mhurhangee/ep-ind-claims huggingface dataset:
Flow limiting device for a fuel shut-off valve with a flow housing which configures a channel a flow limiting element arranged in the channel, a spring which exerts a force on the flow limiting element in an opening direction of the flow limiting element, which force is directed against a force which is produced by the flow pressure and acts on the flow limiting element in the closing direction, wherein the flow limiting element in a first end position, in which the force of the spring acting on the flow limiting element is greater than the force due to the flow pressure, opens a larger flow cross-section than in a second end position, in which the force due to the flow pressure acting on the flow limiting element is greater than the force of the spring, wherein the flow cross-section in both end positions is defined by a circumferential gap arranged between the flow limiting element and the surrounding flow housing, wherein the flow cross-section between the flow limiting element and the surrounding flow housing decreases continuously in the axial direction down to a narrowest flow cross-section, characterised in that the flow cross-section increases continuously from the narrowest flow cross-section. a flow housing which configures a channel a flow limiting element arranged in the channel, a spring which exerts a force on the flow limiting element in an opening direction of the flow limiting element, which force is directed against a force which is produced by the flow pressure and acts on the flow limiting element in the closing direction, wherein the flow limiting element in a first end position, in which the force of the spring acting on the flow limiting element is greater than the force due to the flow pressure, opens a larger flow cross-section than in a second end position, in which the force due to the flow pressure acting on the flow limiting element is greater than the force of the spring, wherein the flow cross-section in both end positions is defined by a circumferential gap arranged between the flow limiting element and the surrounding flow housing, wherein the flow cross-section between the flow limiting element and the surrounding flow housing decreases continuously in the axial direction down to a narrowest flow cross-section, characterised in that the flow cross-section increases continuously from the narrowest flow cross-section.
A method for processing an uplink reference signal, performed by a base station, the method comprising: determining a current baseband processing load; and processing each of N received uplink reference signals according to a preset first rule if the baseband processing load is less than a first preset value, wherein N is a positive integer; or processing each uplink reference signal in a signal set according to a preset second rule if the baseband processing load is greater than a second preset value, wherein the second preset value is greater than or equal to the first preset value, the signal set comprises one or more of the N uplink reference signals, and a baseband processing load corresponding to processing an uplink reference signal according to the second rule is less than a baseband processing load corresponding to processing an uplink reference signal according to the first rule. determining a current baseband processing load; and processing each of N received uplink reference signals according to a preset first rule if the baseband processing load is less than a first preset value, wherein N is a positive integer; or processing each uplink reference signal in a signal set according to a preset second rule if the baseband processing load is greater than a second preset value, wherein the second preset value is greater than or equal to the first preset value, the signal set comprises one or more of the N uplink reference signals, and a baseband processing load corresponding to processing an uplink reference signal according to the second rule is less than a baseband processing load corresponding to processing an uplink reference signal according to the first rule.
A stapling assembly (106, 400, 600, 2200) for use with a surgical stapler, comprising: a body having a first end and a second end, and a longitudinal axis extending therebetween, wherein the body has a slot that extends into and along at least a portion of the longitudinal axis and configured to receive a cutting element; and a three-dimensional compressible adjunct (800, 1100, 1200, 1300, 1500, 2100, 3000) formed from a matrix comprising at least one fused bioabsorbable polymer and configured to be releasably retained on the body, the adjunct comprising a plurality of struts (816, 1116, 1216, 1316, 1416, 1516), and the adjunct has a longitudinal channel extending therealong between a first longitudinal portion and a second longitudinal portion, and wherein the first and second longitudinal portions are configured to be positioned on opposite sides of the slot with the channel extending along the slot of the body to facilitate cutting along the longitudinal channel as the cutting element moves through the slot; and wherein the plurality of struts are interconnected at nodes (814, 822, 1222, 1314, 1322, 1514, 1522) to form truss-like structures; wherein the three-dimensional compressible adjunct is manufactured by 3D printing. a body having a first end and a second end, and a longitudinal axis extending therebetween, wherein the body has a slot that extends into and along at least a portion of the longitudinal axis and configured to receive a cutting element; and a three-dimensional compressible adjunct (800, 1100, 1200, 1300, 1500, 2100, 3000) formed from a matrix comprising at least one fused bioabsorbable polymer and configured to be releasably retained on the body, the adjunct comprising a plurality of struts (816, 1116, 1216, 1316, 1416, 1516), and the adjunct has a longitudinal channel extending therealong between a first longitudinal portion and a second longitudinal portion, and wherein the first and second longitudinal portions are configured to be positioned on opposite sides of the slot with the channel extending along the slot of the body to facilitate cutting along the longitudinal channel as the cutting element moves through the slot; and wherein the plurality of struts are interconnected at nodes (814, 822, 1222, 1314, 1322, 1514, 1522) to form truss-like structures; wherein the three-dimensional compressible adjunct is manufactured by 3D printing.
