mhurhangee/ep-ind-claims huggingface dataset:
A measuring device for measuring a measured variable of a fluid for household appliances, such as washing machines, dishwashers, or the like, comprising a housing, and comprising a measuring component located in the housing for measuring the measured variable, wherein a first measuring component for measuring the pressure of the fluid, wherein a second measuring component for measuring temperature of the fluid, wherein a third measuring component for measuring the turbidity of the fluid are arranged in the one housing in such a way that several measured variables of the fluid, which are preferably cleaning parameters for the operation of the household appliance, can be measured simultaneously, and wherein the housing consists of a housing body and a housing over, and the housing can be attached by means of an O-ring as seal in the household appliance in such a way that the housing cover has a surface, which is located in the fluid and/or which is exposed to the fluid, and wherein a temperature sensor of the second measuring component protrudes into a housing shoulder at the housing cover, and a sender and a receiver for optical radiation of the third measuring component are in each case arranged in a shoulder (21, 22) at the housing cover, and wherein the first measuring component comprises a membrane arranged in and/or at the housing, characterized in that the housing cover has a mandrel covering the membrane, and a contour surrounding the mandrel, and that at least one opening for supplying the fluid to the membrane is arranged at the mandrel and/or at the contour and/or in a depression between the mandrel as well as the contour, and that at least the portion of the surface of the housing cover, which, in the mounted state in the working space of the household appliances, is exposed to the fluid, is designed to be hydrophilic.
An anode active material comprising (i) a transition metal-pyrophosphate of Chemical Formula 1: <Chemical Formula 1> M 2 P 2 O 7 where M is any one selected from the group consisting of chromium (Cr), nickel (Ni), ruthenium (Ru), and palladium (Pd), or two or more elements thereof, and (ii) a carbon coating layer on the transition metal-pyrophosphate, wherein a thickness of the carbon coating layer is in a range of 5 nm to 100 nm. (i) a transition metal-pyrophosphate of Chemical Formula 1: <Chemical Formula 1> M 2 P 2 O 7 where M is any one selected from the group consisting of chromium (Cr), nickel (Ni), ruthenium (Ru), and palladium (Pd), or two or more elements thereof, and (ii) a carbon coating layer on the transition metal-pyrophosphate, wherein a thickness of the carbon coating layer is in a range of 5 nm to 100 nm.
A lock device comprising: - a housing which includes an opening; - a core which is rotatably mounted in the opening and which includes a key way for reception of a key; - a latching element (20;120) which co-acts between the housing and the core and which is movable between a release position in which the core is rotatable relative to the housing, and a latching position in which rotation of the core relative to the housing is blocked; - an electronically controllable actuator which is mounted in the core and which is movable between an opening-registering position in which movement of the latching element to the release position is permitted, and a latching position in which movement of the latching element to said release position is blocked; and - a rstoring means which co-acts mechanically with the key and with the actuator and functions to move the actuator from the opening-registering position to a further latching position in response to withdrawal of the key from the key way wherein the further latching position prevents movement of the latching element to said release position, characterized in that the restoring means is rotatable. - a housing which includes an opening; - a core which is rotatably mounted in the opening and which includes a key way for reception of a key; - a latching element (20;120) which co-acts between the housing and the core and which is movable between a release position in which the core is rotatable relative to the housing, and a latching position in which rotation of the core relative to the housing is blocked; - an electronically controllable actuator which is mounted in the core and which is movable between an opening-registering position in which movement of the latching element to the release position is permitted, and a latching position in which movement of the latching element to said release position is blocked; and - a rstoring means which co-acts mechanically with the key and with the actuator and functions to move the actuator from the opening-registering position to a further latching position in response to withdrawal of the key from the key way wherein the further latching position prevents movement of the latching element to said release position,
A heavy duty diesel engine lubricating oil composition comprising, or made by admixing: in excess of 50 mass% of the composition of an oil of lubricating viscosity consisting of a mixture of a Group I base stock and a Group III base stock, the oil of lubricating viscosity comprising at least 35 mass % of a Group III basestock, based on the mass of the oil of lubricating viscosity, that contains at most 0.03 mass % of sulfur, based on the mass of said basestock, and that has a viscosity index of 120 or greater and has greater than or equal to 90 mass % saturates, based on the mass of said basestock; and less than 50 mass% of the composition of an additive composition comprising: (i) a detergent composition; and (ii) one or more other additives; wherein the oil composition has a cold cranking simulated viscosity, measured according to ASTM D2602, of less than 7000 mPa.s at -25°C and a sulfated ash, measured according to ASTM D874, of less than 1.35 mass %, based on the mass of the oil composition. in excess of 50 mass% of the composition of an oil of lubricating viscosity consisting of a mixture of a Group I base stock and a Group III base stock, the oil of lubricating viscosity comprising at least 35 mass % of a Group III basestock, based on the mass of the oil of lubricating viscosity, that contains at most 0.03 mass % of sulfur, based on the mass of said basestock, and that has a viscosity index of 120 or greater and has greater than or equal to 90 mass % saturates, based on the mass of said basestock; and less than 50 mass% of the composition of an additive composition comprising: (i) a detergent composition; and (ii) one or more other additives; (i) a detergent composition; and (ii) one or more other additives;
Method for the amplification of nucleic acids by means of a Polymerase Chain Reaction in a reaction volume comprising a heating means, which consists of one or a plurality of heating elements which are in contact with the reaction volume in order to heat it and which convert a current flow into heat through their ohmic resistance, characterised in that the duration of the heating by the heating means in the denaturation step is in an interval between 1 microsecond and 5 milliseconds.
