mhurhangee/patent-ind-claim-en huggingface dataset:
An in vitro method for diagnosing acute myocarditis in a human subject, wherein the method comprises using, as an indicator, the expression levels, obtained from a biological sample isolated from the human subject selected from the list consisting of blood, serum or plasma, of at least miR-721 and obtaining a result of the method by comparing the expression levels of at least said miRNA with a reference value or with the expression levels of a control, wherein an increased expression of miR-721 is indicative acute myocarditis.
A device for testing the integrity of a closure system of a container , said container having a top portion (6.1) comprising a main opening (6.2) and a bottom portion (6.3), wherein the main opening (6.2) is closed by the closure system , said device comprising (a) a casing having a wall forming a chamber into which at least the top portion (6.1) of the container is insertable; b) sealing means adapted to seal at least a portion of the chamber against the container if the container or the top portion (6.1) thereof is inserted; the sealing means divide the device and the chamber into an upstream portion, which is above the sealing means and where the top portion (6.1) is located, and into a downstream potion, which is below the sealing means and where the bottom portion (6.3) is located; (c) an outlet in the wall of the casing of the upstream portion of the chamber for allowing the efflux of a gas from the upstream portion of the chamber ; wherein the device comprises positioning means for preventing contact between the top end of the closure system and the top part of the wall of the device when the top portion (6.1) of the container is inserted into the chamber of the device ; characterized in that said positioning means and sealing means are two separate means and the positioning means are located in the upstream portion of the chamber . (a) a casing having a wall forming a chamber into which at least the top portion (6.1) of the container is insertable; b) sealing means adapted to seal at least a portion of the chamber against the container if the container or the top portion (6.1) thereof is inserted; the sealing means divide the device and the chamber into an upstream portion, which is above the sealing means and where the top portion (6.1) is located, and into a downstream potion, which is below the sealing means and where the bottom portion (6.3) is located; (c) an outlet in the wall of the casing of the upstream portion of the chamber for allowing the efflux of a gas from the upstream portion of the chamber ;
A vector comprising a nucleic acid expression cassette comprising a liver-specific regulatory element, a promoter, a minute virus of mice (MVM) intron, a codon-optimized transgene, and a transcriptional termination signal, wherein said regulatory element, said promoter, said intron, said codon-optimized transgene and said transcription termination signal are operably linked, wherein said liver-specific regulatory element comprises the sequence of SEQ ID NO:8, or a sequence that is at least 95% identical to said sequence wherein said codon-optimized transgene encodes coagulation factor VIII (FVIII) or coagulation factor IX (FIX) and wherein said vector is an adeno-associated viral (AAV) vector.
A wearable computing device , comprising: an outer covering defining an outer-most top surface and an outer perimeter ; an internal volume defined, at least in part, by an inner surface of the outer covering ; an electronic display and an electronic display module connector arranged within the internal volume ; at least one biometric sensor electrode positioned on the outer-most top surface of the outer covering and wrapping around one or more side edges of the outer covering to the internal volume ; a printed circuit board arranged within the internal volume ; and a conductive component electrically connecting the at least one biometric sensor electrode to the printed circuit board through the electronic display module connector. an outer covering defining an outer-most top surface and an outer perimeter ; an internal volume defined, at least in part, by an inner surface of the outer covering ; an electronic display and an electronic display module connector arranged within the internal volume ; at least one biometric sensor electrode positioned on the outer-most top surface of the outer covering and wrapping around one or more side edges of the outer covering to the internal volume ; a printed circuit board arranged within the internal volume ; and a conductive component electrically connecting the at least one biometric sensor electrode to the printed circuit board through the electronic display module connector.
Charge pressure generator of an internal combustion engine, having a bearing unit for a shaft , wherein the shaft is mounted by means of at least one first rolling bearing and at least one second rolling bearing , wherein each rolling bearing has an inner ring and an outer ring , wherein an annular space is formed between the rings and wherein rolling bodies are arranged in the annular space , wherein, in the annular space , there is arranged at least one volume element which at least partially fills the annular space in an axial region, characterized in that the two inner rings of the two rolling bearings are formed as a single piece with one another, wherein the two outer rings are formed as respectively separate rings, wherein, between the outer rings , there is arranged an intermediate element for generating preload in the bearing unit, wherein the intermediate element together with the outer rings forms a flush outer cylindrical surface, and wherein the outer rings are connected in positively locking fashion by means of the intermediate element and/or the volume element.