A method, comprising: obtaining, by one or more computing devices, contextual information associated with a user and an application on a user device operated by the user, wherein the application comprises a plurality of user interface, UI, elements; determining, by one or more computing devices, the user is attempting to complete a first task within the application based on the contextual information and a prediction model, wherein the first task corresponds to a cluster of data structures, the data structures including the identities of the UI elements manipulated while a user was completing a task; obtaining, by the one or more computing devices, a minimum set of UI elements required for the first task, wherein the minimum set of UI elements is determined by performing a union operation on the data structures in the cluster corresponding to the first task; and transmitting, by the one or more computing devices, a first custom UI comprising the minimum set of UI elements for the first task to the user device for display to the user. obtaining, by one or more computing devices, contextual information associated with a user and an application on a user device operated by the user, wherein the application comprises a plurality of user interface, UI, elements; determining, by one or more computing devices, the user is attempting to complete a first task within the application based on the contextual information and a prediction model, wherein the first task corresponds to a cluster of data structures, the data structures including the identities of the UI elements manipulated while a user was completing a task; obtaining, by the one or more computing devices, a minimum set of UI elements required for the first task, wherein the minimum set of UI elements is determined by performing a union operation on the data structures in the cluster corresponding to the first task; and transmitting, by the one or more computing devices, a first custom UI comprising the minimum set of UI elements for the first task to the user device for display to the user.
Compound of the formula in which R 1 represents a group of the formula where * is the point of attachment to the oxopyridine ring, R 6 represents chlorine, R 7 represents triazolyl, where triazolyl is substituted by a substituent selected from the group consisting of chlorine, difluoromethyl and trifluoromethyl, R 8 represents hydrogen, R 2 represents methoxy, R 3 represents methyl, ethyl or n-propyl, R 4 represents hydrogen, R 5 represents a group of the formula where # is the point of attachment to the nitrogen atom, R 14 represents fluorine, R 15 represents hydrogen, R 16 represents hydrogen, or one of the salts thereof, solvates thereof or solvates of the salts thereof. R 1 represents a group of the formula where * is the point of attachment to the oxopyridine ring, R 6 represents chlorine, R 7 represents triazolyl, where triazolyl is substituted by a substituent selected from the group consisting of chlorine, difluoromethyl and trifluoromethyl, R 8 represents hydrogen, where * is the point of attachment to the oxopyridine ring, R 6 represents chlorine, R 7 represents triazolyl, where triazolyl is substituted by a substituent selected from the group consisting of chlorine, difluoromethyl and trifluoromethyl, R 8 represents hydrogen, R 2 represents methoxy, R 3 represents methyl, ethyl or n-propyl, R 4 represents hydrogen, R 5 represents a group of the formula where # is the point of attachment to the nitrogen atom, R 14 represents fluorine, R 15 represents hydrogen, R 16 represents hydrogen, where # is the point of attachment to the nitrogen atom, R 14 represents fluorine, R 15 represents hydrogen, R 16 represents hydrogen,
Pneumatic vehicle tyre having a profiled tread with spikes (1, 2), which are arranged in spike rows (Sp) running around the circumference of the tread, wherein each spike (1, 2) has a spike body anchored in the rubber material of the tread and a spike pin (4, 5) protruding beyond the periphery of the tread, wherein spikes of a first type and spikes of a second type, which differ from one another in the design of their spike pins (4, 5), are anchored in the tread, wherein the spikes of the first type bring about better lateral force transmission than the spikes of the second type, which bring about better braking and tractive force transmission than the spikes of the first type, characterized in that both spikes of the first type and spikes of the second type are respectively positioned in at least one spike row (Sp) in a lateral circumferential region (S B) and in at least one spike row (Sp) in a central circumferential region.
