mhurhangee/ep-ind-claims huggingface dataset:
An aerial refueling assembly, comprising: a fuel line and a drogue assembly attached to the fuel line; a pressure transducer; a processor coupled to the pressure transducer; and one or more light sources coupled to the processor, wherein the pressure transducer is configured to sense a fuel pressure inside the aerial refueling assembly and to provide a signal that is indicative of the sensed fuel pressure inside the aerial refueling assembly, wherein the processor is configured to receive the signal and to cause the one or more light sources to flash in a manner that relates to the sensed fuel pressure, characterized in that said one or more light sources are infrared light sources disposed on the drogue assembly. a fuel line and a drogue assembly attached to the fuel line; a pressure transducer; a processor coupled to the pressure transducer; and one or more light sources coupled to the processor, wherein the pressure transducer is configured to sense a fuel pressure inside the aerial refueling assembly and to provide a signal that is indicative of the sensed fuel pressure inside the aerial refueling assembly, wherein the processor is configured to receive the signal and to cause the one or more light sources to flash in a manner that relates to the sensed fuel pressure, characterized in that said one or more light sources are infrared light sources disposed on the drogue assembly.
An in vitro method for the determination of the potential toxicity or side-effects of a test compound after its administration in a patient, comprising the following steps of: a) obtaining a biological sample containing mammal cells wherein said mammal cells are cell lines of human origin which exhibit a regular and constitutive expression of the editing enzymes ADAR1a, ADAR1b and ADAR2 and of the serotonin 2C receptor (5HTR2C); b) contacting said mammals cells with the compound to be tested; c) determining in the same cellular extract: - the editing profile giving the mean proportion of each identified isoform of the 5-HT2CR mRNA measured in the cellular RNA extract, and - the quantitative expression of said editing enzymes ADAR1a, ADAR1b and ADAR2; d) comparing the results obtained in step c) between said treated cells with the compound to be tested and non-treated control cells, wherein in step a) said mammal cells are from the human neuroblastoma SH-SY5Y cell line a) obtaining a biological sample containing mammal cells wherein said mammal cells are cell lines of human origin which exhibit a regular and constitutive expression of the editing enzymes ADAR1a, ADAR1b and ADAR2 and of the serotonin 2C receptor (5HTR2C); b) contacting said mammals cells with the compound to be tested; c) determining in the same cellular extract: - the editing profile giving the mean proportion of each identified isoform of the 5-HT2CR mRNA measured in the cellular RNA extract, and - the quantitative expression of said editing enzymes ADAR1a, ADAR1b and ADAR2; - the editing profile giving the mean proportion of each identified isoform of the 5-HT2CR mRNA measured in the cellular RNA extract, and - the quantitative expression of said editing enzymes ADAR1a, ADAR1b and ADAR2; d) comparing the results obtained in step c) between said treated cells with the compound to be tested and non-treated control cells, wherein in step a) said mammal cells are from the human neuroblastoma SH-SY5Y cell line
A method for producing a positive electrode active material for a lithium ion secondary battery, the positive electrode active material consisting of a lithium metal composite oxide, the method comprising the following steps and: mixing a dispersant (a component A) being a copolymer comprising a constitutional unit a1 derived from (meth)acrylic acid and a constitutional unit a2 derived from unsaturated dibasic acid or an anhydride thereof, a salt (a component B) of at least one metallic element selected from nickel, cobalt, manganese, and aluminium, an alkali (a component C), and an aqueous medium to precipitate, as a coprecipitate, a metal hydroxide comprising the at least one metallic element selected from nickel, cobalt, manganese, and aluminium; and baking a mixture comprising the metal hydroxide obtained in the step and a lithium compound to obtain the lithium metal composite oxide. mixing a dispersant (a component A) being a copolymer comprising a constitutional unit a1 derived from (meth)acrylic acid and a constitutional unit a2 derived from unsaturated dibasic acid or an anhydride thereof, a salt (a component B) of at least one metallic element selected from nickel, cobalt, manganese, and aluminium, an alkali (a component C), and an aqueous medium to precipitate, as a coprecipitate, a metal hydroxide comprising the at least one metallic element selected from nickel, cobalt, manganese, and aluminium; and baking a mixture comprising the metal hydroxide obtained in the step and a lithium compound to obtain the lithium metal composite oxide.
