to and/or programmed to transmit an enhanced physical downlink control channel, a value of M, which is the number of first elements that are used to transmit the enhanced physical downlink control channel, being included in a value set in which possible values of M are defined, each of the first elements consisting of a plurality of second elements, the plurality of second elements being included in one resource block pair, each of the plurality of second elements being constituted by a plurality of resource elements in a resource block pair, the base station apparatus further comprising processing circuitry configured to and/or programmed to determine the value set from a plurality of value sets, the transmitter transmitting, to a terminal apparatus, information related to determination of the value set, each of the first elements being an enhanced control channel element, ECCE. a transmitter configured to and/or programmed to transmit an enhanced physical downlink control channel, a value of M, which is the number of first elements that are used to transmit the enhanced physical downlink control channel, being included in a value set in which possible values of M are defined, each of the first elements consisting of a plurality of second elements, the plurality of second elements being included in one resource block pair, each of the plurality of second elements being constituted by a plurality of resource elements in a resource block pair, the base station apparatus further comprising processing circuitry configured to and/or programmed to determine the value set from a plurality of value sets, the transmitter transmitting, to a terminal apparatus, information related to determination of the value set, each of the first elements being an enhanced control channel element, ECCE.
A process for constructing a printing plate, the process comprising the steps of: a) successively depositing a plurality of n layers of photopolymer on a substrate (501, 552), the photopolymer curable by radiation in a predetermined wavelength range; b) curing each layer 1 through n-m after deposition of each layer, using a wide area radiation source (504, 564) having a first addressable area of coverage and configured to emit radiation in the predetermined wavelength range; c) selectively curing layer (n-m+1) to layer n after deposition of each layer using a small area radiation source, the small area radiation source comprising one or more second discrete addressable areas of coverage, each second discrete addressable area smaller than the first addressable area, modulated in accordance with a desired image to be printed by the printing plate; d) removing non-cured polymer from layers (n-m+1) to n; e) curing layers 1 to n with a detacking wide area radiation source, wherein the step of successively depositing the plurality of n layers comprises disposing a printing assembly (503, 556) comprising at least one ink jet print head (502, 562, 601, 602, 603, 604), the wide area radiation source (504, 564), and the small area radiation source in a spaced relationship relative to the substrate (501, 552), and causing relative motion between the substrate (501, 552) and the printing assembly (503, 556). a) successively depositing a plurality of n layers of photopolymer on a substrate (501, 552), the photopolymer curable by radiation in a predetermined wavelength range; b) curing each layer 1 through n-m after deposition of each layer, using a wide area radiation source (504, 564) having a first addressable area of coverage and configured to emit radiation in the predetermined wavelength range; c) selectively curing layer (n-m+1) to layer n after deposition of each layer using a small area radiation source, the small area radiation source comprising one or more second discrete addressable areas of coverage, each second discrete addressable area smaller than the first addressable area, modulated in accordance with a desired image to be printed by the printing plate; d) removing non-cured polymer from layers (n-m+1) to n; e) curing layers 1 to n with a detacking wide area radiation source,