mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for providing augmented information using a three-Dimensional, 3-D, map in a mobile device, the apparatus comprising: a camera; a display arranged to display a current image including a first object and at least one second object (435, 436) positioned in front of the first object to obstruct at least a partial region of the first object, wherein the current image is acquired in real time through the camera; and a controller arranged to: acquire a previously stored actual 3-D image matched to the first object and augmented information for the first object from the 3-D map; and produce a synthesised image in which the current image acquired by the camera in real time and said previously stored actual 3D image and the augmented information are mixed and displayed on the display, in such a manner that for the portion obstructed by the second object in the first object, the previously stored actual 3D image and for the other portions of the first object except for the obstructed portion, the current image photographed in real time by the camera is displayed. a camera; a display arranged to display a current image including a first object and at least one second object (435, 436) positioned in front of the first object to obstruct at least a partial region of the first object, wherein the current image is acquired in real time through the camera; and a controller arranged to: acquire a previously stored actual 3-D image matched to the first object and augmented information for the first object from the 3-D map; and produce a synthesised image in which the current image acquired by the camera in real time and said previously stored actual 3D image and the augmented information are mixed and displayed on the display, in such a manner that for the portion obstructed by the second object in the first object, the previously stored actual 3D image and for the other portions of the first object except for the obstructed portion, the current image photographed in real time by the camera is displayed. acquire a previously stored actual 3-D image matched to the first object and augmented information for the first object from the 3-D map; and produce a synthesised image in which the current image acquired by the camera in real time and said previously stored actual 3D image and the augmented information are mixed and displayed on the display, in such a manner that for the portion obstructed by the second object in the first object, the previously stored actual 3D image and for the other portions of the first object except for the obstructed portion, the current image photographed in real time by the camera is displayed.
A method comprising: measuring a temperature of a fluid flowing through a completion string downhole in a well; heating a resistive element of a thermal detector at a position along the completion string downhole in the well by applying power to the resistive element, wherein heat from the resistive element is transmitted to the fluid flowing by the position; determining, via the thermal detector, a flow velocity of the fluid through the completion string and multiple thermal properties of the fluid; using the determined flow velocity and the multiple thermal properties to determine phase fractions of the fluid; and controlling at least one inflow control valve of the completion string based on the determined phase fractions of the fluid. measuring a temperature of a fluid flowing through a completion string downhole in a well; heating a resistive element of a thermal detector at a position along the completion string downhole in the well by applying power to the resistive element, wherein heat from the resistive element is transmitted to the fluid flowing by the position; determining, via the thermal detector, a flow velocity of the fluid through the completion string and multiple thermal properties of the fluid; using the determined flow velocity and the multiple thermal properties to determine phase fractions of the fluid; and controlling at least one inflow control valve of the completion string based on the determined phase fractions of the fluid.
A method for estimating degradation of an electrical system component of a given type caused by an operating parameter that stresses the electrical system component for each of series of stress cycles, the method comprising: maintaining a plurality of cycle count values, each individual cycle count value corresponding to one of a plurality of non-overlapping ranges of values of the operating parameter; storing a plurality of maximum cycle values, each individual maximum cycle value corresponding to one of the plurality of non-overlapping ranges of values of the operating parameter, each individual maximum cycle value representing a maximum number of stress cycles in the corresponding range of values of the operating parameter before which a user defined percentage of the electrical system components of the given type is expected to fail; for a given stress cycle, receiving a first value representing the operating parameter for the given stress cycle; for the given stress cycle, incrementing one of the cycle count values that corresponds to the range of values of the operating parameter that includes the first value; and for the given stress cycle, computing a cumulative degradation value for the electrical system component as a sum of a plurality of ratios of the individual cycle count values divided by the corresponding maximum cycle values of the plurality of values of the operating parameter. maintaining a plurality of cycle count values, each individual cycle count value corresponding to one of a plurality of non-overlapping ranges of values of the operating parameter; storing a plurality of maximum cycle values, each individual maximum cycle value corresponding to one of the plurality of non-overlapping ranges of values of the operating parameter, each individual maximum cycle value representing a maximum number of stress cycles in the corresponding range of values of the operating parameter before which a user defined percentage of the electrical system components of the given type is expected to fail; for a given stress cycle, receiving a first value representing the operating parameter for the given stress cycle; for the given stress cycle, incrementing one of the cycle count values that corresponds to the range of values of the operating parameter that includes the first value; and for the given stress cycle, computing a cumulative degradation value for the electrical system component as a sum of a plurality of ratios of the individual cycle count values divided by the corresponding maximum cycle values of the plurality of values of the operating parameter.
