mhurhangee/ep-ind-claims huggingface dataset:
A current collector device for mounting on a vehicle to transmit electric power between a current conductor located in the surface of a road and the vehicle, wherein the current collector device comprises: - a base for connecting the current collector device to the vehicle; - an elongated current collector arm that is in operable connection with the base; - a current collector pick-up head attached to the elongated current collector arm distally from the base; and wherein the current collector device further comprises at least one vane (180, 280, 380,480) arranged on the elongated current collector arm, the at least one vane (180, 280, 380,480) being configured to increase the surface area of the elongated current collector arm, characterized in that the at least one vane (280, 280a-c, 380) is slanted towards the current collector pick-up head, and wherein the at least one vane is asymmetrical around the elongated current collector arm such that a radial extent of the at least one vane is larger in a downwards direction than in an upwards direction. - a base for connecting the current collector device to the vehicle; - an elongated current collector arm that is in operable connection with the base; - a current collector pick-up head attached to the elongated current collector arm distally from the base; and
A monitoring system comprising: a plurality of optical sensors disposed on one or more fiber optic waveguides, each optical sensor spaced apart from other optical sensors of the plurality of optical sensors and disposed at a location along a route defined by a transportation structure that supports a moveable conveyance as the conveyance moves along the transportation structure, the plurality of optical sensors being mechanically coupled to one or both of the transportation structure and the moveable conveyance, each optical sensor providing an optical output signal responsive to vibrational emissions of one or both of the transportation structure and the conveyance; a detector unit configured to convert optical output signals from the optical sensors to electrical signals; characterized by further comprising a data acquisition controller configured to control application of excitation light to the optical sensors in synchrony with the movement of the conveyance and such that only a preselected set of sensors receive excitation light during a particular time window when the conveyance is moving near the selected sensors and to synchronize recordation of the electrical signals with movement of the conveyance, wherein the data acquisition controller is configured to limit recordation of an electrical signal corresponding to a particular optical sensor signal to a time window during which the conveyance is within a predetermined distance from the location of the optical sensor. a plurality of optical sensors disposed on one or more fiber optic waveguides, each optical sensor spaced apart from other optical sensors of the plurality of optical sensors and disposed at a location along a route defined by a transportation structure that supports a moveable conveyance as the conveyance moves along the transportation structure, the plurality of optical sensors being mechanically coupled to one or both of the transportation structure and the moveable conveyance, each optical sensor providing an optical output signal responsive to vibrational emissions of one or both of the transportation structure and the conveyance; a detector unit configured to convert optical output signals from the optical sensors to electrical signals; characterized by further comprising a data acquisition controller configured to control application of excitation light to the optical sensors in synchrony with the movement of the conveyance and such that only a preselected set of sensors receive excitation light during a particular time window when the conveyance is moving near the selected sensors and to synchronize recordation of the electrical signals with movement of the conveyance, wherein the data acquisition controller is configured to limit recordation of an electrical signal corresponding to a particular optical sensor signal to a time window during which the conveyance is within a predetermined distance from the location of the optical sensor.
An apparatus comprising: a first host; and a first accelerator communicatively coupled to the first host, including: a first memory; a first page table to perform a translation of virtual addresses to physical addresses in the first memory; and a first trusted agent to validate the address translations, wherein the first trusted agent validating the address translations comprises: using tokens to validate a request to access the first memory, wherein the request is received from a second trusted agent at a second accelerator and includes a physical address to be accessed in the first memory, and determining whether the physical address in said request received from the second trusted agent matches a physical address associated with a virtual address received from the host. a first host; and a first accelerator communicatively coupled to the first host, including: a first memory; a first page table to perform a translation of virtual addresses to physical addresses in the first memory; and a first trusted agent to validate the address translations, wherein the first trusted agent validating the address translations comprises: using tokens to validate a request to access the first memory, wherein the request is received from a second trusted agent at a second accelerator and includes a physical address to be accessed in the first memory, and determining whether the physical address in said request received from the second trusted agent matches a physical address associated with a virtual address received from the host. a first memory; a first page table to perform a translation of virtual addresses to physical addresses in the first memory; and a first trusted agent to validate the address translations, wherein the first trusted agent validating the address translations comprises: using tokens to validate a request to access the first memory, wherein the request is received from a second trusted agent at a second accelerator and includes a physical address to be accessed in the first memory, and determining whether the physical address in said request received from the second trusted agent matches a physical address associated with a virtual address received from the host. using tokens to validate a request to access the first memory, wherein the request is received from a second trusted agent at a second accelerator and includes a physical address to be accessed in the first memory, and determining whether the physical address in said request received from the second trusted agent matches a physical address associated with a virtual address received from the host.
