mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a main body configured to have a storage chamber therein; a door rotatably disposed at a front of the main body by hinge units so as to open or close the storage chamber, and configured to have a rotation shaft located at a front of the main body and spaced apart from the main body; and a protection member configured to cover a separation distance (a) generated between the main body and the door, coupled to the main body and extending along the main body between the hinge units such that the protection member is disposed between the rotation shaft of the door and the main body, wherein each hinge unit comprises a door coupling part at one side thereof for coupling the hinge unit to the main body and a rotation coupling part at the other side thereof for coupling the hinge unit to the door and characterized in that each hinge unit further comprises second coupling parts for supporting the protection member. a main body configured to have a storage chamber therein; a door rotatably disposed at a front of the main body by hinge units so as to open or close the storage chamber, and configured to have a rotation shaft located at a front of the main body and spaced apart from the main body; and a protection member configured to cover a separation distance (a) generated between the main body and the door, coupled to the main body and extending along the main body between the hinge units such that the protection member is disposed between the rotation shaft of the door and the main body, wherein each hinge unit comprises a door coupling part at one side thereof for coupling the hinge unit to the main body and a rotation coupling part at the other side thereof for coupling the hinge unit to the door and characterized in that each hinge unit further comprises second coupling parts for supporting the protection member.
A polyarylene sulfide resin composition comprising a polyarylene sulfide resin, a glass fiber, and a silane coupling agent blended as essential components, wherein the glass fiber is a glass fiber having, in the glass fiber, a ZrO 2 content of 16 mass% or more, a TiO 2 content of 5 to 10 mass% or less, and a CaO content of 0.1 to 5 mass%, and, per 100 parts by mass of the polyarylene sulfide resin, the glass fiber is within a range of 10 to 100 parts by mass, and the silane coupling agent is within a range of 0.01 to 10 parts by mass. wherein the glass fiber is a glass fiber having, in the glass fiber, a ZrO 2 content of 16 mass% or more, a TiO 2 content of 5 to 10 mass% or less, and a CaO content of 0.1 to 5 mass%, and, per 100 parts by mass of the polyarylene sulfide resin, the glass fiber is within a range of 10 to 100 parts by mass, and the silane coupling agent is within a range of 0.01 to 10 parts by mass.
A process for preparing an ethylene polymer in a suspension polymerization in a polymerization reactor or a series of polymerization reactors comprising polymerizing ethylene or copolymerizing ethylene and one or more C 3 -C 12 -1-alkenes at temperatures of from 40 to 150°C and pressures of from 0.1 to 20 MPa in the presence of a polymerization catalyst and forming a suspension of ethylene polymer particles in a suspension medium comprising a hydrocarbon diluent, transferring the suspension of ethylene polymer particles into a solid-liquid separator, in which the suspension is separated in ethylene polymer particles and mother liquor, transferring a part of the mother liquor into a work-up section comprising an evaporation unit for producing a wax-depleted portion of the mother liquor, wherein a protic agent is added to the part of the mother liquor which is transferred into the work-up section, and recycling at least a part of the wax-depleted portion of the mother liquor to the polymerization reactor or the series of polymerization reactors. polymerizing ethylene or copolymerizing ethylene and one or more C 3 -C 12 -1-alkenes at temperatures of from 40 to 150°C and pressures of from 0.1 to 20 MPa in the presence of a polymerization catalyst and forming a suspension of ethylene polymer particles in a suspension medium comprising a hydrocarbon diluent, transferring the suspension of ethylene polymer particles into a solid-liquid separator, in which the suspension is separated in ethylene polymer particles and mother liquor, transferring a part of the mother liquor into a work-up section comprising an evaporation unit for producing a wax-depleted portion of the mother liquor, wherein a protic agent is added to the part of the mother liquor which is transferred into the work-up section, and recycling at least a part of the wax-depleted portion of the mother liquor to the polymerization reactor or the series of polymerization reactors.
