mhurhangee/ep-ind-claims huggingface dataset:
An oil jet (100, 200, 300, 400), comprising: a body that has an oil supply port which opens into an oil passage in a cylinder block of an internal combustion engine, a cylinder one end of which is communicated with the oil supply port and another end of which is closed, and an oil injection port which opens on a side surface of the cylinder; a piston valve that is accommodated in the cylinder to form a closed compartment in the cylinder, and includes an orifice which makes the closed compartment being communicated with a side of the oil supply port; and a spring that biases the piston valve toward a position at which the oil injection port is closed, characterized in that a leak hole (42, 80, 82, 84, 86) which allows oil to be leaked outside the body from the closed compartment is formed in the body, said leak hole (42, 80, 82, 84, 86) being configured as a hole in which the flow rate is determined based on Hagen-Poiseuille law. a body that has an oil supply port which opens into an oil passage in a cylinder block of an internal combustion engine, a cylinder one end of which is communicated with the oil supply port and another end of which is closed, and an oil injection port which opens on a side surface of the cylinder; a piston valve that is accommodated in the cylinder to form a closed compartment in the cylinder, and includes an orifice which makes the closed compartment being communicated with a side of the oil supply port; and a spring that biases the piston valve toward a position at which the oil injection port is closed,
A method for operating a wind turbine, the method comprising: during an unconstrained operation of the wind turbine: determining, using one or more sensors of the wind turbine, a first power production level of the wind turbine; determining one or more available power correction factors using the first power production level; determining an estimated available power value using one or more wind power parameters applied to a predefined model for estimating an available power of the wind turbine; adjusting the estimated available power value using the one or more available power correction factors to produce the available power value; and during a constrained operation of the wind turbine: controlling, using the available power value, the wind turbine to produce a second power production level; wherein the one or more available power correction factors are updated during unconstrained operation of the wind turbine, and are not updated during constrained operation of the wind turbine. during an unconstrained operation of the wind turbine: determining, using one or more sensors of the wind turbine, a first power production level of the wind turbine; determining one or more available power correction factors using the first power production level; determining an estimated available power value using one or more wind power parameters applied to a predefined model for estimating an available power of the wind turbine; adjusting the estimated available power value using the one or more available power correction factors to produce the available power value; and determining, using one or more sensors of the wind turbine, a first power production level of the wind turbine; determining one or more available power correction factors using the first power production level; determining an estimated available power value using one or more wind power parameters applied to a predefined model for estimating an available power of the wind turbine; adjusting the estimated available power value using the one or more available power correction factors to produce the available power value; and during a constrained operation of the wind turbine: controlling, using the available power value, the wind turbine to produce a second power production level; wherein the one or more available power correction factors are updated during unconstrained operation of the wind turbine, and are not updated during constrained operation of the wind turbine.
A N-substituted imidazole carboxylate compound with the structure of formula, in formula, C* is an R-type chiral carbon atom, R 1 and R 2 are independently selected from H, methyl, ethyl, cyclopropyl, cyclobutyl or isopropyl, or R 1 and R 2 form a C 2-5 alkylenyl group; R 3 is a substituted or unsubstituted C 1-18 saturated or unsaturated aliphatic hydrocarbon or aromatic hydrocarbon, in which the aliphatic hydrocarbon comprises a straight chain, branched chain or cyclic aliphatic hydrocarbyl, wherein the substituents in R 3 are selected from the group consisting of halogen, nitro and aryl.
A method, comprising: receiving, by a wireless device, a first downlink frame from a first access point, wherein the first downlink frame indicates a first transmission power used for transmitting the first downlink frame; receiving, by the wireless device, a second downlink frame from a second access point, wherein the second downlink frame indicates a second transmission power used for transmitting the second downlink frame; determining, based on the received first downlink frame and the second downlink frame and associated the first transmission power and the second transmission power, which one of the first access point and the second access point is closest to the wireless device; determining, based on the received first downlink frame and the second downlink frame and associated the first transmission power and the second transmission power, an uplink transmission power sufficient to reach the access point closest to the wireless device; and causing transmission of a probe request with the determined transmission power. receiving, by a wireless device, a first downlink frame from a first access point, wherein the first downlink frame indicates a first transmission power used for transmitting the first downlink frame; receiving, by the wireless device, a second downlink frame from a second access point, wherein the second downlink frame indicates a second transmission power used for transmitting the second downlink frame; determining, based on the received first downlink frame and the second downlink frame and associated the first transmission power and the second transmission power, which one of the first access point and the second access point is closest to the wireless device; determining, based on the received first downlink frame and the second downlink frame and associated the first transmission power and the second transmission power, an uplink transmission power sufficient to reach the access point closest to the wireless device; and causing transmission of a probe request with the determined transmission power.