A liquid dispensing shaving razor comprising a personal care bottle , the personal care bottle comprising: a fluid reservoir defining a chamber for holding a fluid; a fluid port at a proximal end of the fluid reservoir; and a gripping sleeve mounted to the fluid reservoir, the gripping sleeve having a locking tab configured to engage a handle body of the liquid dispensing shaving razor, wherein the handle body defines an opening dimensioned to receive the locking tab , the opening being positioned on an outer surface of the handle body . a fluid reservoir defining a chamber for holding a fluid; a fluid port at a proximal end of the fluid reservoir; and a gripping sleeve mounted to the fluid reservoir, the gripping sleeve having a locking tab configured to engage a handle body of the liquid dispensing shaving razor, wherein the handle body defines an opening dimensioned to receive the locking tab , the opening being positioned on an outer surface of the handle body .
A system for paint recycling comprising: a pump configured to move a volume of paint to a first container , characterized in that the first container is configured for determining the mass of the volume of paint; and a controller , wherein the controller is configured to determine an amount of at least one additive to include in the volume of paint based on the volume and determined mass of the paint. a pump configured to move a volume of paint to a first container , characterized in that the first container is configured for determining the mass of the volume of paint; and a controller , wherein the controller is configured to determine an amount of at least one additive to include in the volume of paint based on the volume and determined mass of the paint.
Arrangement comprising a housing and a component which is secured in the housing by a retaining ring , the retaining ring serving to secure the component , comprising a ring segment which has an outer circumference for securing the retaining ring in the axial direction (A) and a recess extending along a circumferential direction (U) of the ring segment , and a closure element for releasably closing the recess , the ring segment forming a contact surface , to fix the component in the axial direction (A), and wherein the retaining ring has a locking device for locking the closure element in the recess , which is concealed at least towards a side of the retaining ring facing away from the contact surface , characterized in that the component is a shift valve or a cover of a strut support or head bearing and the housing is part of an air spring of a commercial or passenger motor vehicle.
A method of characterizing a preparation of viral particles comprising the steps of: a) providing a preparation of viral particles, wherein the viral particles are adeno-associated virus (AAV) particles; b) subjecting the preparation to interferometric scattering mass spectrometry (ISCAMS), in an interferometric scattering microscope, to generate mass distribution data for the viral particles; c) determining the levels of empty capsids and capsids comprising a genome among the viral particles from the mass distribution data. a) providing a preparation of viral particles, wherein the viral particles are adeno-associated virus (AAV) particles; b) subjecting the preparation to interferometric scattering mass spectrometry (ISCAMS), in an interferometric scattering microscope, to generate mass distribution data for the viral particles; c) determining the levels of empty capsids and capsids comprising a genome among the viral particles from the mass distribution data.
Vehicle of the motor vehicle type, comprising a ventilation device arranged in a structural surround of at least one glazed element, the vehicle comprising a bodyshell structure to which the structural surround is attached, the bodyshell structure comprising roof side rails extending in the continuation of the windscreen side uprights , said roof side rails being mutually connected to one another via a windscreen top rail and via a rear parcel shelf , the structural surround being of hollow cross section, characterized in that the structural surround is in communication with the ventilation device so that air blown near the glazed element is able to circulate through at least one air distribution opening produced on the structural surround , and in that the structural surround has a calibrated cross section in order to ensure resistance to the deformation of the vehicle and comprises longitudinal portions , each produced in a single piece, which are mutually connected to one another by at least transverse beams, for example by at least two crossmembers.
A method of manufacturing a pre-assembled bulkhead unit for a wind turbine blade , the wind turbine blade extends in a longitudinal direction from a blade root to a tip end and in a chordwise direction from a leading edge to a trailing edge , wherein the method comprises the step of: - manufacturing a bulkhead , wherein the bulkhead , when installed, extends in a radial direction and has at least a first side, a second side, and an outer circumference, the first and second sides face in opposite longitudinal directions and the outer circumference is arranged in a radial plane, wherein the outer dimensions of the bulkhead substantially corresponds to the inner dimensions of a blade root section of a wind turbine blade , characterised in that the bulkhead comprises at least one bulkhead part , wherein said at least one bulkhead part is manufactured by rotational moulding or vacuum forming including forming a predetermined set of openings in the bulkhead part, wherein after manufacturing by rotational moulding or vacuum forming, one or more hatches, ventilation tubes, lightning down conductors, sensors, reference markings, deicing elements or air guiding elements are pre-installed or pre-mounted on the bulkhead using the predetermined set of openings to form the pre-assembled bulkhead unit. - manufacturing a bulkhead , wherein the bulkhead , when installed, extends in a radial direction and has at least a first side, a second side, and an outer circumference, the first and second sides face in opposite longitudinal directions and the outer circumference is arranged in a radial plane, wherein the outer dimensions of the bulkhead substantially corresponds to the inner dimensions of a blade root section of a wind turbine blade , characterised in that the bulkhead comprises at least one bulkhead part , wherein said at least one bulkhead part is manufactured by rotational moulding or vacuum forming including forming a predetermined set of openings in the bulkhead part, wherein after manufacturing by rotational moulding or vacuum forming, one or more hatches, ventilation tubes, lightning down conductors, sensors, reference markings, deicing elements or air guiding elements are pre-installed or pre-mounted on the bulkhead using the predetermined set of openings to form the pre-assembled bulkhead unit.