A method for connecting a line connector to a fluid-carrying motor vehicle pipeline, the pipeline consisting of plastic or substantially of plastic, one pipeline end of the pipeline being introduced into a receiving shaft of the line connector, which runs around the circumference of the line connector, the wall or walls (8, 9) of the receiving shaft preferably consisting at least partially of plastic, at least one conductive element being arranged in the receiving shaft, the conductive element being heated by electromagnetic induction, and at least plastic regions of the pipeline end melting as a result of said heating, so that the pipeline end is fused to the wall or walls (8, 9) of the receiving shaft, the outer wall and the inner wall of the pipeline end bearing directly against the walls (8, 9) of the receiving shaft, the conductive element being annular and having a circular cross-section, characterised in that the inner diameter of the annular conductive element corresponds to the inner diameter of the pipeline end, and the outer diameter of the annular conductive element corresponds to the outer diameter of the pipeline end.
A dial for a timepiece, the dial comprising a base plate provided with at least one three-dimensional decoration offset away from the base plate, the decoration comprising a lower surface arranged on the side of the base plate and an upper surface opposite the lower surface, in which the decoration is mounted on the base plate by an assembly of elements comprising: - A fixing screw screwed into a threaded hole arranged in the base plate, - A support bar comprising a proximal end secured to the base plate by the fixing screw and a distal end attached to a first point of the lower surface of the decoration, the projection of the first point in the plane of the base plate being away from the fixing screw, - A support foot having a proximal end held in a fixed position in the plane of the base plate and a distal end attached at a second point of the lower surface of the decoration, the projection of the second point in the plane of the base plate being away from the fixing screw and from the projection of the first point, - A spacer which forms a lateral connection between the fixing screw and the support foot, the spacer being secured with the support bar to the base plate by the fixing screw. - A fixing screw screwed into a threaded hole arranged in the base plate, - A support bar comprising a proximal end secured to the base plate by the fixing screw and a distal end attached to a first point of the lower surface of the decoration, the projection of the first point in the plane of the base plate being away from the fixing screw, - A support foot having a proximal end held in a fixed position in the plane of the base plate and a distal end attached at a second point of the lower surface of the decoration, the projection of the second point in the plane of the base plate being away from the fixing screw and from the projection of the first point, - A spacer which forms a lateral connection between the fixing screw and the support foot, the spacer being secured with the support bar to the base plate by the fixing screw.
Method for inferring a health status of call devices in an elevator arrangement, the method comprising: determining elevator usage information by detecting at least one elevator event out of - changing of an opening status of an elevator door, - interrupting of a light curtain at an entry to an elevator cabin, and - changing of a weight of the elevator cabin; determining elevator travel information concerning at least one of a starting floor and a target floor for an elevator cabin motion taking place one of antecedent to the detected elevator event and subsequent to the detected elevator event; and inferring the health status of a monitored one of the call devices based on the elevator usage information and on the elevator travel information. determining elevator usage information by detecting at least one elevator event out of - changing of an opening status of an elevator door, - interrupting of a light curtain at an entry to an elevator cabin, and - changing of a weight of the elevator cabin; - changing of an opening status of an elevator door, - interrupting of a light curtain at an entry to an elevator cabin, and - changing of a weight of the elevator cabin; determining elevator travel information concerning at least one of a starting floor and a target floor for an elevator cabin motion taking place one of antecedent to the detected elevator event and subsequent to the detected elevator event; and inferring the health status of a monitored one of the call devices based on the elevator usage information and on the elevator travel information.
A method of identifying a subject as eligible for treatment of its cancer with a combination of a hypoxia activated prodrug TH-302 or TH-281 or a pharmaceutically acceptable salt thereof; in combination with a chemotherapeutic agent that is a nucleoside analog; comprising: (a) determining whether the subject has the following characteristics: (i) the subject has an ECOG performance status of at least 2, 3, or 4; and (ii) the subject has a circulating albumin level below 3.5 g/dL; (b) identifying the subject as eligible for treatment of their cancer with said prodrug and chemotherapeutic agent if they are determined to have the listed characteristics in step (a). (a) determining whether the subject has the following characteristics: (i) the subject has an ECOG performance status of at least 2, 3, or 4; and (ii) the subject has a circulating albumin level below 3.5 g/dL; (i) the subject has an ECOG performance status of at least 2, 3, or 4; and (ii) the subject has a circulating albumin level below 3.5 g/dL; (b) identifying the subject as eligible for treatment of their cancer with said prodrug and chemotherapeutic agent if they are determined to have the listed characteristics in step (a).
