mhurhangee/ep-ind-claims huggingface dataset:
A drum hoist, comprising a driven main shaft at least one loose drum arranged on said main shaft with a brake, a coupling apparatus for releasably connecting loose drum and main shaft, the coupling apparatus comprising: - a drum wheel with an internal toothed structure, which is connected in a torque-proof manner to said loose drum, - a shaft wheel with an external toothed structure, which is connected in a torque-proof manner to said main shaft, - a coupler wheel with an external toothed structure and an internal toothed structure, which is axially displaceable in an engagement direction and a disengagement direction on said external toothed structure of said shaft wheel, - a sliding ring connected on an end side in a torque-proof manner to said coupler wheel and - a switching apparatus 14) arranged fixedly on a frame of said drum hoist for displacing said sliding ring in the engagement and disengagement direction (15, 16), wherein said external toothed structure of said coupler wheel can be brought into engagement with said internal toothed structure of said drum wheel by axial displacement in the engagement direction and can be brought out of engagement by axial displacement in the disengagement direction, characterized in that - at least one locking body is fastened to said coupler wheel, - the teeth of said internal toothed structure of said drum wheel have a groove for receiving said locking body, said groove extending in a circumferential direction of said drum wheel, - there is a backlash between the teeth of said internal toothed structure of said drum wheel and the teeth of said external toothed structure of said coupler wheel, so that each locking body can be brought into and out of engagement with one of said grooves by rotation of said engaged coupler wheel with respect to said drum wheel by the amount of the backlash. - a drum wheel with an internal toothed structure, which is connected in a torque-proof manner to said loose drum, - a shaft wheel with an external toothed structure, which is connected in a torque-proof manner to said main shaft, - a coupler wheel with an external toothed structure and an internal toothed structure, which is axially displaceable in an engagement direction and a disengagement direction on said external toothed structure of said shaft wheel, - a sliding ring connected on an end side in a torque-proof manner to said coupler wheel and - a switching apparatus 14) arranged fixedly on a frame of said drum hoist for displacing said sliding ring in the engagement and disengagement direction (15, 16), - at least one locking body is fastened to said coupler wheel, - the teeth of said internal toothed structure of said drum wheel have a groove for receiving said locking body, said groove extending in a circumferential direction of said drum wheel, - there is a backlash between the teeth of said internal toothed structure of said drum wheel and the teeth of said external toothed structure of said coupler wheel, so that each locking body can be brought into and out of engagement with one of said grooves by rotation of said engaged coupler wheel with respect to said drum wheel by the amount of the backlash.
Method of determining the mass of piece goods on conveyor equipment, comprising the steps: a) distributing individual items of the piece goods on the conveyor equipment in such a way that at least half thereof do not mutually overlap in a given direction of projection, b) conveying the piece goods on the conveyor equipment along a conveying direction through a detection region of at least one camera, c) generating mutually adjoining or partly overlapping images of the items in the detection region with the help of the camera, wherein line images covering a width of the conveyor equipment are generated by the camera, d) generating geometric data of the items on the basis of the images in dependence on the position of the items on the conveyor equipment and e) calculating the mass of the items arranged on the conveyor equipment on the basis of the geometric data thereof in dependence on the position of the items on the conveyor equipment, wherein the projection area measure of the items is multiplied by the mean area mass, wherein f) a mean area mass is determined in advance for the piece goods, g) a projection area measure of a projection area of each item of the piece goods in the given projection direction is determined as a part of the geometric data in step e) and h) triggering of the camera is initiated by a signal reproducing the advance of the conveyor equipment. a) distributing individual items of the piece goods on the conveyor equipment in such a way that at least half thereof do not mutually overlap in a given direction of projection, b) conveying the piece goods on the conveyor equipment along a conveying direction through a detection region of at least one camera, c) generating mutually adjoining or partly overlapping images of the items in the detection region with the help of the camera, wherein line images covering a width of the conveyor equipment are generated by the camera, d) generating geometric data of the items on the basis of the images in dependence on the position of the items on the conveyor equipment and e) calculating the mass of the items arranged on the conveyor equipment on the basis of the geometric data thereof in dependence on the position of the items on the conveyor equipment, wherein the projection area measure of the items is multiplied by the mean area mass, wherein f) a mean area mass is determined in advance for the piece goods, g) a projection area measure of a projection area of each item of the piece goods in the given projection direction is determined as a part of the geometric data in step e) and h) triggering of the camera is initiated by a signal reproducing the advance of the conveyor equipment.