An orthodontic bracket comprising: a body configured to be adhered to a tooth; a cover coupled to the body such that the cover is capable of linear and rotational movement; and an elastic member configured to press the cover to maintain a locked state of the cover, wherein the body comprises a guide part and a body locking part, the guide part having a guide recess, the body locking part configured to latch onto the cover, the cover comprises a hinge part and a cover locking part, the hinge part having a hinge protrusion configured to be inserted into the guide recess to enable linear and rotational movement, the cover locking part configured to be latched onto the body locking part, characterized in that one end of the guide recess is open in a direction of the body locking part. a body configured to be adhered to a tooth; a cover coupled to the body such that the cover is capable of linear and rotational movement; and an elastic member configured to press the cover to maintain a locked state of the cover, wherein the body comprises a guide part and a body locking part, the guide part having a guide recess, the body locking part configured to latch onto the cover, the cover comprises a hinge part and a cover locking part, the hinge part having a hinge protrusion configured to be inserted into the guide recess to enable linear and rotational movement, the cover locking part configured to be latched onto the body locking part, characterized in that one end of the guide recess is open in a direction of the body locking part.
Installation, in particular a cement clinker installation, for separating a volatile component, in particular mercury, from flue gases, comprising: a mobile container with an inlet line and an outlet line for the flue gases, the mobile container being designed as a transportable swap body, characterized in that several vessels, each filled with a fixed bed of a sorbent, in particular a carbon-containing and/or mineral sorbent, are arranged in the mobile container, wherein the mobile container comprises a mount for attaching a lifting device. a mobile container with an inlet line and an outlet line for the flue gases, the mobile container being designed as a transportable swap body, characterized in that several vessels, each filled with a fixed bed of a sorbent, in particular a carbon-containing and/or mineral sorbent, are arranged in the mobile container, wherein the mobile container comprises a mount for attaching a lifting device.
A shaft for use in a motor-generator, wherein the shaft is constructed as a single integral body and comprising: a plurality of circumferentially disposed longitudinal channels having circumferential mounting surfaces (9, 13) for adjacently mounting dual rotors (26, 29) wherein, the shaft is formed with a plurality of centrifugal fan blades which are oriented in the forward direction of rotation and which are disposed between said dual rotors (26, 29) such that the axial length of said blades is confined to the axial space between said dual rotors (26, 29), the plurality of circumferentially disposed longitudinal airflow channels and the inner circumferential surfaces of said dual rotors (26, 29) together form a plurality of radially bounded circumferentially disposed longitudinal airflow channels adjacent to said blades and confined to the lengths of said dual rotors (26, 29) when mounted onto the shaft. a plurality of circumferentially disposed longitudinal channels having circumferential mounting surfaces (9, 13) for adjacently mounting dual rotors (26, 29) wherein, the shaft is formed with a plurality of centrifugal fan blades which are oriented in the forward direction of rotation and which are disposed between said dual rotors (26, 29) such that the axial length of said blades is confined to the axial space between said dual rotors (26, 29), the plurality of circumferentially disposed longitudinal airflow channels and the inner circumferential surfaces of said dual rotors (26, 29) together form a plurality of radially bounded circumferentially disposed longitudinal airflow channels adjacent to said blades and confined to the lengths of said dual rotors (26, 29) when mounted onto the shaft.
A non-aqueous electrolyte for a lithium secondary battery comprising: a lithium salt; an organic solvent; a compound represented by Formula 1 below as a first additive; lithium difluorophosphate as a second additive; and a compound represented by Formula 2 below as a third additive: wherein, in Formula 1, Ar is a 5-membered or 6-membered nitrogen-containing ring, and L1 is a C1-C3 alkylene group, and wherein, in Formula 2, L2 is a direct linkage, or a C1-C3 alkylene group, R4 is a C1-C3 alkyl group substituted with at least one fluorine, and R5 is a C1-C3 alkyl group. a lithium salt; an organic solvent; a compound represented by Formula 1 below as a first additive; lithium difluorophosphate as a second additive; and a compound represented by Formula 2 below as a third additive: wherein, in Formula 1, Ar is a 5-membered or 6-membered nitrogen-containing ring, and L1 is a C1-C3 alkylene group, and wherein, in Formula 2, L2 is a direct linkage, or a C1-C3 alkylene group, R4 is a C1-C3 alkyl group substituted with at least one fluorine, and R5 is a C1-C3 alkyl group.