A fog machine with continuous water supply, comprising a main body provided with a fog outlet, a circuit board provided inside the main body, a water tank provided at a bottom of the main body, a fog generator provided in the water tank and electrically connected with the circuit board, a water reservoir provided above the water tank, a water filling port provided at a bottom of the water reservoir, and a water filling switch provided at the water filling port and controlled by a water level of the water tank, wherein space above the water tank is in communication with the fog outlet, characterized in that the water filling switch comprises a floating element provided in the water tank and capable of moving up and down along with the water level in the water tank, and a blocking element fixedly connected with a top of the floating element and capable of extending into and blocking the water filling port.
Filter device, in particular a filter cartridge, for water filters in aircraft, comprising a housing, wherein the housing comprises an inlet region for water to be filtered and an outlet region for filtered water, wherein the housing comprises a cover and a base, wherein the housing is formed substantially cylindrical in shape with a lateral surface and a first end face and a second end face, wherein the inlet region is arranged in the lateral surface of the housing, wherein a first filter unit and a second filter unit are arranged in the housing, wherein the first filter unit comprises an activated carbon filter and wherein the second filter unit comprises a microfilter, wherein the outlet region is arranged in the base, wherein the cover and the base are arranged on the first and second end faces (20, 21) and are bonded to the first filter unit, wherein the base has a cylindrical receiving region in which the second filter unit is arranged, wherein sealing rings are arranged between the second filter unit and the receiving region, characterized in that the inlet region has a grid structure through which water can enter the filter device, and in that the grid structure consists of a honeycomb-shaped structure comprising honeycombs in order to increase stability, wherein pores or passages or passage openings are arranged within the individual honeycombs.
A method at a computing device for finding an association between data objects in a vehicle, the method comprising: assigning, to each of a plurality of components of the vehicle, a respective data object, each respective data object having a location in a grid structure based on a position of a corresponding component (220, 230, 232) in the vehicle, wherein the grid structure defines locations (2,1,1; 2,2,1; 2,3,1) within the vehicle; selecting a coordinate location from the grid structure; finding whether a data object having a data object type is located at the coordinate location; when the data object is located at the coordinate location, associating the data object with other data objects at the coordinate location; when no data object is located at the coordinate location, determining through an explicit association (222, 224) that a second data object at a second location services the coordinate location and associating the second data object with the coordinate location; obtaining an associated data object using an association of one of the data objects in the vehicle and the second data object; and querying the associated data object. assigning, to each of a plurality of components of the vehicle, a respective data object, each respective data object having a location in a grid structure based on a position of a corresponding component (220, 230, 232) in the vehicle, wherein the grid structure defines locations (2,1,1; 2,2,1; 2,3,1) within the vehicle; selecting a coordinate location from the grid structure; finding whether a data object having a data object type is located at the coordinate location; when the data object is located at the coordinate location, associating the data object with other data objects at the coordinate location; when no data object is located at the coordinate location, determining through an explicit association (222, 224) that a second data object at a second location services the coordinate location and associating the second data object with the coordinate location; obtaining an associated data object using an association of one of the data objects in the vehicle and the second data object; and querying the associated data object. when the data object is located at the coordinate location, associating the data object with other data objects at the coordinate location; when no data object is located at the coordinate location, determining through an explicit association (222, 224) that a second data object at a second location services the coordinate location and associating the second data object with the coordinate location; obtaining an associated data object using an association of one of the data objects in the vehicle and the second data object; and querying the associated data object. determining through an explicit association (222, 224) that a second data object at a second location services the coordinate location and associating the second data object with the coordinate location; obtaining an associated data object using an association of one of the data objects in the vehicle and the second data object; and querying the associated data object.
