mhurhangee/ep-ind-claims huggingface dataset:
Ambient air purification device (1009,1010,1017,1018) for a road vehicle, which is in particular designed to remove dusts, in particular fine particulate matter, and/or gases from the ambient air, wherein the ambient air purification device (1009,1010,1017,1018) features at least one filter element (100,101) and can be disposed in the outer area of the road vehicle, characterized in that the ambient air purification device (1009,1010,1017,1018) is designed to be attached to a vehicle tail using a detachable coupling, wherein the ambient air purification device (1009,1010,1017,1018) features at least one counter coupling which corresponds to a vehicle-sided coupling component and features a trailer hitch, in particular for a ball-shaped coupling.
Contact carrier comprising an electrical contact and a lower part for electrically contacting the electrical contact, wherein a removable insulating sleeve is placeable on the electrical contact; wherein the contact carrier comprises a contact arm, which is connected with the electrical contact in an electrically conducting manner, wherein the contact arm comprises a tolerance-compensating portion and a contact base formed onto the tolerance-compensating portion for electrically contacting the electrical contact with a contact surface; wherein the contact arm extends laterally or radially from the electrical contact; and wherein the tolerance-compensating portion is elastically or plastically deformable, so that the contact base is displaceable in all three directions.
A semiconductor module cooler which is capable of supplying a coolant to a water jacket from outside and which is capable of cooling a semiconductor device (32, 33) to be arranged on an outer surface of the cooler, the semiconductor module cooler comprising: a heat sink that is thermally connected to the semiconductor device (32, 33); a first flow channel which extends from a coolant inlet into the water jacket and in which is arranged a guide section having an inclined surface for guiding the coolant toward one side surface of the heat sink; a second flow channel which is arranged inside the water jacket so as to be parallel to the first flow channel, which extends to a coolant outlet, and on which a sidewall parallel to another side surface of the heat sink is formed; and a third flow channel which is formed at a position that connects the first flow channel and the second flow channel in the water jacket, wherein the coolant inlet and the coolant outlet are formed on a same wall surface of the water jacket, and the heat sink is arranged in the third flow channel, wherein a separation wall formed separated from the one side surface of the heat sink so as to extend from a starting end section of the first flow channel in a downstream direction of the coolant is arranged in the first flow channel. a heat sink that is thermally connected to the semiconductor device (32, 33); a first flow channel which extends from a coolant inlet into the water jacket and in which is arranged a guide section having an inclined surface for guiding the coolant toward one side surface of the heat sink; a second flow channel which is arranged inside the water jacket so as to be parallel to the first flow channel, which extends to a coolant outlet, and on which a sidewall parallel to another side surface of the heat sink is formed; and a third flow channel which is formed at a position that connects the first flow channel and the second flow channel in the water jacket, wherein the coolant inlet and the coolant outlet are formed on a same wall surface of the water jacket, and the heat sink is arranged in the third flow channel, wherein a separation wall formed separated from the one side surface of the heat sink so as to extend from a starting end section of the first flow channel in a downstream direction of the coolant is arranged in the first flow channel.
A device for filtering by absorption of polluted gases, the device comprising a main space of tubular shape that is horizontal or inclined upwards, containing a predetermined volume of absorbent liquid, a suction means at the outlet or a blowing means at the inlet of the device, and a tangential inlet for the pollutant-laden gases into the main space so as to generate a circulation flow between the inlet and the outlet, including a liquid-gas-pollutant vortex in said main space, characterized in that the main space (O.a) opens out into a space for filtration by impaction comprising a vertical or quasi-vertical impaction and runoff wall (10, 10b) intended to prevent the re-entrainment of residual vesicles or particles.
A depth-control mechanism for selectively-adjusting a lancing stroke depth of a lancet carrier, the depth-control mechanism characterized by comprising: a positioning tab configured to be repositioned along an axis orthogonal to the lancing stroke axis of the lancet carrier, and a tether pivotally coupled between the positioning tab and the lancet carrier, the positioning tab being configured to manipulate an adjustable pivot axis of the tether to adjust the lancing stroke length of the lancet carrier. a positioning tab configured to be repositioned along an axis orthogonal to the lancing stroke axis of the lancet carrier, and a tether pivotally coupled between the positioning tab and the lancet carrier, the positioning tab being configured to manipulate an adjustable pivot axis of the tether to adjust the lancing stroke length of the lancet carrier.