A safety laminate comprising at least one interlayer sheet that is laminated to one or more rigid sheets, one or more other polymeric interlayer sheets, or one or more film layers; wherein the at least one interlayer sheet comprises an ethylene copolymer composition; wherein the ethylene copolymer composition comprises a blend of Ethylene Copolymer 1 and Ethylene Copolymer 2; and wherein said Ethylene Copolymer 1 consists essentially of copolymerized units of ethylene, optionally 5 to 40 wt% of copolymerized units of a first olefin having a formula of CH 2 =C(R 1)CO 2 R 2, and 2 to 30 wt% of copolymerized units of a second olefin having a formula of CH 2 =C(R 3)COOH, wherein the weight percentages of the copolymerized units of the first olefin and of the second olefin are based on the total weight of said Ethylene Copolymer 1; wherein at least a portion of the carboxylic acid groups of the second olefin are neutralized to form carboxylate salts; wherein R 1 represents hydrogen or an alkyl group, R 2 represents an alkyl group, and R 3 represents hydrogen or an alkyl group; and wherein said Ethylene Copolymer 2 consists essentially of copolymerized units of ethylene, optionally up to 40 wt% of copolymerized units of the first olefin, and 3 to 15 wt% of copolymerized units of a third olefin having a formula of CH 2 =C(R 4)-D, wherein the weight percentages of the copolymerized units of the first olefin and of the third olefin are based on the total weight of said Ethylene Copolymer 2; wherein R 4 represents hydrogen or an alkyl group; wherein -D represents a moiety selected from the group consisting of -CO 2 R 5, -CO 2 R 6 -R 5, -R 6 -R 5, -O-R 5; wherein R 5 represents a moiety containing an epoxy group and R 6 represents an alkylene group; with the proviso that, in the blend of Ethylene Copolymer 1 and Ethylene Copolymer 2, none of said first, second or third olefins is a dicarboxylic acid or a di-ester, mono-ester or anhydride of the dicarboxylic acid.
An apparatus for distributing a radio frequency, RF, signal to a plurality of receivers, the apparatus comprising: a plurality of ports, each port uniquely associated with a corresponding receiver and providing radio frequency, RF, connectivity to one of a plurality of antennas (820, 821) to the corresponding receiver when the corresponding receiver is connected, the plurality of antennas including a first antenna and a second antenna; a plurality of sensors configured to detect, from signals obtained on the plurality of ports, which receivers are connected to the apparatus; a logic module configured to determine a network pathway for the detected receivers and generates a logic signal; and a router, based on the logic signal, configured to route data from a first detected receiver through all other detected receivers and back to the first detected receiver via corresponding ports of the plurality of ports; characterised in that: the plurality of ports comprises a plurality of A-ports (806, 808, 810, 812) and a plurality of B-ports (807, 809, 811, 813), each A-port connects to the first antenna and each B-port connects to the second antenna; and the plurality of sensors is configured to determine the detected receivers from an obtained signal from a corresponding A-port. a plurality of ports, each port uniquely associated with a corresponding receiver and providing radio frequency, RF, connectivity to one of a plurality of antennas (820, 821) to the corresponding receiver when the corresponding receiver is connected, the plurality of antennas including a first antenna and a second antenna; a plurality of sensors configured to detect, from signals obtained on the plurality of ports, which receivers are connected to the apparatus; a logic module configured to determine a network pathway for the detected receivers and generates a logic signal; and a router, based on the logic signal, configured to route data from a first detected receiver through all other detected receivers and back to the first detected receiver via corresponding ports of the plurality of ports; characterised in that: the plurality of ports comprises a plurality of A-ports (806, 808, 810, 812) and a plurality of B-ports (807, 809, 811, 813), each A-port connects to the first antenna and each B-port connects to the second antenna; and the plurality of sensors is configured to determine the detected receivers from an obtained signal from a corresponding A-port. the plurality of ports comprises a plurality of A-ports (806, 808, 810, 812) and a plurality of B-ports (807, 809, 811, 813), each A-port connects to the first antenna and each B-port connects to the second antenna; and the plurality of sensors is configured to determine the detected receivers from an obtained signal from a corresponding A-port.