A method for analyte detection from a biological sample using an immunoassay comprising: a) providing a modified porous membrane having a structure of Formula: wherein A is an electron beam (e-beam) reactive moiety, poly x is a polymer of the e-beam reactive moiety and x is a number of A monomers present in the poly x polymer; wherein B is a reactive maleimide group; wherein the linkage forms a bond between the poly x polymer and the B, and wherein the poly x -linkage-B is a polymer coating covalently grafted to the porous membrane; b) incubating the modified porous membrane with a first biomolecule, wherein the first biomolecule binds to the modified porous membrane through reaction with the B reactive group to form an activated porous membrane comprising the first biomolecules; and c) adding a biological sample comprising at least an analyte to the activated porous membrane for analyte detection by capturing the analyte by the first biomolecule of the activated porous membrane; wherein the e-beam reactive moiety of A is selected from the group consisting of a methacrylate, an acrylate, an acrylamide, a vinyl ketone, a styrenic, a vinyl ether, a vinyl-containing moiety, an allyl-containing moiety, a benzyl-based compound, a tertiary-carbon (CHR 3)-based compound, and any combination of two or more of the above functional moieties. a) providing a modified porous membrane having a structure of Formula: wherein A is an electron beam (e-beam) reactive moiety, poly x is a polymer of the e-beam reactive moiety and x is a number of A monomers present in the poly x polymer; wherein B is a reactive maleimide group; wherein the linkage forms a bond between the poly x polymer and the B, and wherein the poly x -linkage-B is a polymer coating covalently grafted to the porous membrane; wherein A is an electron beam (e-beam) reactive moiety, poly x is a polymer of the e-beam reactive moiety and x is a number of A monomers present in the poly x polymer; wherein B is a reactive maleimide group; wherein the linkage forms a bond between the poly x polymer and the B, and wherein the poly x -linkage-B is a polymer coating covalently grafted to the porous membrane; b) incubating the modified porous membrane with a first biomolecule, wherein the first biomolecule binds to the modified porous membrane through reaction with the B reactive group to form an activated porous membrane comprising the first biomolecules; and c) adding a biological sample comprising at least an analyte to the activated porous membrane for analyte detection by capturing the analyte by the first biomolecule of the activated porous membrane; wherein the e-beam reactive moiety of A is selected from the group consisting of a methacrylate, an acrylate, an acrylamide, a vinyl ketone, a styrenic, a vinyl ether, a vinyl-containing moiety, an allyl-containing moiety, a benzyl-based compound, a tertiary-carbon (CHR 3)-based compound, and any combination of two or more of the above functional moieties.
A computing device to be used as part of a network fabric and including: a memory device; and a fabric controller (122; 222; 322; 422) coupled to the memory device, the fabric controller (122; 222; 322; 422) including processing circuitry having logic to communicate with a plurality of peer computing devices (102; 103; 202; 203; 302; 303; 402; 403) in the network fabric, the logic further to implement an adaptive compression scheme to: select, based on static information and on dynamic information relating to a peer computing device (102; 103; 202; 203; 302; 303; 402; 403) of the plurality of peer computing devices, a compression algorithm to compress a data payload destined for the peer computing device (102; 103; 202; 203; 302; 303; 402; 403), wherein the static information includes information on data payload decompression supported methods of the peer computing device (102; 103; 202; 203; 302; 303; 402; 403), and wherein the dynamic information includes information on link load at the peer computing device (102; 103; 202; 203; 302; 303; 402; 403); compress the data payload based on the selected compression algorithm and based on meta data associated with the selected compression algorithm; and send the data payload to the peer computing device (102; 103; 202; 203; 302; 303; 402; 403) after compressing, characterized in that the logic is to select the compression algorithm based on Quality of Service, QoS, requirements of the data payload. a memory device; and a fabric controller (122; 222; 322; 422) coupled to the memory device, the fabric controller (122; 222; 322; 422) including processing circuitry having logic to communicate with a plurality of peer computing devices (102; 103; 202; 203; 302; 303; 402; 403) in the network fabric, the logic further to implement an adaptive compression scheme to: select, based on static information and on dynamic information relating to a peer computing device (102; 103; 202; 203; 302; 303; 402; 403) of the plurality of peer computing devices, a compression algorithm to compress a data payload destined for the peer computing device (102; 103; 202; 203; 302; 303; 402; 403), wherein the static information includes information on data payload decompression supported methods of the peer computing device (102; 103; 202; 203; 302; 303; 402; 403), and wherein the dynamic information includes information on link load at the peer computing device (102; 103; 202; 203; 302; 303; 402; 403); compress the data payload based on the selected compression algorithm and based on meta data associated with the selected compression algorithm; and send the data payload to the peer computing device (102; 103; 202; 203; 302; 303; 402; 403) after compressing,
A device for active and passive electromagnetic detection with a low likelihood of interception, comprising a fixed antenna structure, emission means and reception means, - said antenna structure being made up of a plurality of radiating elements grouped into identical sub-arrays and comprising at least one emission sub-array and at least three reception sub-arrays distinct from said emission sub-arrays; - said emission means being able to generate a continuous or quasi-continuous waveform with a low peak power not focused in a plane and to transmit this waveform via the one or more emission sub-arrays; - said reception means being able to detect the targets after forming a plurality of directive beams on the basis of the signals received on said reception sub-array of said antenna structure; - said reception means being able to intercept radar signals originating from other radar sources using a cross-correlation process between the signals received on at least three receptions sub-arrays, the group formed from at least three reception sub-arrays realising a lacunar interferometry system that does not comply with the Shannon conditions on spatial sampling, said device being characterised in that said reception means are further able to perform an angular location of the potential radar emission sources by phase interferometry, with the reception sub-arrays used forming at least one first ambiguous interferometry base and one second non-ambiguous interferometry base. - said antenna structure being made up of a plurality of radiating elements grouped into identical sub-arrays and comprising at least one emission sub-array and at least three reception sub-arrays distinct from said emission sub-arrays; - said emission means being able to generate a continuous or quasi-continuous waveform with a low peak power not focused in a plane and to transmit this waveform via the one or more emission sub-arrays; - said reception means being able to detect the targets after forming a plurality of directive beams on the basis of the signals received on said reception sub-array of said antenna structure; - said reception means being able to intercept radar signals originating from other radar sources using a cross-correlation process between the signals received on at least three receptions sub-arrays, the group formed from at least three reception sub-arrays realising a lacunar interferometry system that does not comply with the Shannon conditions on spatial sampling,
Inductive device including a winding in which a ferromagnetic body having gaps is at least partially inserted, said winding being held in a metal housing of said device, characterized in that a thermally conductive film is placed between said ferromagnetic body and one of the bases of said metal housing, said film having an isostatic compression stiffness of less than 10 MPa.