An optical fibre comprising: - an optical waveguide comprising a glass core surrounded by a glass cladding; - a primary coating surrounding the optical waveguide; - a secondary coating, surrounding the primary coating, comprising a cured polymer material obtained by curing a curable coating composition comprising: (a) a polyester obtained by esterification of a reactant A selected from carboxylic acids, triglycerides, and mixtures thereof, having a C 16 -C 24 aliphatic chain comprising at least two double bonds spaced by one carbon atom at most, with a reactant B selected from polyols having at least 3 hydroxyl groups, the polyols being thermally stable up to 300°C; (b) an aromatic glycidyl epoxy resin; (c) an aliphatic polyether hardener containing from 8 to 64 hydroxy groups and/or from 2 to 4 epoxy groups; and (d) a secondary amine compound as curing agent. - an optical waveguide comprising a glass core surrounded by a glass cladding; - a primary coating surrounding the optical waveguide; - a secondary coating, surrounding the primary coating, comprising a cured polymer material obtained by curing a curable coating composition comprising: (a) a polyester obtained by esterification of a reactant A selected from carboxylic acids, triglycerides, and mixtures thereof, having a C 16 -C 24 aliphatic chain comprising at least two double bonds spaced by one carbon atom at most, with a reactant B selected from polyols having at least 3 hydroxyl groups, the polyols being thermally stable up to 300°C; (b) an aromatic glycidyl epoxy resin; (c) an aliphatic polyether hardener containing from 8 to 64 hydroxy groups and/or from 2 to 4 epoxy groups; and (d) a secondary amine compound as curing agent. (a) a polyester obtained by esterification of a reactant A selected from carboxylic acids, triglycerides, and mixtures thereof, having a C 16 -C 24 aliphatic chain comprising at least two double bonds spaced by one carbon atom at most, with a reactant B selected from polyols having at least 3 hydroxyl groups, the polyols being thermally stable up to 300°C; (b) an aromatic glycidyl epoxy resin; (c) an aliphatic polyether hardener containing from 8 to 64 hydroxy groups and/or from 2 to 4 epoxy groups; and (d) a secondary amine compound as curing agent.
A method for establishing a backhaul link, performed by a base station, the method comprising: broadcasting system information to cause a specified terminal, which has established a first communication link with a core network, to receive the system information to return backhaul link establishment signaling; receiving the backhaul link establishment signaling returned by the specified terminal, the backhaul link establishment signaling being configured to indicate that the specified terminal has accessed the core network and may establish a backhaul link for the base station, the backhaul link establishment signaling being a Radio Resource Control, RRC, signaling, an information element of the signaling carrying a backhaul link establishment identifier; and sending a confirmation message to the specified terminal to cause the specified terminal to establish a second communication link with the base station after receiving the backhaul link establishment signaling, the second communication link and the first communication link forming the backhaul link; wherein different time resources are configured for a communication link between the base station and any terminal in coverage of the base station and the backhaul link. broadcasting system information to cause a specified terminal, which has established a first communication link with a core network, to receive the system information to return backhaul link establishment signaling; receiving the backhaul link establishment signaling returned by the specified terminal, the backhaul link establishment signaling being configured to indicate that the specified terminal has accessed the core network and may establish a backhaul link for the base station, the backhaul link establishment signaling being a Radio Resource Control, RRC, signaling, an information element of the signaling carrying a backhaul link establishment identifier; and sending a confirmation message to the specified terminal to cause the specified terminal to establish a second communication link with the base station after receiving the backhaul link establishment signaling, the second communication link and the first communication link forming the backhaul link; wherein different time resources are configured for a communication link between the base station and any terminal in coverage of the base station and the backhaul link.
A process for producing an animal meal comprising the steps of: a) contacting an animal by-product comprising protein and fat, with hydroxytyrosol at a concentration of at least 1 ppm; b) heating at a temperature from 50 °C to 250 °C until the fat contained in the animal by-product is melted; c) separating the melted fat from the animal by-product; and d) grinding the animal by-product thereby obtaining the animal meal. a) contacting an animal by-product comprising protein and fat, with hydroxytyrosol at a concentration of at least 1 ppm; b) heating at a temperature from 50 °C to 250 °C until the fat contained in the animal by-product is melted; c) separating the melted fat from the animal by-product; and d) grinding the animal by-product thereby obtaining the animal meal.
