mhurhangee/ep-ind-claims huggingface dataset:
A pectus bar assembly (200, 900, 1000, 1100,..) comprising: a pectus bar (202, 902, 1002, 1102,..) comprising: a first portion (234, 230, 232) comprising a first periphery; and a second portion (236, 230, 232) opposite the first portion (234, 230, 232); and a stabilizer (204, 904, 1004, 1104..) comprising: a stabilizer body comprising a recess (220, 1120) engageable with the second portion (236, 230, 232) of the pectus bar (202,..) and a cam bore (218, 1118) intersecting the recess (220, 1120); and a locking cam (216, 1016) rotatable within the cam bore (218, 1118) within the stabilizer body to secure the stabilizer (204, 904, 1004,..) to the first portion (234, 230, 232) of the pectus bar (202, 902, 1002,..). a pectus bar (202, 902, 1002, 1102,..) comprising: a first portion (234, 230, 232) comprising a first periphery; and a second portion (236, 230, 232) opposite the first portion (234, 230, 232); and a first portion (234, 230, 232) comprising a first periphery; and a second portion (236, 230, 232) opposite the first portion (234, 230, 232); and a stabilizer (204, 904, 1004, 1104..) comprising: a stabilizer body comprising a recess (220, 1120) engageable with the second portion (236, 230, 232) of the pectus bar (202,..) and a cam bore (218, 1118) intersecting the recess (220, 1120); and a locking cam (216, 1016) rotatable within the cam bore (218, 1118) within the stabilizer body to secure the stabilizer (204, 904, 1004,..) to the first portion (234, 230, 232) of the pectus bar (202, 902, 1002,..). a stabilizer body comprising a recess (220, 1120) engageable with the second portion (236, 230, 232) of the pectus bar (202,..) and a cam bore (218, 1118) intersecting the recess (220, 1120); and a locking cam (216, 1016) rotatable within the cam bore (218, 1118) within the stabilizer body to secure the stabilizer (204, 904, 1004,..) to the first portion (234, 230, 232) of the pectus bar (202, 902, 1002,..).
A group management control device for an elevator configured to manage a plurality of elevator cars as a bank, where an elevator hall is provided with entrances to each of the plurality of elevator cars, comprising: a hall call registration device by use of which a user registers a hall call; a walking time prediction section configured to predict a walking time required by the user to reach the entrance to each of the elevator cars from the hall call registration device on the basis of the distance from the hall call registration device to the entrance to each of the elevator cars; and a hall call assignment section configured to decide the elevator car to be assigned to the registered hall call on the basis of an evaluation value calculated by using the walking time predicted by the walking time prediction section, characterized in that the plurality of elevator cars managed as a bank are divided into a plurality of groups according to the distance from the hall call registration device to the entrances to the elevator cars in the elevator hall, wherein elevator cars with a distance from the hall call registration device to the entrances to elevator cars which is in a prescribed certain range belong to the same elevator group, and the walking time prediction section is configured to predict the walking time for each of the groups by using the same value preset as the distance for the elevator cars belonging to the same group. a hall call registration device by use of which a user registers a hall call; a walking time prediction section configured to predict a walking time required by the user to reach the entrance to each of the elevator cars from the hall call registration device on the basis of the distance from the hall call registration device to the entrance to each of the elevator cars; and a hall call assignment section configured to decide the elevator car to be assigned to the registered hall call on the basis of an evaluation value calculated by using the walking time predicted by the walking time prediction section, characterized in that the plurality of elevator cars managed as a bank are divided into a plurality of groups according to the distance from the hall call registration device to the entrances to the elevator cars in the elevator hall, wherein elevator cars with a distance from the hall call registration device to the entrances to elevator cars which is in a prescribed certain range belong to the same elevator group, and the walking time prediction section is configured to predict the walking time for each of the groups by using the same value preset as the distance for the elevator cars belonging to the same group.
A multi-layer sliding part prepared by sintering a mixed powder comprising 100 parts by volume of an alloy powder comprising 5 - 20 mass per cent of Sn and a remainder of Cu uniformly mixed with 1 - 50 parts by volume of a Cu-plated solid lubricant powder on a metal backing plate to form a bearing alloy layer, wherein the bearing alloy layer is densified and wherein the surface of the bearing alloy layer is coated with a resin having sliding properties.