A gas separation membrane module, comprising: a hollow fiber bundle having a plurality of polymer hollow fiber membranes with permselectivity; a module vessel in which the hollow fiber bundle is placed; and a thermosetting resin tube sheet fixing the plurality of hollow fiber membranes at an end portion of the hollow fiber bundle, wherein a cross section of the tube sheet includes a hollow fiber membrane embedded portion in which the hollow fiber membranes are embedded and a solid portion in which no hollow fiber membrane is embedded, the solid potion located outside the hollow fiber membrane embedded portion, and wherein a reinforcing fiber cloth is disposed within the hollow fiber membrane embedded portion so that some of the plurality of hollow fiber membranes are wound with the reinforcing fiber cloth, characterized in that the width dimension of the reinforcing fiber cloth embedded in the tube sheet, which is the dimension in the thickness direction of the tube sheet, is 50% to 90% of the thickness of the tube sheet. a hollow fiber bundle having a plurality of polymer hollow fiber membranes with permselectivity; a module vessel in which the hollow fiber bundle is placed; and a thermosetting resin tube sheet fixing the plurality of hollow fiber membranes at an end portion of the hollow fiber bundle, wherein a cross section of the tube sheet includes a hollow fiber membrane embedded portion in which the hollow fiber membranes are embedded and a solid portion in which no hollow fiber membrane is embedded, the solid potion located outside the hollow fiber membrane embedded portion, and wherein a reinforcing fiber cloth is disposed within the hollow fiber membrane embedded portion so that some of the plurality of hollow fiber membranes are wound with the reinforcing fiber cloth, characterized in that the width dimension of the reinforcing fiber cloth embedded in the tube sheet, which is the dimension in the thickness direction of the tube sheet, is 50% to 90% of the thickness of the tube sheet.
Pen having a shaft comprising a reservoir and an applicator tip for an application fluid, having the application fluid, which contains a solvent which is volatile at room temperature, and having a closing cap which is set on the shaft and which has a cavity which receives the applicator tip, wherein this contains a storage space to receive a fugitive liquid which is volatile at room temperature and a connection channel which fluidically connects the storage space to the cavity, wherein the closing cap contains a sealing element which is able to be displaced axially between a sealing position which closes the connection channel and an open position which releases the connection channel, wherein the sealing element is moveably coupled to a shaft section of the shaft which projects into the cavity of the closing cap for its movement in the opening and/or closing direction, characterised in that the sealing element comprises a wall segment, which delimits the storage space of the cavity, whilst leaving free at least one longitudinal section of the connection channel, and a carrier element which interacts with the shaft section and is facing towards the cap opening, wherein a gap is present between the closing cap and the wall segment, said gap forming at least one longitudinal section of the connection channel and wherein the gap is closed by a closing element arranged on the inner side of the closing cap in the closed position of the sealing element.
A method for setting up wavelength connection, characterized by comprising: acquiring wavelength regeneration module regeneration capability information of a wavelength division node that is a node where a wavelength cross connection is performed; calculating at least one wavelength path according to the wavelength regeneration module regeneration capability information, and selecting a wavelength regeneration module for the wavelength division node that needs a wavelength regeneration process in the wavelength path, such that requirements of multiple wavelength connections that are set up via the same wavelength division node that needs a wavelength regeneration process are comprehensively taken into account; and distributing a message containing the wavelength regeneration module selection information to the wavelength division node in the wavelength path so that the wavelength division node sets up the wavelength connection according to the wavelength regeneration module indicated in the wavelength regeneration module selection information. acquiring wavelength regeneration module regeneration capability information of a wavelength division node that is a node where a wavelength cross connection is performed; calculating at least one wavelength path according to the wavelength regeneration module regeneration capability information, and selecting a wavelength regeneration module for the wavelength division node that needs a wavelength regeneration process in the wavelength path, such that requirements of multiple wavelength connections that are set up via the same wavelength division node that needs a wavelength regeneration process are comprehensively taken into account; and distributing a message containing the wavelength regeneration module selection information to the wavelength division node in the wavelength path so that the wavelength division node sets up the wavelength connection according to the wavelength regeneration module indicated in the wavelength regeneration module selection information.