A method, comprising: transferring a fluid sample from the gastrointestinal tract or from the reproductive tract of a subject into a first dilution chamber of a device in vivo; and combining the fluid sample and a first dilution fluid in the first dilution chamber to produce a first diluted sample, the first dilution fluid comprising a preservative, the preservative being a bacteriostatic compound. transferring a fluid sample from the gastrointestinal tract or from the reproductive tract of a subject into a first dilution chamber of a device in vivo; and combining the fluid sample and a first dilution fluid in the first dilution chamber to produce a first diluted sample, the first dilution fluid comprising a preservative, the preservative being a bacteriostatic compound.
Device comprising a layer that in turn comprises an organic semiconducting material and a polymer in form of particles, wherein said particles have a diameter of at most 2 μm, wherein the device is an organic photovoltaic device or an organic photodetector device and characterized in that the polymer is polystyrene.
A method for wireless communication at a user equipment, UE, comprising: identifying that the LTE is configured to transmit via a plurality of periodic semi-persistently scheduled, SPS, resources on a shared channel accessed in a half-duplex manner; muting transmission of a message during at least one of the SPS resources in order to monitor for transmissions from another device during the at least one SPS resource; detecting a transmission from the other device on the shared channel during the at least one SPS resource; and adjusting, based at least in part on detection of the transmission from the other device during the at least one SPS resource, transmission of the message to a different resource in order to avoid overlapping transmissions from the other device. identifying that the LTE is configured to transmit via a plurality of periodic semi-persistently scheduled, SPS, resources on a shared channel accessed in a half-duplex manner; muting transmission of a message during at least one of the SPS resources in order to monitor for transmissions from another device during the at least one SPS resource; detecting a transmission from the other device on the shared channel during the at least one SPS resource; and adjusting, based at least in part on detection of the transmission from the other device during the at least one SPS resource, transmission of the message to a different resource in order to avoid overlapping transmissions from the other device.
An intake manifold comprising: a first chamber having an upstream portion in fluid communication with a PCV line and receiving PCV gas from the PCV line, a chamber hole disposed at a downstream portion of the first chamber, the chamber hole placing the first chamber in fluid communication with an upstream portion of a second chamber; wherein the first chamber and the second chamber provide a flow path where PCV gas is required to travel down the entire length of the first chamber, travel from the first chamber to the second chamber through the chamber hole and then travel the entire length of second chamber; and wherein the second chamber has at least one port hole configured to deliver PCV gas from the second chamber into a corresponding port, characterized in that the first chamber and the second chamber are separated by a gasket disposed between the first chamber and the second chamber; the chamber hole is disposed in the gasket; and at least one vent hole (602, 604) is disposed in the gasket. a first chamber having an upstream portion in fluid communication with a PCV line and receiving PCV gas from the PCV line, a chamber hole disposed at a downstream portion of the first chamber, the chamber hole placing the first chamber in fluid communication with an upstream portion of a second chamber; wherein the first chamber and the second chamber provide a flow path where PCV gas is required to travel down the entire length of the first chamber, travel from the first chamber to the second chamber through the chamber hole and then travel the entire length of second chamber; and wherein the second chamber has at least one port hole configured to deliver PCV gas from the second chamber into a corresponding port, characterized in that the first chamber and the second chamber are separated by a gasket disposed between the first chamber and the second chamber; the chamber hole is disposed in the gasket; and at least one vent hole (602, 604) is disposed in the gasket.
Method for operating a safety system of a motor vehicle, in particular a system for mitigating the consequences of a collision in the event of an unavoidable collision, in the event of an unavoidable collision, a target trajectory of the motor vehicle which is to be achieved after the collision and is assigned to a target position which is safe with regard to secondary collisions being determined by the safety system, and at least one autonomous and/or supporting driving intervention in the form of at least one of a longitudinally guiding intervention and/or transversely guiding intervention being performed in order to achieve the target trajectory, characterised in that the target trajectory is determined taking account of an environmental model in which different stop positions in the environment of the motor vehicle are each assigned a value which describes the safety of the stop position with regard to secondary collisions, which values are already determined before the first collision.