A method comprising: discovering networks, by a device, as networks available for access by said device; sending (S310, S320), from said device to a network element, a network discovery request comprising a request for communication settings for at least one of the discovered networks; receiving (S230; S330, S350), at said device from said network element, a network discovery message comprising information on the discovered networks and the requested communication settings for said at least one of the discovered networks; and accessing, by said device, one of said at least one of the discovered networks on the basis of a device configuration for accessing said at least one of the discovered networks in accordance with the received communication settings. discovering networks, by a device, as networks available for access by said device; sending (S310, S320), from said device to a network element, a network discovery request comprising a request for communication settings for at least one of the discovered networks; receiving (S230; S330, S350), at said device from said network element, a network discovery message comprising information on the discovered networks and the requested communication settings for said at least one of the discovered networks; and accessing, by said device, one of said at least one of the discovered networks on the basis of a device configuration for accessing said at least one of the discovered networks in accordance with the received communication settings.
A method of determining the risk of death for a subject having heart failure, the method comprising: (a) determining a first major adverse cardiac event risk score (MACERS) for a subject having heart failure based upon, at least in part, the ratio of a second level of soluble Growth Stimulation Expressed Gene 2 in the subject at a second time point (ST2 T1) to a first level of soluble ST2 in the subject at a first time point (ST2 T0), in addition to a weighted natural logarithm of a level of N-terminal pro-BNP in the subject at the second time point (NP T1) according to the following formula: First MACERS = ST 2 T 1 / ST 2 T 0 + αln NP T 1, wherein α is a weighting factor; wherein α is a weighting factor; (b) determining a second MACERS for a subject based upon, at least in part, the ratio of a third level of soluble ST2 in the subject at a third time point (ST2 T2) to ST2 T0, in addition to a weighted natural logarithm of a level of the NP in the subject at the third time point (NP T2) according to the following formula: Second MACERS = ST 2 T 2 / ST 2 T 0 + αln NP T 2, wherein α is a weighting factor; wherein α is a weighting factor; (c) comparing the second MACERS to the first MACERS; and (d) determining the subject's risk of death based on the comparison of the second MACERS to the first MACERS. (a) determining a first major adverse cardiac event risk score (MACERS) for a subject having heart failure based upon, at least in part, the ratio of a second level of soluble Growth Stimulation Expressed Gene 2 in the subject at a second time point (ST2 T1) to a first level of soluble ST2 in the subject at a first time point (ST2 T0), in addition to a weighted natural logarithm of a level of N-terminal pro-BNP in the subject at the second time point (NP T1) according to the following formula: First MACERS = ST 2 T 1 / ST 2 T 0 + αln NP T 1, wherein α is a weighting factor; wherein α is a weighting factor; (b) determining a second MACERS for a subject based upon, at least in part, the ratio of a third level of soluble ST2 in the subject at a third time point (ST2 T2) to ST2 T0, in addition to a weighted natural logarithm of a level of the NP in the subject at the third time point (NP T2) according to the following formula: Second MACERS = ST 2 T 2 / ST 2 T 0 + αln NP T 2, wherein α is a weighting factor; wherein α is a weighting factor; (c) comparing the second MACERS to the first MACERS; and (d) determining the subject's risk of death based on the comparison of the second MACERS to the first MACERS.