A device comprising: a polymeric separation medium that immobilizes one or more constituents of interest in the polymeric separation medium and has an increased pore size upon application of an applied stimulus, wherein the polymeric separation medium comprises a non-labile crosslinker configured to crosslink the polymeric separation medium, and a labile crosslinker configured to crosslink the polymeric separation medium and de-crosslink upon application of the applied stimulus, wherein the polymeric separation medium comprises functional groups that covalently bond to one or more of the constituents of interest in the polymeric separation medium, and wherein the labile crosslinker comprises N,N'-(1,2-dihydroxyethylene)bisacrylamide (DHEBA), N-N'-diallyltartardiamide (DATD), N,N'-bis(acryloyl)cystamine, N,N'-(7,7-dimethyl-3,6,8,11-tetraoxatridecane-1,13-diyl)diacrylamide, or N,N'-[(1-methylethylidene)bis(oxy-2,1-ethanediyl)]diacrylamide. wherein the polymeric separation medium comprises functional groups that covalently bond to one or more of the constituents of interest in the polymeric separation medium, and wherein the labile crosslinker comprises N,N'-(1,2-dihydroxyethylene)bisacrylamide (DHEBA), N-N'-diallyltartardiamide (DATD), N,N'-bis(acryloyl)cystamine, N,N'-(7,7-dimethyl-3,6,8,11-tetraoxatridecane-1,13-diyl)diacrylamide, or N,N'-[(1-methylethylidene)bis(oxy-2,1-ethanediyl)]diacrylamide.
A testosterone gel formulation for nasal administration, said testosterone gel formulation comprising: a) about 4.5% testosterone by weight of said gel formulation; and b) a pharmaceutically acceptable vehicle. a) about 4.5% testosterone by weight of said gel formulation; and b) a pharmaceutically acceptable vehicle.
An assay device for determining the presence and/or amount of an analyte of interest in a liquid sample applied, or otherwise introduced, to the device, the device comprising: at least one assay flow path along which a liquid flows; a gas generating means comprising at least one reagent which interacts with at least a second reagent to generate a gas dependent upon the presence, absence or amount of analyte, which gas creates one or more bubbles in the liquid sample which acts to alter the rate of flow of liquid along the flow path to a downstream zone; and a detection means to detect the alteration in the rate of flow of liquid, wherein the altering of the rate of flow of liquid along the flow path is indicative of the presence and/or amount of an analyte. at least one assay flow path along which a liquid flows; a gas generating means comprising at least one reagent which interacts with at least a second reagent to generate a gas dependent upon the presence, absence or amount of analyte, which gas creates one or more bubbles in the liquid sample which acts to alter the rate of flow of liquid along the flow path to a downstream zone; and a detection means to detect the alteration in the rate of flow of liquid, wherein the altering of the rate of flow of liquid along the flow path is indicative of the presence and/or amount of an analyte.
A power platform for generating electricity, the platform comprising a platform body supporting a device (100, 101) for generating electricity from water energy, wherein the power platform has a selectively variable buoyancy to sink the platform in water, the device comprising a plurality of oscillating water columns disposed about the platform body and equidistantly spaced about the platform in a closed loop configuration with a distance of between half to one-and-a-half oscillating water columns spacing therebetween, the platform body being manufactured from a framework to allow the passage of waves through sides and lower portion of the platform body.