A transfer article comprising: a release layer, wherein the release layer comprises a metal layer or a doped semiconductor layer; a first acrylate layer overlaying the release layer, the first acrylate layer comprising tricyclodecane dimethanol diacrylate; and a function layer overlaying the first acrylate layer; wherein a release value between the release layer and the first acrylate layer is from 0.79 to 3.94 g/cm (2 to 10 g/inch), as measured according to the T-Peel Test Method of the ASTM D1876-08 standard as detailed in the Examples section of the description under "T-Peel Test Method". a release layer, wherein the release layer comprises a metal layer or a doped semiconductor layer; a first acrylate layer overlaying the release layer, the first acrylate layer comprising tricyclodecane dimethanol diacrylate; and a function layer overlaying the first acrylate layer; wherein a release value between the release layer and the first acrylate layer is from 0.79 to 3.94 g/cm (2 to 10 g/inch), as measured according to the T-Peel Test Method of the ASTM D1876-08 standard as detailed in the Examples section of the description under "T-Peel Test Method".
A method for determining a resource for a dynamic Physical Download Shared Channel, PDSCH, acknowledgement signal by a user equipment, UE, in a wireless communication system including a base station, the method comprising: receiving, from the base station, information associated with a fixed number of resource blocks, RBs, per subframe allocated for periodic transmissions, wherein the periodic transmissions include periodic transmission of a channel quality indication, CQI, signal in an operating bandwidth; and transmitting, to the base station, a dynamic PDSCH acknowledgement signal based on the received information, wherein a first RB available for transmission of the dynamic PDSCH acknowledgement signal is determined based on the received information, wherein the fixed number of resource blocks is used for determining the first RB in the operating bandwidth relative to an edge of the operating bandwidth. receiving, from the base station, information associated with a fixed number of resource blocks, RBs, per subframe allocated for periodic transmissions, wherein the periodic transmissions include periodic transmission of a channel quality indication, CQI, signal in an operating bandwidth; and transmitting, to the base station, a dynamic PDSCH acknowledgement signal based on the received information, wherein a first RB available for transmission of the dynamic PDSCH acknowledgement signal is determined based on the received information, wherein the fixed number of resource blocks is used for determining the first RB in the operating bandwidth relative to an edge of the operating bandwidth.
A vector-processor-based device providing reconfigurable fusion of processing elements, PEs, comprising a vector processor comprising: a plurality of PEs (106 -106), wherein each PE of the plurality of PEs comprises a plurality of heterogeneous functional units (108 -108, 108' -108'); and a decode/control circuit configured to: receive an instruction block containing a vectorizable loop comprising a loop body; determine a required PE number indicating a number of PEs of the plurality of PEs required to execute the loop body based on a comparison of a number of instructions within the loop body with a number of the plurality of heterogeneous functional units provided by each PE of the plurality of PEs; reconfigure the plurality of PEs into one or more fused PEs (400 -400), wherein each fused PE of the one or more fused PEs comprises the required PE number of PEs of the plurality of PEs; wherein the one or more fused PEs comprises a plurality of fused PEs; and wherein each fused PE among the plurality of fused PEs is configured to execute a loop iteration of the loop body in parallel with other fused PEs of the plurality of fused PEs. a plurality of PEs (106 -106), wherein each PE of the plurality of PEs comprises a plurality of heterogeneous functional units (108 -108, 108' -108'); and a decode/control circuit configured to: receive an instruction block containing a vectorizable loop comprising a loop body; determine a required PE number indicating a number of PEs of the plurality of PEs required to execute the loop body based on a comparison of a number of instructions within the loop body with a number of the plurality of heterogeneous functional units provided by each PE of the plurality of PEs; reconfigure the plurality of PEs into one or more fused PEs (400 -400), wherein each fused PE of the one or more fused PEs comprises the required PE number of PEs of the plurality of PEs; receive an instruction block containing a vectorizable loop comprising a loop body; determine a required PE number indicating a number of PEs of the plurality of PEs required to execute the loop body based on a comparison of a number of instructions within the loop body with a number of the plurality of heterogeneous functional units provided by each PE of the plurality of PEs; reconfigure the plurality of PEs into one or more fused PEs (400 -400), wherein each fused PE of the one or more fused PEs comprises the required PE number of PEs of the plurality of PEs; wherein the one or more fused PEs comprises a plurality of fused PEs; and wherein each fused PE among the plurality of fused PEs is configured to execute a loop iteration of the loop body in parallel with other fused PEs of the plurality of fused PEs.