A printed circuit board for a radar fill level measurement device, comprising - a non-conductive planar printed circuit board substrate; - a microwave conductor, configured to couple a microwave signal into a waveguide arranged on the printed circuit board substrate; wherein on a front side of the printed circuit substrate, a circumferential connecting region, configured to receive a front-side end of a waveguide, is arranged; wherein one end of the microwave conductor projects into the connection region so that microwave signals can pass from the microwave conductor into the waveguide and vice versa; wherein on a rear side of the printed circuit board substrate opposite to the connecting region, a circumferential recess in the direction of the waveguide is arranged; wherein the wall of the recess and a region of the rear side of the printed circuit board substrate surrounded by the recess comprise a microwave-reflective coating, so that they form together a resonator for the injected microwave signals. - a non-conductive planar printed circuit board substrate; - a microwave conductor, configured to couple a microwave signal into a waveguide arranged on the printed circuit board substrate;
Method for producing a catalytically active wall flow filter for removing particles from the exhaust gas of internal combustion engines, the wall flow filter comprising a length L, a catalytically active coating Z and the channels E and A, which extend in parallel between a first end and a second end of the wall flow filter and which are separated by porous walls forming surfaces O E and O A, and the channels E being closed at the second end and the channels A being closed at the first end, the coating Z being deposited with a loading of 20 g/l to 200 g/l in the channels A on the walls of the surfaces O A, and the coating extending over the walls of the surfaces O A, starting from the second end of the wall flow filter, over a length of 10% to 90% of the length L, characterized in that subsequently at least one dry powder gas aerosol comprising high-melting metal compounds has additionally been applied to the inlet region E of the catalytically coated filter, the powder gas aerosol being applied to the catalytically coated filter by dispersing the powder in a gas which is then fed to a gas flow and subsequently sucked through the filter on the inlet side, and the ratio of the average particle diameter d50 of the Q 3 distribution, measured according to the latest ISO13320 on the filing date, in the dry powder aerosol to the average pore diameter of the filter after coating with washcoat, measured according to the latest version of DIN66134 on the filing date, being between 0.03 and 2, and the aerosol being sucked through the filter at a speed of 5 m/s to 50 m/s, so that the cell wall regions which have the strongest through-flow are covered with loose, inherently porous powder accumulations in the pores.
Counter hold system for a drilling system, comprising an axially and radially flexible, preferably tubular, bellows with two annular openings, and a cylinder body which is axially movable in a cylinder housing with two ends, wherein a. the bellows is connected at one annular opening to the outer surface of the cylinder body or to the outer surface at one end of the cylinder housing, and on its other annular opening to an opposite end of the cylinder housing, so that an annular hollow space is formed between the inner surface of the bellows and the outer surface of the cylinder housing, and b. means are provided to lead a pressurized medium into the bellows, preferably in the form of an inlet in the cylinder housing leading into the annular hollow space, characterized in that the bellows is provided in such a way that, while pressurizing, the bellows first expands radially out until a predetermined pressure is reached, and then expands axially and pushes the cylinder body forward. a. the bellows is connected at one annular opening to the outer surface of the cylinder body or to the outer surface at one end of the cylinder housing, and on its other annular opening to an opposite end of the cylinder housing, so that an annular hollow space is formed between the inner surface of the bellows and the outer surface of the cylinder housing, and b. means are provided to lead a pressurized medium into the bellows, preferably in the form of an inlet in the cylinder housing leading into the annular hollow space,
A truck mounted forklift for mounting on the rear of a vehicle, the truck mounted forklift comprising a u-shaped chassis having a pair of forwardly projecting side bars bridged by a rear crossbar, a wheel adjacent the forwardmost end of each of the side bars and a rear wheel mounted on the rear cross bar, a driver's station mounted to one side of the chassis, a motive power unit mounted on the other side of the chassis and a linkage lifting assembly mounted on the chassis, the linkage lifting assembly comprising: a carriage slidably mountable on the chassis, the carriage being slidable towards and away from the rear crossbar and means to move the carriage back and forth along the chassis; and a linkage, characterized in that the linkage comprising: an upright elongate first link connected at its proximal end to the carriage by a pivot joint; an elongate second link connected at its proximal end to the distal end of the first link by a pivot joint, the elongate second link comprising a telescopic link having a plurality of link sections (109(a), 109(b)) nested together; a fork carriage connected to the distal end of the second link by a pivot joint; a plurality of link cylinders (115, 117) for actuating the links; a telescoping cylinder for lengthening and shortening the telescopic second link; and a tilt cylinder for actuating the fork carriage. a carriage slidably mountable on the chassis, the carriage being slidable towards and away from the rear crossbar and means to move the carriage back and forth along the chassis; and a linkage, characterized in that the linkage comprising: an upright elongate first link connected at its proximal end to the carriage by a pivot joint; an elongate second link connected at its proximal end to the distal end of the first link by a pivot joint, the elongate second link comprising a telescopic link having a plurality of link sections (109(a), 109(b)) nested together; a fork carriage connected to the distal end of the second link by a pivot joint; a plurality of link cylinders (115, 117) for actuating the links; a telescoping cylinder for lengthening and shortening the telescopic second link; and a tilt cylinder for actuating the fork carriage. an upright elongate first link connected at its proximal end to the carriage by a pivot joint; an elongate second link connected at its proximal end to the distal end of the first link by a pivot joint, the elongate second link comprising a telescopic link having a plurality of link sections (109(a), 109(b)) nested together; a fork carriage connected to the distal end of the second link by a pivot joint; a plurality of link cylinders (115, 117) for actuating the links; a telescoping cylinder for lengthening and shortening the telescopic second link; and a tilt cylinder for actuating the fork carriage.