A method of making a liquid dispersion for the manufacture of a photonic crystal, the method comprising: dispersing monodispersed spheres in a liquid to form a liquid dispersion; subjecting the liquid dispersion to an ultrasonic treatment; adding ammonia solution to the liquid dispersion after subjecting the liquid dispersion to said ultrasonic treatment; and subjecting the liquid dispersion, including the added ammonia solution, to a further ultrasonic treatment. dispersing monodispersed spheres in a liquid to form a liquid dispersion; subjecting the liquid dispersion to an ultrasonic treatment; adding ammonia solution to the liquid dispersion after subjecting the liquid dispersion to said ultrasonic treatment; and subjecting the liquid dispersion, including the added ammonia solution, to a further ultrasonic treatment.
Method for power control in a wireless communication system comprising at least one mobile station and N number of coordinated reception points with indices n=1,..., N, said coordinated reception points being spatially separated and adapted for receiving transmissions from said mobile station, said method comprising: - estimating a propagation loss metric L UL for said mobile station, said propagation loss metric L UL being a weighted sum of individual propagation losses L n from said mobile station to said coordinated reception points expressed in dB multiplied with associated weights w n; and - using said propagation loss metric L UL for power control of said mobile station; said method being characterised by further comprising the steps of: - estimating, by a serving cell controlling said mobile station, said propagation loss metric L UL based on individual propagation losses L n estimated from uplink transmissions comprising reference signals from said mobile station; - calculating, by said serving cell, a power adjustment parameter based on said propagation loss metric L UL; - transmitting, by said serving cell, said power adjustment parameter to said mobile station; - transmitting, by at least one reception point, a downlink transmission comprising reference signals; - estimating, by said mobile station, a downlink path loss based on said downlink transmission reference signals; and - reconstructing, by said mobile station, said propagation loss metric L UL based on said power adjustment parameter and said estimated downlink path loss. - estimating a propagation loss metric L UL for said mobile station, said propagation loss metric L UL being a weighted sum of individual propagation losses L n from said mobile station to said coordinated reception points expressed in dB multiplied with associated weights w n; and - using said propagation loss metric L UL for power control of said mobile station; - estimating, by a serving cell controlling said mobile station, said propagation loss metric L UL based on individual propagation losses L n estimated from uplink transmissions comprising reference signals from said mobile station; - calculating, by said serving cell, a power adjustment parameter based on said propagation loss metric L UL; - transmitting, by said serving cell, said power adjustment parameter to said mobile station; - transmitting, by at least one reception point, a downlink transmission comprising reference signals; - estimating, by said mobile station, a downlink path loss based on said downlink transmission reference signals; and - reconstructing, by said mobile station, said propagation loss metric L UL based on said power adjustment parameter and said estimated downlink path loss.
A prepreg containing components to as mentioned below, wherein the component is arranged on one surface or both surfaces of a layer comprising the components and: a non-woven fabric comprising a thermoplastic elastomer and/or a polyolefin which has a value of tanδ of 0.06 or more at 10°C as measured in a viscoelasticity measurement in which a plate-like molding comprising only component is measured using a dynamic viscoelasticity measurement from -70 to 250°C at a temperature rise rate of 5°C/min and is incompatible with the component, herein components and being incompatible means that the glass transition temperature of the cured product of the resin composition comprising the components and is observed at the same temperature as the glass transition temperatures of the plate-like molding comprising only the component and the cured resin produced by curing only the component as measured by a dynamic viscoelasticity measurement from -70 to 250°C at a temperature rise rate of 5°C/min; a first epoxy resin composition; and a reinforcing fiber. a non-woven fabric comprising a thermoplastic elastomer and/or a polyolefin which has a value of tanδ of 0.06 or more at 10°C as measured in a viscoelasticity measurement in which a plate-like molding comprising only component is measured using a dynamic viscoelasticity measurement from -70 to 250°C at a temperature rise rate of 5°C/min and is incompatible with the component, herein components and being incompatible means that the glass transition temperature of the cured product of the resin composition comprising the components and is observed at the same temperature as the glass transition temperatures of the plate-like molding comprising only the component and the cured resin produced by curing only the component as measured by a dynamic viscoelasticity measurement from -70 to 250°C at a temperature rise rate of 5°C/min; a first epoxy resin composition; and a reinforcing fiber.