A software update device configured to be controlled in response to a request from a mobile terminal device, the software update device comprising one or more processors configured to: acquire cooperation information indicating that connection of the mobile terminal device to a vehicle is made based on an authentication result that the mobile terminal device is authenticated to the vehicle as an electronic key of the vehicle, and a history of usage indicating that the mobile terminal device is used as the electronic key to perform predetermined operations to the vehicle; and permit the mobile terminal device to execute interface processing related to software update when the one or more processors acquire at least the cooperation information and a user associated with the mobile terminal device is granted an update management authority. acquire cooperation information indicating that connection of the mobile terminal device to a vehicle is made based on an authentication result that the mobile terminal device is authenticated to the vehicle as an electronic key of the vehicle, and a history of usage indicating that the mobile terminal device is used as the electronic key to perform predetermined operations to the vehicle; and permit the mobile terminal device to execute interface processing related to software update when the one or more processors acquire at least the cooperation information and a user associated with the mobile terminal device is granted an update management authority.
A dermatome blade assembly, comprising: a blade including: a blade edge; a reference edge spaced from the blade edge; and at least one receiver positioned between the blade edge and the reference edge; a blade mount including: a base; at least one blade locator extending from the base; at least one reference fence; wherein the at least one reference fence of the blade mount abuts the reference edge of the blade, wherein the at least one receiver is aligned with the at least one blade locator; characterized by a detent protruding from the at least one blade locator and the detent extends into the at least one receiver; wherein the at least one receiver is an opening extending through the blade and the opening has a perimeter, and wherein the detent contacts the perimeter of the opening and the detent is in an off-centered orientation within the opening and with respect to a center axis (C-C) of the opening while contacting the perimeter of the opening to urge the at least one reference edge against the at least one reference fence. a blade including: a blade edge; a reference edge spaced from the blade edge; and at least one receiver positioned between the blade edge and the reference edge; a blade edge; a reference edge spaced from the blade edge; and at least one receiver positioned between the blade edge and the reference edge; a blade mount including: a base; at least one blade locator extending from the base; at least one reference fence; a base; at least one blade locator extending from the base; at least one reference fence; wherein the at least one reference fence of the blade mount abuts the reference edge of the blade, wherein the at least one receiver is aligned with the at least one blade locator; characterized by a detent protruding from the at least one blade locator and the detent extends into the at least one receiver; wherein the at least one receiver is an opening extending through the blade and the opening has a perimeter, and wherein the detent contacts the perimeter of the opening and the detent is in an off-centered orientation within the opening and with respect to a center axis (C-C) of the opening while contacting the perimeter of the opening to urge the at least one reference edge against the at least one reference fence.
A vehicle seat assembly, comprising: a base; a seat mounted to swivel relative to the base; a console having first and second segments, the first segment mounted to swivel with the seat relative to the base, and the second segment being mounted to swivel with the seat and first console segment for one increment of rotation and thereafter to remain in fixed position as the seat and first console segment swivel in a second increment of rotation; and further including a first link device that is actuated so that the swivel members and their respective first and second console segments rotate together through said one increment of rotation. a base; a seat mounted to swivel relative to the base; a console having first and second segments, the first segment mounted to swivel with the seat relative to the base, and the second segment being mounted to swivel with the seat and first console segment for one increment of rotation and thereafter to remain in fixed position as the seat and first console segment swivel in a second increment of rotation; and
A wheel positioning system, comprising a three-dimensional target, an image acquisition device, and a processing system, characterized in that: the three-dimensional target is attached to a wheel, the vision range of the image acquisition device faces the three-dimensional target, and the image acquisition device is electrically connected to the processing system; wherein the three-dimensional target comprises a base body; the base body is provided with at least three target surfaces, and the at least three target surfaces are all in different planes; the at least three target surfaces are each provided with target elements, the spatial positional relationship between the target elements is known, and the geometric properties of the target elements are known; the at least three target surfaces face the image acquisition device; the image acquisition device is configured to acquire images of the target elements of two of the target surfaces in the at least three target surfaces, wherein two of the target surfaces are a group of calculation units; and the processing system is configured to calculate at least two pieces of wheel positioning information according to the images of the target elements of at least two groups of calculation units, compare whether the at least two pieces of wheel positioning information are consistent, and determine the position of the wheel according to the wheel positioning information if the at least two pieces of wheel positioning information are consistent. the three-dimensional target is attached to a wheel, the vision range of the image acquisition device faces the three-dimensional target, and the image acquisition device is electrically connected to the processing system; wherein the three-dimensional target comprises a base body; the base body is provided with at least three target surfaces, and the at least three target surfaces are all in different planes; the at least three target surfaces are each provided with target elements, the spatial positional relationship between the target elements is known, and the geometric properties of the target elements are known; the at least three target surfaces face the image acquisition device; the image acquisition device is configured to acquire images of the target elements of two of the target surfaces in the at least three target surfaces, wherein two of the target surfaces are a group of calculation units; and the processing system is configured to calculate at least two pieces of wheel positioning information according to the images of the target elements of at least two groups of calculation units, compare whether the at least two pieces of wheel positioning information are consistent, and determine the position of the wheel according to the wheel positioning information if the at least two pieces of wheel positioning information are consistent.