A method for compressive sensing executed by an edge node of a resource-constrained distributed computing network, wherein the edge node is provided with a fixed network capacity (Ø) the method comprising: collecting a raw data signal continuously by a sensor of the edge node of the resource-constrained distributed computing network; dynamically updating a signal energy indicator (Σ) that quantifies a variance in the raw data signal; determining (40, 42, 44) one or more compression characteristics as a function of the signal energy indicator as the signal energy indicator is updated; subsampling the raw data signal in accordance with current values of the one or more compression characteristics to create a compressed data signal; comparing a size of the compressed data signal to the fixed network capacity (Ø) and further subsampling the compressed data signal to further compress the compressed data signal to fit the fixed network capacity if the size is greater than that permitted by the fixed network capacity; and transmitting an output that includes the compressed data signal to a centralized node (18, 20, 22) of the resource-constrained distributed computing network. collecting a raw data signal continuously by a sensor of the edge node of the resource-constrained distributed computing network; dynamically updating a signal energy indicator (Σ) that quantifies a variance in the raw data signal; determining (40, 42, 44) one or more compression characteristics as a function of the signal energy indicator as the signal energy indicator is updated; subsampling the raw data signal in accordance with current values of the one or more compression characteristics to create a compressed data signal; comparing a size of the compressed data signal to the fixed network capacity (Ø) and further subsampling the compressed data signal to further compress the compressed data signal to fit the fixed network capacity if the size is greater than that permitted by the fixed network capacity; and transmitting an output that includes the compressed data signal to a centralized node (18, 20, 22) of the resource-constrained distributed computing network.
Medicament delivery device, comprising: - a tubular body having a distal end (2.7), - a cap adapted to be removably connected to the distal end (2.7) of the body, wherein the body comprises a first clip having a first stop (16.1) and a first ramp (16.2), wherein the cap comprises a second clip having a second stop (17.1) and a second ramp (17.2), wherein the first ramp (16.2) and the second ramp (17.2) are adapted to be mutually engaged when the cap is connected to the body in a first position, wherein the first ramp (16.2) and the second ramp (17.2) are adapted to resiliently deflect at least one of the first clip and the second clip when the cap is being moved from the first position in a distal direction towards a second position, wherein in the second position the first stop (16.1) and the second stop (17.1) abut each other to prevent the cap from being moved into the first position. - a tubular body having a distal end (2.7), - a cap adapted to be removably connected to the distal end (2.7) of the body,
A dental matrix clamp comprising an elongate body, a matrix band mountable relative to the body so as to form a loop projecting at one end of the body, a tensioning device operable on the band to tighten the loop, and a deflector member engageable with the band to impart an inclined conformation thereto, the deflector member being adjustable transversely across the band between opposite positions at which it bears respectively against opposite peripheral portions of the band; wherein the deflector member is slidable along a straight path transversely to the length of the matrix band and generally parallel to its face.
A system for tong assembly operation, comprising: a mode switch for shifting the tong assembly between a first mode of operation and a second mode of operation, the mode switch having a first portion associated with the first mode and a second portion associated with the second mode; a first target coupled to the first portion, the first target movable to a first position corresponding to the first mode of operation; a second target coupled to the second portion, the second target movable to a second position corresponding to the second mode of operation; a first sensor configured to identify the first position of the first target; and a second sensor configured to identify the second position of the second target. a mode switch for shifting the tong assembly between a first mode of operation and a second mode of operation, the mode switch having a first portion associated with the first mode and a second portion associated with the second mode; a first target coupled to the first portion, the first target movable to a first position corresponding to the first mode of operation; a second target coupled to the second portion, the second target movable to a second position corresponding to the second mode of operation; a first sensor configured to identify the first position of the first target; and a second sensor configured to identify the second position of the second target.
Use of an aluminium-based alloy characterised by the following composition in wt.%: Si 2 - 3.5 Fe < 0.1 Mn 0.5 - 1.5 Zr ≤ 0.01 Cr ≤ 0.01 Cu < 0.03 Mg < 0.01 Ti < 0.005 Na, P, B in total < 0.005 and unavoidable impurities in a proportion in wt.% ≤0.001 in each case and a remainder consisting of Al as an additional welding material alloy in the form of a welding wire for welding aluminium and steel, beryllium (Be) being admixed with the additional welding material alloy.
A circuit for a wireless phased-array receiver adapted to provide a signal gain, comprising: - a first stage comprising a first set of variable gain transconductors (3,3') arranged for receiving an analogue input signal from an antenna path of a plurality of antenna paths and for performing phase-shifting of said analogue input signal, thereby producing an intermediate signal (I'), and characterized by said circuit further comprising - a second stage, comprising a second set of transconductors (5,6,7) and a plurality of capacitors (C 1,C 2) arranged for receiving said intermediate signal (I') and for providing an output signal to a combiner, wherein the first stage and second stage together form a filter, and wherein the first set of variable gain transconductors (3,3') and at least one of the transconductors of the second set (5,6,7) define the signal gain of the circuit. - a first stage comprising a first set of variable gain transconductors (3,3') arranged for receiving an analogue input signal from an antenna path of a plurality of antenna paths and for performing phase-shifting of said analogue input signal, thereby producing an intermediate signal (I'), and characterized by said circuit further comprising - a second stage, comprising a second set of transconductors (5,6,7) and a plurality of capacitors (C 1,C 2) arranged for receiving said intermediate signal (I') and for providing an output signal to a combiner,
Rolling bearing for operational rotation speeds of less than 500 revolutions per minute, in particular in industrial trucks, having two races (2, 3) which are arranged radially one inside the other and are at least partially hardened, characterized in that balls (6, 7) with a predefined ball radius (r) roll between the races (2,3) in tracks (4, 5) with a predefined track radius, which is transverse to an axis of rotation of a race (2, 3), wherein at least one of the races (2, 3) is made of a fully hardened steel with a bainitic structure, and an osculation with a ratio (R/r) of the track radius of at least one race (2, 3) to the ball radius (r) is less than or equal to 1.02, wherein the fully hardened steel of the at least one race (2, 3) has an impact work of greater than or equal to 67 J according to DIN EN 10045-1 without notches, and at the same time has a hardness of less than or equal to 58 HRC.