A hose assembly, comprising: an inner tube comprising one or more of an elastomeric material and a thermoplastic material, wherein the inner tube has a first longitudinal length and a first circumference below a minimum expansion pressure, wherein the inner tube is expandable to one or more of a) a longer, second longitudinal length and b) a larger, second circumference upon application of fluid pressure on an inner surface of the inner tube at or above the minimum expansion pressure; and an outer tube covering the inner tube, the outer tube having a longitudinal length and a weld seam along the longitudinal length of the outer tube, the weld seam comprising melted outer tube material, wherein the hose assembly further includes a first coupler connected to first ends of the inner tube and the outer tube and a second coupler connected to second ends of the inner tube and the outer tube, and wherein the outer tube is not connected or attached to the inner tube between the first coupler and the second coupler. an inner tube comprising one or more of an elastomeric material and a thermoplastic material, wherein the inner tube has a first longitudinal length and a first circumference below a minimum expansion pressure, wherein the inner tube is expandable to one or more of a) a longer, second longitudinal length and b) a larger, second circumference upon application of fluid pressure on an inner surface of the inner tube at or above the minimum expansion pressure; and an outer tube covering the inner tube, the outer tube having a longitudinal length and a weld seam along the longitudinal length of the outer tube, the weld seam comprising melted outer tube material, wherein the hose assembly further includes a first coupler connected to first ends of the inner tube and the outer tube and a second coupler connected to second ends of the inner tube and the outer tube, and wherein the outer tube is not connected or attached to the inner tube between the first coupler and the second coupler.
An organic electroluminescent device, comprising a pair of electrodes and at least one organic layer including a luminescent layer between the pair of electrodes, wherein at least one layer between the pair of electrodes comprises at least one metal complex, wherein the metal complex is a compound represented by formula: wherein M 11 represents a metal ion selected from the group consisting of platinum, iridium, rhenium, palladium, rhodium, ruthenium and copper ions; L 11, L 12, L 13, L 14, and L 15 each represent a ligand to coordinate to M 11; L 11 and L 14 do not combine together via an atomic group, to form a cyclic ligand; L 15 does not bond to both L 11 and L 14, to form a cyclic ligand; Y 11, Y 12, and Y 13 each represent a linking group, a single bond, or a double bond; a bond between L 11 and Y 12, a bond between Y 12 and L 12, a bond between L 12 and Y 11, a bond between Y 11 and L 13, a bond between L 13 and Y 13, and a bond between Y 13 and L 14 each represent a single bond, or a double bond; n 11 represents 0 to 4, excluding metal complexes having no carbon-metal bond. M 11 represents a metal ion selected from the group consisting of platinum, iridium, rhenium, palladium, rhodium, ruthenium and copper ions; L 11, L 12, L 13, L 14, and L 15 each represent a ligand to coordinate to M 11; L 11 and L 14 do not combine together via an atomic group, to form a cyclic ligand; L 15 does not bond to both L 11 and L 14, to form a cyclic ligand; Y 11, Y 12, and Y 13 each represent a linking group, a single bond, or a double bond; a bond between L 11 and Y 12, a bond between Y 12 and L 12, a bond between L 12 and Y 11, a bond between Y 11 and L 13, a bond between L 13 and Y 13, and a bond between Y 13 and L 14 each represent a single bond, or a double bond; n 11 represents 0 to 4,
Screw comprising - a shank having a tip, a rear end, which is located opposite the tip, and a longitudinal axis, which extends through the tip and through the rear end, and - a screw thread helix, which is arranged on the shank, wherein the screw thread helix has a screw thread ridge for engaging into an internal screw thread groove, - wherein the shank has a rearwardly facing abutment structure, which extends alongside the screw thread helix, for axial abutment of the screw thread helix, characterized in that - the pitch (p tr) of the screw thread ridge increases as the axial distance of the screw thread ridge from the tip increases, and - the screw thread helix has axial tipward play with respect to the rearwardly facing abutment structure, so as to permit axial compression of the screw thread helix. - a shank having a tip, a rear end, which is located opposite the tip, and a longitudinal axis, which extends through the tip and through the rear end, and - a screw thread helix, which is arranged on the shank, wherein the screw thread helix has a screw thread ridge for engaging into an internal screw thread groove, - wherein the shank has a rearwardly facing abutment structure, which extends alongside the screw thread helix, for axial abutment of the screw thread helix, characterized in that - the pitch (p tr) of the screw thread ridge increases as the axial distance of the screw thread ridge from the tip increases, and - the screw thread helix has axial tipward play with respect to the rearwardly facing abutment structure, so as to permit axial compression of the screw thread helix.