Coupling socket (10; 110; 210) of a ball coupling adapted for coupling with a coupling ball (18; 218) and thus having a concave coupling portion (20; 120; 220) which in the coupled state of the coupling socket (10; 110; 210) is located opposite a convex counter-coupling portion (22; 222) of the coupling ball (18; 218) and contacts the latter in a contact area (24a, 24b), wherein at least one lubrication region (30; 130; 230) is provided in the coupling portion (20; 120; 220) of the coupling socket (10; 110; 210), adapted for receiving a lubricant (26; 126; 226), wherein a solid body lubricant component (26; 126; 226) is received in the at least one lubrication region (30; 130; 230), which at least in one reference state with a temperature of 20 degrees Celsius, an air pressure of 1 bar and mechanically loaded by its own weight only, is present as a solid body, characterized in that the solid body lubricant component is carried at the coupling socket (10; 110; 210) by form closure, said coupling socket (10; 110; 210) comprising an insertion opening (16; 116; 216) into which the coupling ball (18; 218) is inserted along an insertion path during coupling, a stepped portion (32; 132; 232), preferably a stepped portion (32; 132; 232) passing around the insertion path, being formed in the coupling socket (10; 110; 210) behind the insertion opening (16; 116; 216) in the insertion direction, engaged from behind by said solid body lubricant component (26; 126; 226).
Device comprising a supply line, a measurement unit, and comprising two machine parts that are able to be moved relative to one another and that are connected to one another by means of the supply line, wherein the supply line has a sensor line that is connected to the measurement unit, characterized in that the sensor line is designed to measure the torsion of the supply line using the measurement unit, in that the measurement unit is designed in such a way that an electrical parameter of the sensor line is measured and that the parameter is used to infer the torsion, in that the sensor line has two conductors that are each in the form of a braided conductor and are braided in mutually opposing lay directions, in that the measurement unit is designed in such a way that a signal attenuation of a respective one of the conductors is measured as a parameter, in that the measurement unit is designed in such a way that the two signal attenuations are compared with one another by means of an operational amplifier that outputs a difference as a voltage value, and the torsion is determined depending on a difference between the two signal attenuations by means of a table on the basis of the difference. wherein the supply line has a sensor line that is connected to the measurement unit, characterized in that the sensor line is designed to measure the torsion of the supply line using the measurement unit, in that the measurement unit is designed in such a way that an electrical parameter of the sensor line is measured and that the parameter is used to infer the torsion, in that the sensor line has two conductors that are each in the form of a braided conductor and are braided in mutually opposing lay directions, in that the measurement unit is designed in such a way that a signal attenuation of a respective one of the conductors is measured as a parameter, in that the measurement unit is designed in such a way that the two signal attenuations are compared with one another by means of an operational amplifier that outputs a difference as a voltage value, and the torsion is determined depending on a difference between the two signal attenuations by means of a table on the basis of the difference.
An outboard motor comprising: an engine that includes a V-shaped cylinder body disposed along a V-shaped line defined by a first plane passing through centerlines of a plurality of first cylinders and a second plane passing through centerlines of a plurality of second cylinders, and two cylinder heads defining a plurality of combustion chambers; an engine support member that supports the cylinder body of the engine; and an exhaust passage configured to discharge exhaust gases generated in the engine into water from an exhaust opening, wherein the exhaust passage includes a plurality of first branch passages that are connected to the plurality of first cylinders, respectively, and disposed inside the V-shaped line, a plurality of second branch passages that are connected to the plurality of second cylinders, respectively, and disposed inside the V-shaped line, a first upstream collecting passage connected to each of the plurality of first branch passages, a second upstream collecting passage connected to each of the plurality of second branch passages, and a downstream collecting passage which includes an upstream end connected to each of the first upstream collecting passage and the second upstream collecting passage and disposed higher than the engine support member, and a downstream end connected to and positioned at the exhaust opening that is provided in a propeller which is configured to be disposed in water, characterized in that the downstream collecting passage from the upstream end to the downstream end is disposed outside the cylinder heads. an engine that includes a V-shaped cylinder body disposed along a V-shaped line defined by a first plane passing through centerlines of a plurality of first cylinders and a second plane passing through centerlines of a plurality of second cylinders, and two cylinder heads defining a plurality of combustion chambers; an engine support member that supports the cylinder body of the engine; and an exhaust passage configured to discharge exhaust gases generated in the engine into water from an exhaust opening, wherein the exhaust passage includes a plurality of first branch passages that are connected to the plurality of first cylinders, respectively, and disposed inside the V-shaped line, a plurality of second branch passages that are connected to the plurality of second cylinders, respectively, and disposed inside the V-shaped line, a first upstream collecting passage connected to each of the plurality of first branch passages, a second upstream collecting passage connected to each of the plurality of second branch passages, and a downstream collecting passage which includes an upstream end connected to each of the first upstream collecting passage and the second upstream collecting passage and disposed higher than the engine support member, and a downstream end connected to and positioned at the exhaust opening that is provided in a propeller which is configured to be disposed in water, characterized in that the downstream collecting passage from the upstream end to the downstream end is disposed outside the cylinder heads.