A control method for a fuel cell system including a solid oxide fuel cell configured to generate power upon receipt of supply of an anode gas and a cathode gas, the control method comprising: an anode protection execution determination process of performing execution determination of an anode protection process of applying a predetermined protection current to the fuel cell in order to restrain catalyst oxidation in an anode of the fuel cell, characterized in that in the anode protection execution determination process, an internal impedance of the fuel cell at an anode response frequency at which an anode reaction resistance of the fuel cell is detectable is acquired, and based on the internal impedance at the anode response frequency, whether the anode protection process is to be executed or not is determined, wherein the anode response frequency corresponds to a low-frequency side anode reaction resistance peak (P 2A) and/or a high-frequency side anode reaction resistance peak (P 3A) in an internal impedance curve representing a variation in the internal impedance of the fuel cell with respect to a predetermined frequency range of a high-frequency alternate current signal superimposed on a direct current signal of the fuel cell. an anode protection execution determination process of performing execution determination of an anode protection process of applying a predetermined protection current to the fuel cell in order to restrain catalyst oxidation in an anode of the fuel cell, characterized in that in the anode protection execution determination process, an internal impedance of the fuel cell at an anode response frequency at which an anode reaction resistance of the fuel cell is detectable is acquired, and based on the internal impedance at the anode response frequency, whether the anode protection process is to be executed or not is determined, wherein the anode response frequency corresponds to a low-frequency side anode reaction resistance peak (P 2A) and/or a high-frequency side anode reaction resistance peak (P 3A) in an internal impedance curve representing a variation in the internal impedance of the fuel cell with respect to a predetermined frequency range of a high-frequency alternate current signal superimposed on a direct current signal of the fuel cell.
A compound of the following Chemical Formula 1: in Chemical Formula 1, L is a direct bond; or an alkylene group having 1 to 10 carbon atoms, R is hydrogen; or an alkyl group having 1 to 10 carbon atoms, and R 1 and R 2 are each independently hydrogen; an alkyl group having 1 to 10 carbon atoms; or an aryl group having 6 to 30 carbon atoms. L is a direct bond; or an alkylene group having 1 to 10 carbon atoms, R is hydrogen; or an alkyl group having 1 to 10 carbon atoms, and R 1 and R 2 are each independently hydrogen; an alkyl group having 1 to 10 carbon atoms; or an aryl group having 6 to 30 carbon atoms.
Refrigeration device, in particular a domestic refrigeration device, having a housing and a shelf for items being refrigerated that is able to be continuously height-adjusted in an interior space of the housing, wherein the shelf for items being refrigerated has at least one rotating body that meshes with a tooth profile and a lever (8; 9) for rotationally driving the rotating body, and the rotating body is coupled to the lever (8; 9) with a freewheel (20, 22; 21, 22; 28, 33) connected in between, characterised in that the tooth profile is fixed to a wall of the interior space, a second freewheel-coupled lever (9; 8) is provided and the two levers (8; 9) drive rotations of the rotating body each in an opposite direction.
A system for securement of galley trolleys in aircraft, the system comprising: a motion sensor mounted to monitor a trolley in a trolley bay; a controller connected to the motion sensor, configured to receive a signal from the motion sensor to detect unsecured motion of a trolley in the trolley bay; and an output device operatively connected to the controller, characterised by said output device being configured to alert a user upon detection of unsecured motion of a trolley in the trolley bay. a motion sensor mounted to monitor a trolley in a trolley bay; a controller connected to the motion sensor, configured to receive a signal from the motion sensor to detect unsecured motion of a trolley in the trolley bay; and an output device operatively connected to the controller, characterised by said output device being configured to alert a user upon detection of unsecured motion of a trolley in the trolley bay.
A grafted polytriallylamine comprising polytriallylamine, an anion, and a moiety that binds to uric acid or precursor thereof, wherein the moiety is linked to a tertiary amine of the polytriallylamine.