Inkjet printing apparatus (14, 36) comprising an inkjet print head arranged to be moveable in a direction of movement along a guiding assembly, the guiding assembly comprising a. a support structure, the support structure comprising a support beam having a support surface extending in a horizontal plane and a mounting surface in a vertical plane, the vertical plane being substantially perpendicular to the horizontal plane; b. a strip mounted on the mounting surface of the support beam and providing a guiding surface, the strip being substantially rigid and straight in a first direction substantially perpendicular to the direction of movement, the first direction being in the vertical plane, and mounted in such way that a straightness in the direction of movement is provided; and c. an air bearing system operatively coupled to the strip; wherein the strip extends in a vertical plane, the vertical plane being substantially perpendicular to the direction of movement and being substantially parallel to the first direction; wherein the print head is supported on the support surface; and wherein the air bearing system is configured to control a horizontal position of the inkjet print head by guiding movement of the print head in the direction of movement along the guiding surface provided by the strip. a. a support structure, the support structure comprising a support beam having a support surface extending in a horizontal plane and a mounting surface in a vertical plane, the vertical plane being substantially perpendicular to the horizontal plane; b. a strip mounted on the mounting surface of the support beam and providing a guiding surface, the strip being substantially rigid and straight in a first direction substantially perpendicular to the direction of movement, the first direction being in the vertical plane, and mounted in such way that a straightness in the direction of movement is provided; and c. an air bearing system operatively coupled to the strip; wherein the strip extends in a vertical plane, the vertical plane being substantially perpendicular to the direction of movement and being substantially parallel to the first direction; wherein the print head is supported on the support surface; and wherein the air bearing system is configured to control a horizontal position of the inkjet print head by guiding movement of the print head in the direction of movement along the guiding surface provided by the strip. wherein the strip extends in a vertical plane, the vertical plane being substantially perpendicular to the direction of movement and being substantially parallel to the first direction; wherein the print head is supported on the support surface; and wherein the air bearing system is configured to control a horizontal position of the inkjet print head by guiding movement of the print head in the direction of movement along the guiding surface provided by the strip.
Frame system for a door comprising a metal frame with a latch opening - formed in a front face of the metal frame - and comprising a latching device - fastened in an interior of the metal frame when the frame system is in a mounted state - for a latch of the door which engages into the latch opening from front to back, wherein, when the frame system is in the mounted state, the metal frame has a width extending from front to back in the X-direction, i.e. starting from the front face, a depth extending in the Y-direction and a height extending in the Z-direction, and wherein the latching device comprises a support and a latching element which can be displaced parallel to the Y-direction and fixed on the support when the frame system is in the mounted state, and wherein the metal frame comprises a protective box in the region of the latch opening, which protective box surrounds the metal frame in the region of the latch opening in such a way that the interior of the metal frame is inaccessible from the back in the region of the latch opening, wherein the latching device is formed in such a way that the latching device can be mounted on the metal frame by means of the support only from the front, characterised in that a width of the latching device extending in the Y-direction is such that the initially separate latching device can be inserted with clearance into the interior of the metal frame from the front through the latch opening together with the support and the latching element fastened to the support by means of fastening screws.
A display apparatus comprising: a plurality of substrates; a plurality of light-emitting devices mounted on the plurality of substrates; a plurality of transparent resins surrounding upper surfaces and side surfaces of the plurality of light-emitting devices, the plurality of transparent resins not covering lower surfaces of the light emitting devices; a frame (21, 22) supporting the plurality of substrates; and an opaque molding layer that is disposed on the plurality of substrates between the plurality of transparent resins and covers partial surfaces of the plurality of transparent resins, wherein the opaque molding layer covers a portion of a top surface of each of the plurality of transparent resins, and does not cover areas of the plurality of transparent resins corresponding to light-emitting surfaces of the plurality of light-emitting devices, wherein the light-emitting surfaces are the upper surfaces of the light-emitting devices. a plurality of substrates; a plurality of light-emitting devices mounted on the plurality of substrates; a plurality of transparent resins surrounding upper surfaces and side surfaces of the plurality of light-emitting devices, the plurality of transparent resins not covering lower surfaces of the light emitting devices; a frame (21, 22) supporting the plurality of substrates; and an opaque molding layer that is disposed on the plurality of substrates between the plurality of transparent resins and covers partial surfaces of the plurality of transparent resins, wherein the opaque molding layer covers a portion of a top surface of each of the plurality of transparent resins, and does not cover areas of the plurality of transparent resins corresponding to light-emitting surfaces of the plurality of light-emitting devices, wherein the light-emitting surfaces are the upper surfaces of the light-emitting devices.