A method of forming a coating on an endovascular spiral coil having a plurality of coil segments each separated by a helical gap, the method comprising: providing a solution comprising a polymeric coating; atomizing the polymeric coating a into a plurality of droplets at a set distance from the spiral coil; adjusting droplet time-of-flight of the atomized polymeric coating according to the set distance from the spiral coil; and coating an external surface of the spiral coil with the plurality of polymeric coating droplets; wherein the droplets have a size smaller than the helical gap separating the plurality of coil segments such that internal surfaces with respect to the helical gap remain substantially free of occlusion by the polymeric coating. providing a solution comprising a polymeric coating; atomizing the polymeric coating a into a plurality of droplets at a set distance from the spiral coil; adjusting droplet time-of-flight of the atomized polymeric coating according to the set distance from the spiral coil; and coating an external surface of the spiral coil with the plurality of polymeric coating droplets; wherein the droplets have a size smaller than the helical gap separating the plurality of coil segments such that internal surfaces with respect to the helical gap remain substantially free of occlusion by the polymeric coating.
A method of selecting transmission modes for use in transmitting data on a plurality of parallel channels in a wireless communication system, comprising: obtaining a channel estimate for each of the parallel channels; computing, for each of the parallel channels, an operating signal to noise ratio, SNR, based on the channel estimate for the respective parallel channel and an SNR offset value for that parallel channel, wherein the SNR offset indicates an amount of back-off to use for computing the operating signal to noise ratio, SNR, selecting a data rate, a coding scheme, an interleaving scheme, and/or a modulation scheme, for each respective parallel channel, based at least in part on the respective operating SNR; and adjusting the SNR offset value, for at least one of the parallel channels, based on estimated quality of data transmissions received on the respective parallel channel. obtaining a channel estimate for each of the parallel channels; computing, for each of the parallel channels, an operating signal to noise ratio, SNR, based on the channel estimate for the respective parallel channel and an SNR offset value for that parallel channel, wherein the SNR offset indicates an amount of back-off to use for computing the operating signal to noise ratio, SNR, selecting a data rate, a coding scheme, an interleaving scheme, and/or a modulation scheme, for each respective parallel channel, based at least in part on the respective operating SNR; and adjusting the SNR offset value, for at least one of the parallel channels, based on estimated quality of data transmissions received on the respective parallel channel.
A method for dynamic scheduling and allocation of network traffic, the method being characterised by comprising: distributing, by a central scheduling system, a domain name initial configuration table and a determination strategy to each of a plurality of detection nodes, wherein the domain name initial configuration table includes a pre-set domain name and IP addresses of a plurality of server nodes that the pre-set domain name directs to; detecting, by each detection node, each server node of the pre-set domain name in the domain name initial configuration table to obtain performance information of each server node; generating, by each detection node, a corresponding best coverage record based on the determination strategy and the obtained performance information, and uploading, by each detection node, the best coverage record to the central scheduling system; wherein the best coverage record includes the pre-set domain name, the geographical location of the detection node, the internet service operator of the detection node, and top N server nodes; and converting, by the central scheduling system, the best coverage record into a target server node and feeding back, by the central scheduling system, the target server node to a local DNS server. distributing, by a central scheduling system, a domain name initial configuration table and a determination strategy to each of a plurality of detection nodes, wherein the domain name initial configuration table includes a pre-set domain name and IP addresses of a plurality of server nodes that the pre-set domain name directs to; detecting, by each detection node, each server node of the pre-set domain name in the domain name initial configuration table to obtain performance information of each server node; generating, by each detection node, a corresponding best coverage record based on the determination strategy and the obtained performance information, and uploading, by each detection node, the best coverage record to the central scheduling system; wherein the best coverage record includes the pre-set domain name, the geographical location of the detection node, the internet service operator of the detection node, and top N server nodes; and converting, by the central scheduling system, the best coverage record into a target server node and feeding back, by the central scheduling system, the target server node to a local DNS server.