A workpiece clamp (5; 105; 205) comprising: a) a body (10; 110; 210) with an opening (65; 165; 265) for accepting a screw for securing the body (10; 110; 210) to a fixture plate, and b) a workpiece-engaging spring edge (25; 125; 225) connected to the body (10; 110; 210), wherein the workpiece-engaging spring edge (25; 125; 225) is formed integral with the body (10; 110; 210), characterized in that c) the opening (65; 165; 265) of the body (10; 110; 210) comprises a slot, and d) the workpiece-engaging spring edge (25; 125; 225) comprises: d1) a cantilever spring, wherein the cantilever spring comprises an arm which is connected to the body (10; 110; 210) by a neck and manually pressable back towards the body, or d2) a leaf spring (145; 245), wherein the leaf spring (145; 245) comprises an arm (150; 250) which is connected to the body (10; 110; 210) by a pair of necks and manually pressable back towards the body. a) a body (10; 110; 210) with an opening (65; 165; 265) for accepting a screw for securing the body (10; 110; 210) to a fixture plate, and b) a workpiece-engaging spring edge (25; 125; 225) connected to the body (10; 110; 210), wherein the workpiece-engaging spring edge (25; 125; 225) is formed integral with the body (10; 110; 210), c) the opening (65; 165; 265) of the body (10; 110; 210) comprises a slot, and d) the workpiece-engaging spring edge (25; 125; 225) comprises: d1) a cantilever spring, wherein the cantilever spring comprises an arm which is connected to the body (10; 110; 210) by a neck and manually pressable back towards the body, or d2) a leaf spring (145; 245), wherein the leaf spring (145; 245) comprises an arm (150; 250) which is connected to the body (10; 110; 210) by a pair of necks and manually pressable back towards the body. d1) a cantilever spring, wherein the cantilever spring comprises an arm which is connected to the body (10; 110; 210) by a neck and manually pressable back towards the body, or d2) a leaf spring (145; 245), wherein the leaf spring (145; 245) comprises an arm (150; 250) which is connected to the body (10; 110; 210) by a pair of necks and manually pressable back towards the body.
A profile creation method for creating a color conversion profile for a printer (300a, 300b) by causing the printer (300a, 300b) to output a color chart including patch images having colors corresponding to combinations of values of a plurality of basic colors, the method characterized by comprising the steps of: acquiring colorimetric values of patch images in a plurality of color chart sheets outputted from at least a first printer; acquiring colorimetric values of patch images in a color chart outputted from a second printer; (b) creating a color conversion profile for the second printer, from the colorimetric values acquired at the step by using a calculation formula according to a degree of variation in a color of each patch image obtained from data of colorimetric values accumulated regarding the each patch image at the step (S106, S107); and (c) when additional color chart sheets are output from the first printer thus increasing the amount of data of the colorimetric values, creating a new color conversion profile for the second printer, from the colorimetric values acquired at the step by using a calculation formula according to the degree of the variation obtained from the data after the increase (S206, S207). acquiring colorimetric values of patch images in a plurality of color chart sheets outputted from at least a first printer; acquiring colorimetric values of patch images in a color chart outputted from a second printer; (b) creating a color conversion profile for the second printer, from the colorimetric values acquired at the step by using a calculation formula according to a degree of variation in a color of each patch image obtained from data of colorimetric values accumulated regarding the each patch image at the step (S106, S107); and (c) when additional color chart sheets are output from the first printer thus increasing the amount of data of the colorimetric values, creating a new color conversion profile for the second printer, from the colorimetric values acquired at the step by using a calculation formula according to the degree of the variation obtained from the data after the increase (S206, S207).
A recessed luminaire assembly for an opening through a member comprising: a body; a light source coupled to the body; and a first spring retention assembly coupled to the body, said first spring retention assembly comprising a first coil spring at least partially disposed within a first spring housing, said first coil spring having a first end extending through the first spring housing and coupled to the body, said first coil spring extendable from and retractable into the first spring housing, wherein the first spring housing comprises a first portion and a second portion that together form an outer wall and a first end wall and a second end wall, said outer wall comprising a slot, said first end extending from the slot; wherein the first portion comprises the first end wall and an inner wall receiver extending from the first end wall and wherein the second portion comprises the second end wall and a retainer (244A, 244B) extending from the second end wall, characterized in that the outer wall is an outer annular wall, and wherein the first end wall comprises a first O-ring channel and a first O-ring disposed therein, and the second end wall comprises a second O-ring channel having a second O-ring disposed therein. a body; a light source coupled to the body; and a first spring retention assembly coupled to the body, said first spring retention assembly comprising a first coil spring at least partially disposed within a first spring housing, said first coil spring having a first end extending through the first spring housing and coupled to the body, said first coil spring extendable from and retractable into the first spring housing, wherein the first spring housing comprises a first portion and a second portion that together form an outer wall and a first end wall and a second end wall, said outer wall comprising a slot, said first end extending from the slot; wherein the first portion comprises the first end wall and an inner wall receiver extending from the first end wall and wherein the second portion comprises the second end wall and a retainer (244A, 244B) extending from the second end wall, characterized in that the outer wall is an outer annular wall, and wherein the first end wall comprises a first O-ring channel and a first O-ring disposed therein, and the second end wall comprises a second O-ring channel having a second O-ring disposed therein.