A combination for use in treating a solid tumor or hematologic malignancy in a subject, wherein the combination comprises: (a) a modified stem cell for injection, wherein: the modified stem cell comprises a cytotoxic payload; and the cytotoxic payload comprises a lytic virus; and (b) an agent that activates a T-cell response within the subject, wherein the agent comprises a blocking antibody against a negative co-stimulatory molecule selected from among CTLA-1, CTLA-4, PD-1, PD-L1, TIM-3, BTLA, VISTA and LAG-3, or comprises an agonist antibody against an activating co-stimulatory molecule selected from among CD28, OX40, GITR, CD137, CD27 and HVEM. (a) a modified stem cell for injection, wherein: the modified stem cell comprises a cytotoxic payload; and the cytotoxic payload comprises a lytic virus; and the modified stem cell comprises a cytotoxic payload; and the cytotoxic payload comprises a lytic virus; and (b) an agent that activates a T-cell response within the subject, wherein the agent comprises a blocking antibody against a negative co-stimulatory molecule selected from among CTLA-1, CTLA-4, PD-1, PD-L1, TIM-3, BTLA, VISTA and LAG-3, or comprises an agonist antibody against an activating co-stimulatory molecule selected from among CD28, OX40, GITR, CD137, CD27 and HVEM.
A vehicle traveling control apparatus comprising: cruise control means (10, 30, 40) for executing a cruise control for keeping an own vehicle traveling at a constant speed in accordance with a target speed without an accelerator pedal operation by a driver; an operating unit which is operated by the driver to increase or decrease the target speed to an arbitrary value; speed limit acquisition means (20, 21, 22) for acquiring a speed limit of a road on which the own vehicle travels; display means (50, 51) for displaying the target speed and the speed limit on a display device; target speed setting means for performing a first function to increase or decrease the target speed by an amount corresponding to an operation of the operating unit, and a second function to set the target speed to the speed limit by an operation of the operating unit, wherein the target speed setting means is configured to set the target speed through the second function in place of the first function when the operating unit is operated toward a side bringing the target speed closer to the speed limit in a situation in which the speed limit and the target speed are different from each other; speed deviation acquisition means for acquiring a speed deviation which is a magnitude of a deviation between the speed limit and the target speed; and prohibition means for prohibiting the target speed setting means from setting the target speed through the second function when the speed deviation is equal to or smaller than a predetermined threshold which is larger than zero. cruise control means (10, 30, 40) for executing a cruise control for keeping an own vehicle traveling at a constant speed in accordance with a target speed without an accelerator pedal operation by a driver; an operating unit which is operated by the driver to increase or decrease the target speed to an arbitrary value; speed limit acquisition means (20, 21, 22) for acquiring a speed limit of a road on which the own vehicle travels; display means (50, 51) for displaying the target speed and the speed limit on a display device; target speed setting means for performing a first function to increase or decrease the target speed by an amount corresponding to an operation of the operating unit, and a second function to set the target speed to the speed limit by an operation of the operating unit, wherein the target speed setting means is configured to set the target speed through the second function in place of the first function when the operating unit is operated toward a side bringing the target speed closer to the speed limit in a situation in which the speed limit and the target speed are different from each other; speed deviation acquisition means for acquiring a speed deviation which is a magnitude of a deviation between the speed limit and the target speed; and prohibition means for prohibiting the target speed setting means from setting the target speed through the second function when the speed deviation is equal to or smaller than a predetermined threshold which is larger than zero.