A topical anhydrous gel composition, said composition comprising the following ingredients: (a) a compound having the formula: wherein R is methyl or ethyl, said compound having the R stereoisomeric configuration at the 2 position and the R, S or RS stereoisomeric configuration at the 1' and 3' positions, or being a mixture thereof; (b) ethanol as a non-aqueous solvent for the compound of formula, present in an amount of 70-99.9% w/w or w/v of the composition; (c) at least one gelling or viscosity-controlling ingredient; and (d) optionally, at least one additional carrier or excipient; wherein said topical anhydrous gel composition comprises from 0.1% to 30% w/w or w/v of the compound of formula. (a) a compound having the formula: wherein R is methyl or ethyl, said compound having the R stereoisomeric configuration at the 2 position and the R, S or RS stereoisomeric configuration at the 1' and 3' positions, or being a mixture thereof; (b) ethanol as a non-aqueous solvent for the compound of formula, present in an amount of 70-99.9% w/w or w/v of the composition; (c) at least one gelling or viscosity-controlling ingredient; and (d) optionally, at least one additional carrier or excipient; wherein said topical anhydrous gel composition comprises from 0.1% to 30% w/w or w/v of the compound of formula.
A shock-absorbing device that suppresses a shock given to a fuel assembly constituted by combining a plurality of fuel rods and arranging a first nozzle and a second nozzle at opposite longitudinal ends of the fuel rods, the shock-absorbing device comprising: a first nozzle of the fuel assembly, the first nozzle having four legs and a depression; a nozzle support fitted to a center portion of a depression of the first nozzle, the depression being provided in a portion surrounded by the four legs of the first nozzle; and a buffer combined with the nozzle support, the buffer, or the buffer combined with the first nozzle and the second nozzle, having stiffness equal to or less than that of the nozzle support in a longitudinal direction of the fuel rods; wherein the nozzle support and the buffer are adapted to be arranged in order from the depression along the longitudinal direction of the fuel rods. a first nozzle of the fuel assembly, the first nozzle having four legs and a depression; a nozzle support fitted to a center portion of a depression of the first nozzle, the depression being provided in a portion surrounded by the four legs of the first nozzle; and a buffer combined with the nozzle support, the buffer, or the buffer combined with the first nozzle and the second nozzle, having stiffness equal to or less than that of the nozzle support in a longitudinal direction of the fuel rods; wherein the nozzle support and the buffer are adapted to be arranged in order from the depression along the longitudinal direction of the fuel rods.
A smart antenna, wherein the smart antenna comprises an antenna element array and an impedance transformation circuit; a feeding end of the antenna element array is connected to a first end of the impedance transformation circuit, a second end of the impedance transformation circuit is an input end of the smart antenna, and the input end of the smart antenna is connected to a feeder; the antenna element array is configured to form a plurality of different beam shapes; for the plurality of different beam shapes, the feeding end of the antenna element array has different input impedance; and characterised in that: the impedance transformation circuit is configured to transform the different input impedance of the feeding end of the antenna element array into preset input impedance at the input end of the smart antenna, and a difference between the preset input impedance and characteristic impedance of the feeder is less than a preset value. a feeding end of the antenna element array is connected to a first end of the impedance transformation circuit, a second end of the impedance transformation circuit is an input end of the smart antenna, and the input end of the smart antenna is connected to a feeder; the antenna element array is configured to form a plurality of different beam shapes; for the plurality of different beam shapes, the feeding end of the antenna element array has different input impedance; and characterised in that: the impedance transformation circuit is configured to transform the different input impedance of the feeding end of the antenna element array into preset input impedance at the input end of the smart antenna, and a difference between the preset input impedance and characteristic impedance of the feeder is less than a preset value.