A housing of an electrochemical cell, comprising: - an open bottom portion configured to receive one or more electrodes; - a top portion opposite to the open bottom portion; - side panels extending between the open bottom portion and the top portion; and - a hinged vent on an inner surface of the top portion of the housing facing downwardly with respect to a gravitational force, wherein the hinged vent comprises a fracture portion, a hinge portion on either side of the fracture portion extending substantially parallel to the fracture portion, and connecting portions extending from either end of the fracture portion to either end of the hinge portions, wherein the fracture portion, the hinge portion, and the connecting portions each comprise respective grooves that open into the housing, wherein the fracture portion comprises a first cross-sectional width through the top portion of the housing, the hinge portions comprise a second cross-sectional width through the top portion of the housing, and the first cross-sectional width is smaller than the second cross-sectional width. - an open bottom portion configured to receive one or more electrodes; - a top portion opposite to the open bottom portion; - side panels extending between the open bottom portion and the top portion; and - a hinged vent on an inner surface of the top portion of the housing facing downwardly with respect to a gravitational force, wherein the hinged vent comprises a fracture portion, a hinge portion on either side of the fracture portion extending substantially parallel to the fracture portion, and connecting portions extending from either end of the fracture portion to either end of the hinge portions,
A liquid pump (1a, 1b, 1c), comprising: a container (1, 10); a shaft disposed in the container (1, 10); a bearing supporting the shaft; a pump mechanism disposed in the container (1, 10) to pump a liquid by rotation of the shaft; a storage space defined in the container (1, 10) at a position outside the pump mechanism, the storage space storing the liquid to be taken into the pump mechanism or the liquid to be discharged to outside of the container (1, 10) after being expelled from the pump mechanism; and a liquid supply passage including an inlet open facing to the storage space and supplying at least some of the liquid stored in the storage to the bearing, wherein the storage space includes an inlet storage space for storing the liquid to be taken into the pump mechanism and an outlet storage space for storing the liquid to be discharged to the outside of the container (1, 10) after being expelled from the pump mechanism characterized in that the bearing includes a first bearing and a second bearing supporting the shaft at different positions in an axial direction of the shaft, wherein the liquid supply passage has an inlet liquid supply passage supplying at least some of the liquid stored in the inlet storage space to the first bearing and an outlet liquid supply passage supplying at least some of the liquid stored in the outlet storage space the second bearing. a container (1, 10); a shaft disposed in the container (1, 10); a bearing supporting the shaft; a pump mechanism disposed in the container (1, 10) to pump a liquid by rotation of the shaft; a storage space defined in the container (1, 10) at a position outside the pump mechanism, the storage space storing the liquid to be taken into the pump mechanism or the liquid to be discharged to outside of the container (1, 10) after being expelled from the pump mechanism; and a liquid supply passage including an inlet open facing to the storage space and supplying at least some of the liquid stored in the storage to the bearing, wherein the storage space includes an inlet storage space for storing the liquid to be taken into the pump mechanism and an outlet storage space for storing the liquid to be discharged to the outside of the container (1, 10) after being expelled from the pump mechanism characterized in that the bearing includes a first bearing and a second bearing supporting the shaft at different positions in an axial direction of the shaft, wherein the liquid supply passage has an inlet liquid supply passage supplying at least some of the liquid stored in the inlet storage space to the first bearing and an outlet liquid supply passage supplying at least some of the liquid stored in the outlet storage space the second bearing.
A source device comprising: an interface; and a processor configured to: control the interface to transmit a scene among a plurality of scenes forming HDR, high dynamic range, content to a sink device, which is arranged to reproduce the HDR content, and control the interface to transmit, to the sink device, image quality-related data of a next scene from among the plurality of scenes, wherein the image quality-related data of the next scene includes at least one of information on maximum brightness, average brightness, minimum brightness, colorimetry, cadence, sharpness improvement and noise reduction, a motion characteristic, an original resolution of the images forming the next scene, the image quality-related data being transmitted before the next scene is transmitted, wherein the processor is arranged to: identify a reproducing time of each of the scenes; identify the size of the image quality-related data of each of the scenes, and control the interface to transmit only a part of the image quality-related data that has the most significant effect on the image quality improvement regarding the next scene if the scene has a shorter reproducing time than the time required to transmit all of the image quality-related data for the next scene. an interface; and a processor configured to: control the interface to transmit a scene among a plurality of scenes forming HDR, high dynamic range, content to a sink device, which is arranged to reproduce the HDR content, and control the interface to transmit, to the sink device, image quality-related data of a next scene from among the plurality of scenes, wherein the image quality-related data of the next scene includes at least one of information on maximum brightness, average brightness, minimum brightness, colorimetry, cadence, sharpness improvement and noise reduction, a motion characteristic, an original resolution of the images forming the next scene, the image quality-related data being transmitted before the next scene is transmitted, wherein the processor is arranged to: identify a reproducing time of each of the scenes; identify the size of the image quality-related data of each of the scenes, and control the interface to transmit only a part of the image quality-related data that has the most significant effect on the image quality improvement regarding the next scene if the scene has a shorter reproducing time than the time required to transmit all of the image quality-related data for the next scene. identify a reproducing time of each of the scenes; identify the size of the image quality-related data of each of the scenes, and control the interface to transmit only a part of the image quality-related data that has the most significant effect on the image quality improvement regarding the next scene if the scene has a shorter reproducing time than the time required to transmit all of the image quality-related data for the next scene.