A reduced genome Escherichia coli K-12 strain MG1655 bacterium, having deleted therefrom at least the following DNA segments: b0245-b0301, b0303-b0310, b1336-b1411, b4426-b4427, b2441-b2450, b2622-b2654, b2657-b2660, b4462, b1994-b2008, b4435, b3322-b3338, b2349-b2363, b1539-b1579, b4269-b4320, b2968-b2972, b2975-b2977, b2979-b2987, b4466-4468, b1137-b1172, b0537-b0565, b0016-b0022, b4412-b4413, b0577-b0582, b4415, b2389-b2390, b2392-b2395, b0358-b0368, b0370-b0380, b2856-b2863, b3042-b3048, b0656, b1325-b1333, b2030-b2062, b2190-b2192, b3215-b3219, b3504-b3505, b1070-b1083, b1878-b1894, b1917-b1950, b4324-b4342, b4345-b4358, b4486, b0497-b0502, b0700-b0706, b1456-b1462, b3481-b3484, b3592-b3596, b0981-b0988, b1021-b1029, b2080-b2096, b4438, b3440-b3445, b4451, b3556-b3558, b4455, b1786, b0150-b0153 and b2945, wherein said bacterium lacks all insertion sequences and lacks a functional polB gene and lacks a functional dinB gene and optionally lacks a functional umuDC gene.
An elastic thread transporting assembly for transporting thread to a production line comprising: a thread creel for supplying multiple threads, said creel defining an unwinding location; a carrier for transporting said threads to said production line along a carrier path; an attachment device for attaching said threads to said carrier, said attachment device being placed in close proximity to said unwinding location; said carrier path providing unrestricted access to said threads between said unwinding location and said production line. a thread creel for supplying multiple threads, said creel defining an unwinding location; a carrier for transporting said threads to said production line along a carrier path; an attachment device for attaching said threads to said carrier, said attachment device being placed in close proximity to said unwinding location; said carrier path providing unrestricted access to said threads between said unwinding location and said production line.
Process for the production of a thermoplastic polyurethane elastomer comprising a first step in which at least A) one organic diisocyanate comprising two isocyanate groups, B) one polyol with number-average molar mass M n ≥ 500 and ≤ 5000 g/mol, which has two isocyanate-reactive groups, are reacted to give an isocyanate-terminated prepolymer, and a second step in which the prepolymer is reacted with C) one or more chain extenders with molar mass ≥ 60 and ≤ 490 g/mol, which have two isocyanate-reactive groups, and optionally D) a monofunctional chain terminator which has an isocyanate-reactive group and/or optionally E) an organic diisocyanate comprising two isocyanate groups, where F) a catalyst is optionally used in the first and/or second step, the molar ratio of the entirety of the isocyanate groups from A) and optionally E) to the entirety of the isocyanate-reactive groups in B), C), and optionally D) iso 0.9:1 and ≤ 1.2:1 and component B) comprises at least one polyether carbonate polyol obtainable via an addition reaction of carbon dioxide and alkylene oxides onto H-functional starter substances. A) one organic diisocyanate comprising two isocyanate groups, B) one polyol with number-average molar mass M n ≥ 500 and ≤ 5000 g/mol, which has two isocyanate-reactive groups, are reacted to give an isocyanate-terminated prepolymer, and a second step in which the prepolymer is reacted with C) one or more chain extenders with molar mass ≥ 60 and ≤ 490 g/mol, which have two isocyanate-reactive groups, and optionally D) a monofunctional chain terminator which has an isocyanate-reactive group and/or optionally E) an organic diisocyanate comprising two isocyanate groups, where F) a catalyst is optionally used in the first and/or second step, the molar ratio of the entirety of the isocyanate groups from A) and optionally E) to the entirety of the isocyanate-reactive groups in B), C), and optionally D) iso 0.9:1 and ≤ 1.2:1 and component B) comprises at least one polyether carbonate polyol obtainable via an addition reaction of carbon dioxide and alkylene oxides onto H-functional starter substances.