An input sensing unit being a touch input sensing unit with a display or a fingerprint sensing unit with a display, comprising: a first metal pattern layer (MPL1) comprising a plurality of first conductive lines extending in a first direction the first metal pattern layer including the gate lines; a first insulating layer (IL1) disposed on the first metal pattern layer (MPL1); a second metal pattern layer (MPL2) positioned above the first insulating layer (IL1) and comprising a plurality of second conductive lines extending in a second direction intersecting the first direction the second metal pattern layer including the data lines, a second insulating layer (IL2) disposed on the second metal pattern layer (MPL2); a sensing electrode (SE) disposed on the second insulating layer (IL2) and electrically connected to the second metal pattern layer (MPL2) through a contact hole (H3) defined in the second insulating layer (IL2); and wherein an anti-reflection pattern layer (RP1, RP2) is disposed on the first and second metal pattern layers (MPL1, MPL2) to overlap the first and second metal pattern layers (MPL1, MPL2) along a direction orthogonal to an upper surface of the anti-reflection pattern layer (RP1, RP2), wherein the anti-reflection pattern layer (RP1, RP2) comprises a metal oxide having an empirical formula of Mo a X b O c , and the empirical formula expresses a ratio of atoms in the metal oxide, and a, b, and c represent percentages of molybdenum atoms, X atoms, and oxygen atoms, where a , b and c are rational numbers greater than zero, wherein a:c=1: (0,1 to 10), the sum of a, b, and c is one, and X includes at least one element selected from tantalum (Ta), vanadium (V), niobium (Nb), zirconium (Zr), tungsten (W), hafnium (Hf), titanium (Ti), or rhenium (Re), wherein the proportion of X atoms in the metal oxide is from 1 % to 7 %.
Folding frame for a child's pushchair, comprising a lower portion carrying the front wheel or wheels and the rear wheels and an upper portion that has means for receiving a seat portion and a handlebar , the frame being mobile between at least one unfolded position and at least one folded position, said handlebar being mobile between at least one pushing position and a folded position, comprising means for controlling the folding of said handlebar , providing a passing of said handlebar from said at least one pushing position to said folded position, characterised in that said means for controlling are controlled by the passing from one of said unfolded positions of said frame to one of said folded positions.
A method of communicating barcode information using sound wave communication comprising steps of: detecting a mobile device being brought into physical proximity to a communication bridge device , the bridge device being in a fixed location relative to the mobile device ; commencing two-way sound wave communication between the mobile device and the bridge device upon detection of the mobile device by the bridge device ; receiving barcode information through a microphone of the bridge device as part of a two-way sound wave communication, the barcode information being received by the microphone as a sequence of audio tones from the mobile device to the bridge device ; converting the barcode information into a pulsed signal to simulate scanning of a static image of a barcode; providing a human perceptible signal that indicates the barcode information has been received into the bridge device; and transmitting the barcode information as light pulses emitted from the bridge device for reception by a barcode scanner . detecting a mobile device being brought into physical proximity to a communication bridge device , the bridge device being in a fixed location relative to the mobile device ; commencing two-way sound wave communication between the mobile device and the bridge device upon detection of the mobile device by the bridge device ; receiving barcode information through a microphone of the bridge device as part of a two-way sound wave communication, the barcode information being received by the microphone as a sequence of audio tones from the mobile device to the bridge device ; converting the barcode information into a pulsed signal to simulate scanning of a static image of a barcode; providing a human perceptible signal that indicates the barcode information has been received into the bridge device; and transmitting the barcode information as light pulses emitted from the bridge device for reception by a barcode scanner .