A method of depositing reagent solution on an electrochemical test sensor as wet reagent droplet, the method comprising: providing a base of the test sensor; forming an electrode pattern on the base; depositing the reagent solution on at least the electrode pattern as a wet reagent droplet using a reagent-dispensing system such that the wet reagent droplet directly contacts a portion of the electrode pattern, the depositing including applying mechanical force to at least a portion of the reagent solution via the reagent-dispensing system; and drying the wet reagent droplet to form a dry reagent layer, the reagent solution including an enzyme and a polyelectrolyte, the polyelectrolyte aiding in providing a dry reagent layer having a uniformity in which the ratio of the thinnest point to the thickest point is at least about 0.2. providing a base of the test sensor; forming an electrode pattern on the base; depositing the reagent solution on at least the electrode pattern as a wet reagent droplet using a reagent-dispensing system such that the wet reagent droplet directly contacts a portion of the electrode pattern, the depositing including applying mechanical force to at least a portion of the reagent solution via the reagent-dispensing system; and drying the wet reagent droplet to form a dry reagent layer, the reagent solution including an enzyme and a polyelectrolyte, the polyelectrolyte aiding in providing a dry reagent layer having a uniformity in which the ratio of the thinnest point to the thickest point is at least about 0.2.
A control system for at least two electric furnaces, including a first furnace and a second furnace, the first furnace having an electrode coupled to a power supply and the second furnace having an electrode coupled to the power supply,, the control system characterized by: at least one variable reactor associated with at least the first furnace and coupled between each at least one electrode and the power supply; a variable reactance controller associated with the at least one variable reactor of the first furnace for adjusting a setting of each at least one variable reactor; a compensation controller coupled to the variable reactance controller and comprising monitoring means for monitoring respective operating characteristics of the at least two furnaces and determining whether the operating characteristic of the second furnace deviates from a set-point by more than a threshold amount, and control means responsive to the monitoring means for generating one or more compensation signals when the operating characteristic deviates from the set-point by more than the threshold amount, wherein, in response to receipt of the one or more compensation signals from the compensation controller, the variable reactance controller adjusts the setting of at least one variable reactor associated with the first furnace to compensate for the deviation of the operating characteristic of the second furnace from the set-point. at least one variable reactor associated with at least the first furnace and coupled between each at least one electrode and the power supply; a variable reactance controller associated with the at least one variable reactor of the first furnace for adjusting a setting of each at least one variable reactor; a compensation controller coupled to the variable reactance controller and comprising monitoring means for monitoring respective operating characteristics of the at least two furnaces and determining whether the operating characteristic of the second furnace deviates from a set-point by more than a threshold amount, and control means responsive to the monitoring means for generating one or more compensation signals when the operating characteristic deviates from the set-point by more than the threshold amount, wherein, in response to receipt of the one or more compensation signals from the compensation controller, the variable reactance controller adjusts the setting of at least one variable reactor associated with the first furnace to compensate for the deviation of the operating characteristic of the second furnace from the set-point.
A hand strap (20, 22) for a plastic carrier bag, containing a first flexible hollow body and a second flexible hollow body, which surrounds at least in sections, in particular completely, the first flexible hollow body, characterized in that the first flexible hollow body is formed from a first flexible plastic material strip with opposite first and second longitudinal side edges, the opposite first and second longitudinal side edges of which are heat sealed and/or adhered to one another in an overlapping area, and/or the second flexible hollow body is formed from a second flexible plastic material strip with opposite first and second longitudinal side edges, the opposite first and second longitudinal side edges of which are heat sealed and/or adhered to one another in a second overlapping area.
A method of optical sensing comprising: determining optical image data associated with a three dimensional object of interest, through differing optical media, wherein the object of interest is in a fluid in a container containing the fluid; retrieving non-optical data associated with the object of interest and relating to the container, media, backgrounds and fluid; analyzing the optical image data and non-optical data; and determining a position of the object of interest with respect to the container based on the analyzed optical image data and non-optical data. determining optical image data associated with a three dimensional object of interest, through differing optical media, wherein the object of interest is in a fluid in a container containing the fluid; retrieving non-optical data associated with the object of interest and relating to the container, media, backgrounds and fluid; analyzing the optical image data and non-optical data; and determining a position of the object of interest with respect to the container based on the analyzed optical image data and non-optical data.
Motor-vehicle display device, the display device comprising at least: - a holder configured to receive a portable device comprising a display screen, - a first reflector, and - a second reflector, the display device being configured so that the image formed on the display screen of the portable device is reflected by the first reflector in the direction of the second reflector when the portable device is placed in the holder, the second reflector being placed so as to reflect the image received from the first reflector so that it is visible to the driver, characterized in that the first and second reflectors (14, 16) are placed in an opaque casing and in that the second reflector is configured so as to reflect the image received by the first reflector in the direction of the driver of the vehicle. - a holder configured to receive a portable device comprising a display screen, - a first reflector, and - a second reflector,