A method of manufacturing a light emitting diode device, the method comprising: preparing a fluorescent substrate including a body in which fluorescent substances are dispersed within a resin, and conductive vias (104a, 104b) penetrating the body; disposing a light emitting diode chip, having a first surface on which first and second electrodes (103a, 103b) are formed, and a second surface opposing the first surface, such that the first and second electrodes (103a, 103b) are connected to the conductive vias (104a, 104b); and forming a resin portion (107, 107') to encapsulate at least side surfaces of the light emitting diode chip, wherein the side surfaces refer to surfaces placed between the first and second surfaces; wherein the preparing of the fluorescent substrate comprises: forming a pattern, having openings, on a carrier film; forming conductive vias (104a, 104b) in the openings; removing the pattern; and forming fluorescent resins around the conductive vias (104a, 104b) on the carrier film. preparing a fluorescent substrate including a body in which fluorescent substances are dispersed within a resin, and conductive vias (104a, 104b) penetrating the body; disposing a light emitting diode chip, having a first surface on which first and second electrodes (103a, 103b) are formed, and a second surface opposing the first surface, such that the first and second electrodes (103a, 103b) are connected to the conductive vias (104a, 104b); and forming a resin portion (107, 107') to encapsulate at least side surfaces of the light emitting diode chip, wherein the side surfaces refer to surfaces placed between the first and second surfaces; wherein the preparing of the fluorescent substrate comprises: forming a pattern, having openings, on a carrier film; forming conductive vias (104a, 104b) in the openings; removing the pattern; and forming fluorescent resins around the conductive vias (104a, 104b) on the carrier film. forming a pattern, having openings, on a carrier film; forming conductive vias (104a, 104b) in the openings; removing the pattern; and forming fluorescent resins around the conductive vias (104a, 104b) on the carrier film.
Percussion device, in particular for a hammer drill and/or chipping hammer, having a percussion mechanism unit which has a piston unit, having a transmission unit which has at least one swash leg (20a, 22a) and is intended to transmit a movement to the percussion mechanism unit, and having a transmission element between the transmission unit and the piston unit, wherein the transmission element has a force flow direction with a component which is directed in the opposite direction to a force flow direction of the swash leg (20a, 22a), characterized in that the transmission unit has a bearing element which is arranged so as to be rotatable at least partially about a longitudinal axis of the transmission element and on which the transmission element is mounted in a movable manner, wherein the transmission element is guided in an axial direction in a guide rail of the percussion device.
A coordinated effects system (400, 1200), comprising: a first prism system (40, 140) comprising a first plurality of prisms (42, 142a, 142b, 142c), the first prism system configured to position a selected one of the first plurality of prisms in a light beam passing through the first prism system or to remove all of the first plurality of prisms from the light beam passing through the first prism system, the first prism system further configured to rotate at least one of the first plurality of prisms; and a second prism system (50, 150) optically coupled to the first prism system (40, 140) and comprising a second plurality of prisms (52, 152a, 152b, 152c), the second prism system configured to position a selected one of the second plurality of prisms in the light beam passing through the first prism system or to remove all of the second plurality of prisms from the light beam passing through the first prism system, the second prism system further configured to rotate at least one of the second plurality of prisms. a first prism system (40, 140) comprising a first plurality of prisms (42, 142a, 142b, 142c), the first prism system configured to position a selected one of the first plurality of prisms in a light beam passing through the first prism system or to remove all of the first plurality of prisms from the light beam passing through the first prism system, the first prism system further configured to rotate at least one of the first plurality of prisms; and a second prism system (50, 150) optically coupled to the first prism system (40, 140) and comprising a second plurality of prisms (52, 152a, 152b, 152c), the second prism system configured to position a selected one of the second plurality of prisms in the light beam passing through the first prism system or to remove all of the second plurality of prisms from the light beam passing through the first prism system, the second prism system further configured to rotate at least one of the second plurality of prisms.