A method for wireless communication, comprising: determining , by a user equipment, UE , that a voice over long term evolution, VoLTE, service has encountered a threshold quantity of consecutive failures within a particular period of time; and transferring , by the UE , from a VoLTE mode associated with the VoLTE service to another mode for a voice call based on determining that the VoLTE service has encountered the threshold quantity of consecutive failures within the particular period of time, wherein the other mode is a single radio long term evolution, SRLTE. determining , by a user equipment, UE , that a voice over long term evolution, VoLTE, service has encountered a threshold quantity of consecutive failures within a particular period of time; and transferring , by the UE , from a VoLTE mode associated with the VoLTE service to another mode for a voice call based on determining that the VoLTE service has encountered the threshold quantity of consecutive failures within the particular period of time, wherein the other mode is a single radio long term evolution, SRLTE.
A system for monitoring a tower clearance in real time, comprising an image capturing device , a blade position processing device and a core algorithm processing device , wherein the image capturing device is configured to capture an image of a wind turbine during operation, wherein the image comprises a blade part and a tower part; the blade position processing device is configured to determine whether the captured image is valid data, and transmit the valid data to the core algorithm processing device; and the core algorithm processing device is configured to calculate a tower clearance value for a blade based on the valid data, and transmit a calculation result to a main control system of the wind turbine, wherein the blade position processing device comprises a first data processing unit configured to monitor a sensitive region for a tip of the blade, to determine whether the tip of the blade is in the sensitive region, the system being characterized in that the first data processing unit is configured to convert the captured image into an image in an HSV (Hue Saturation Value) format, and determine, based on the format-converted image, whether the tip of the blade is in the sensitive region by using an inter-frame difference method. the image capturing device is configured to capture an image of a wind turbine during operation, wherein the image comprises a blade part and a tower part; the blade position processing device is configured to determine whether the captured image is valid data, and transmit the valid data to the core algorithm processing device; and the core algorithm processing device is configured to calculate a tower clearance value for a blade based on the valid data, and transmit a calculation result to a main control system of the wind turbine, wherein the blade position processing device comprises a first data processing unit configured to monitor a sensitive region for a tip of the blade, to determine whether the tip of the blade is in the sensitive region, the system being characterized in that the first data processing unit is configured to convert the captured image into an image in an HSV (Hue Saturation Value) format, and determine, based on the format-converted image, whether the tip of the blade is in the sensitive region by using an inter-frame difference method.
Actuator for a vehicle component, comprising: - an electric motor , comprising a rotor and a stator , the rotor being rotatable with respect to the stator about an axis of movement (X) and being translationally movable along this axis, - a member for actuating the vehicle component, said member being movable by the rotor , - at least one guide member for the movement of the rotor with respect to the stator , the guide member having a surface facing a surface of the rotor , said surfaces being configured to cooperate during all or part of this movement, characterized in that the guide member and the rotor are not coaxial. - an electric motor , comprising a rotor and a stator , the rotor being rotatable with respect to the stator about an axis of movement (X) and being translationally movable along this axis, - a member for actuating the vehicle component, said member being movable by the rotor , - at least one guide member for the movement of the rotor with respect to the stator , the guide member having a surface facing a surface of the rotor , said surfaces being configured to cooperate during all or part of this movement, characterized in that the guide member and the rotor are not coaxial.
An accessory device , wherein the accessory device is configured to communicate with an ostomy system , wherein the ostomy system comprises a monitor device and an ostomy appliance configured to be placed on a skin surface of a user, wherein the ostomy appliance comprises a base plate , the accessory device comprising: a processor ; a memory ; and an interface operatively connected to the processor and the memory , wherein the interface is configured to obtain monitor data from the monitor device ; and wherein the processor is configured to determine a current operating state of the ostomy appliance and wherein the interface is configured to communicate the current operating state, characterized in that the processor is further configured to determine a future operating state of the ostomy appliance based on the monitor data; wherein the current operating state is indicative of current adhesive performance of the ostomy appliance , wherein the future operating state is indicative of future adhesive performance of the ostomy appliance , and wherein the interface is further configured to communicate the future operating state. a processor ; a memory ; and an interface operatively connected to the processor and the memory , wherein the interface is configured to obtain monitor data from the monitor device ; and wherein the processor is configured to determine a current operating state of the ostomy appliance and wherein the interface is configured to communicate the current operating state, characterized in that the processor is further configured to determine a future operating state of the ostomy appliance based on the monitor data; wherein the current operating state is indicative of current adhesive performance of the ostomy appliance , wherein the future operating state is indicative of future adhesive performance of the ostomy appliance , and wherein the interface is further configured to communicate the future operating state.