A network analyzer for optimizing radio coverage and power consumption within a mobile communication network, and configured to gather radio measurements (UE_meas1; BS_meas1; BS_meas2) carried out by subscriber devices and/or radio base stations (21; 23), and user geographical locations (UE_pos1; UE_pos2; UE_pos3) at the time the radio measurements have been carried out, wherein the network analyzer is further configured to derive antenna geographical locations of certain cells (ant_pos22; ant_pos23) from the radio measurements and the user geographical locations, to adjust the parameters of radio propagation models (rpm22; rmp23) from the so-derived antenna geographical locations that best fit the radio measurements at the user geographical locations, and to supply the so-adjusted parametric radio propagation models from the so-derived antenna geographical locations to a radio resource controller for activation of dormant cells (c22; c23).
A brush seal (100; 160) for a gas turbine engine, comprising: an annular backing plate (122; 166); a first bristle pack (120; 164) coupled to the annular backing plate (122; 166) oriented in an axial direction; a second bristle pack (102; 162) coupled to the first bristle pack (120; 164) and oriented in the axial direction, wherein a first bristle of the first bristle pack (120; 164) comprises a greater diameter than a second bristle of the second bristle pack (102; 162), a retention structure (124; 168) coupled to the second bristle pack (102; 162); and an anti-rotation structure coupled to the retention structure (124; 168); characterised by the retention structure comprising an annular protrusion that protrudes radially outward from the second bristle pack (102; 162); and by the anti-rotation structure having an arm that protrudes radially outward from the brush seal at a circumferential end of the anti-rotation structure.
A tactile display comprising: an actuating mechanism (3503, 3504) including one or more electromagnetic actuating elements; a braille dot assembly including one or more tactile elements; wherein the one or more tactile elements of said braille dot assembly are housed in a unit that is separable from the one or more electromagnetic actuating elements of the actuating mechanism (3503, 3504); and wherein the unit housing the one or more tactile elements comprises a membrane positioned between the braille dot assembly and the actuating mechanism. an actuating mechanism (3503, 3504) including one or more electromagnetic actuating elements; a braille dot assembly including one or more tactile elements; wherein the one or more tactile elements of said braille dot assembly are housed in a unit that is separable from the one or more electromagnetic actuating elements of the actuating mechanism (3503, 3504); and wherein the unit housing the one or more tactile elements comprises a membrane positioned between the braille dot assembly and the actuating mechanism.
A fingerprint sensing device comprising: an array of sensing elements, each of said sensing elements being configured to provide a signal indicative of an electromagnetic coupling between said sensing element and a finger placed on a surface of the fingerprint sensing device; a first dielectric layer arranged to cover said array of sensing elements, said first dielectric layer comprising a plurality of recesses at a top surface of the first dielectric layer, said recesses being distributed across said array of sensing elements with a spacing between adjacent ones of said recesses being less than 400 μm, wherein each of said recesses has a substantially circular cross-section in a plane parallel to said surface of the fingerprint sensing device on which said finger is placed; and a top hydrophobic layer arranged on said top surface of the first dielectric layer, in said recesses and between said recesses, to provide said surface of the sensing device on which said finger is placed, such that when said top hydrophobic layer is worn away through use of said fingerprint sensing device, hydrophobic material will remain in said recesses where it is protected from wear and tear. an array of sensing elements, each of said sensing elements being configured to provide a signal indicative of an electromagnetic coupling between said sensing element and a finger placed on a surface of the fingerprint sensing device; a first dielectric layer arranged to cover said array of sensing elements, said first dielectric layer comprising a plurality of recesses at a top surface of the first dielectric layer, said recesses being distributed across said array of sensing elements with a spacing between adjacent ones of said recesses being less than 400 μm, wherein each of said recesses has a substantially circular cross-section in a plane parallel to said surface of the fingerprint sensing device on which said finger is placed; and a top hydrophobic layer arranged on said top surface of the first dielectric layer, in said recesses and between said recesses, to provide said surface of the sensing device on which said finger is placed, such that when said top hydrophobic layer is worn away through use of said fingerprint sensing device, hydrophobic material will remain in said recesses where it is protected from wear and tear.