A linear actuator system comprising: a screw member elongated along a longitudinal axis, said screw member comprising a threaded portion and an end portion; a nut member coaxially received over said screw member and in threaded engagement with said threaded portion of said screw member; a ring member received over said end portion of said screw member; a flange member connected to said end portion of said screw member; and a threaded member in threaded engagement with said flange member, said threaded member comprising a distal end protruding toward said ring member, wherein: said end portion of said screw member comprises a torque transfer feature; and said ring member is engaged with said torque transfer feature. a screw member elongated along a longitudinal axis, said screw member comprising a threaded portion and an end portion; a nut member coaxially received over said screw member and in threaded engagement with said threaded portion of said screw member; a ring member received over said end portion of said screw member; a flange member connected to said end portion of said screw member; and a threaded member in threaded engagement with said flange member, said threaded member comprising a distal end protruding toward said ring member, wherein: said end portion of said screw member comprises a torque transfer feature; and said ring member is engaged with said torque transfer feature.
An electronic printable medium comprising: a conductive sheet-shaped member; and an organic-metallic hybrid polymer deposited on the conductive sheet-shaped member, wherein the organic-metallic hybrid polymer is deposited on both sides of the conductive sheet-shaped member, and the organic-metallic hybrid polymer has a structure represented by the following general formula: wherein N represents an integer of 2 or more; each of M 1 to M N represents multiple types of metal ions having a various redox potential; each of X 1 to X N independently represents a counter anion; each of R 1 to R N independently represents a spacer containing a carbon atom and a hydrogen atom, or a spacer directly connecting two terpyridyl groups; each of R 1 1 to R 1 N, R 2 1 to R 2 N, R 3 1 to R 3 N, and R 4 1 to R 4 N independently represents a hydrogen atom or a substituent; and each of n 1 to n N independently represents an integer of 2 or more which indicates a degree of polymerization. a conductive sheet-shaped member; and an organic-metallic hybrid polymer deposited on the conductive sheet-shaped member, wherein the organic-metallic hybrid polymer is deposited on both sides of the conductive sheet-shaped member, and the organic-metallic hybrid polymer has a structure represented by the following general formula: wherein N represents an integer of 2 or more; each of M 1 to M N represents multiple types of metal ions having a various redox potential; each of X 1 to X N independently represents a counter anion; each of R 1 to R N independently represents a spacer containing a carbon atom and a hydrogen atom, or a spacer directly connecting two terpyridyl groups; each of R 1 1 to R 1 N, R 2 1 to R 2 N, R 3 1 to R 3 N, and R 4 1 to R 4 N independently represents a hydrogen atom or a substituent; and each of n 1 to n N independently represents an integer of 2 or more which indicates a degree of polymerization.
A method for receiving control information for a handover in a mobile communication system, the method comprising: receiving, at the mobile station, a handover command including handover resource information for the mobile station from a first base station, wherein the handover resource information is provided by a second base station to the first base station; and establishing by the mobile station a connection with the second base station by performing a random access procedure for the handover using the handover resource information, wherein the handover resource information includes information indicating a mobile station transmission power level to be allocated to the mobile station, and wherein the mobile station transmission power level to be allocated to the mobile station is higher than a second mobile station transmission power level to be allocated to at least one other mobile station for an attempt to perform a random access procedure to establish an initial connection with the second base station. receiving, at the mobile station, a handover command including handover resource information for the mobile station from a first base station, wherein the handover resource information is provided by a second base station to the first base station; and establishing by the mobile station a connection with the second base station by performing a random access procedure for the handover using the handover resource information, wherein the handover resource information includes information indicating a mobile station transmission power level to be allocated to the mobile station, and wherein the mobile station transmission power level to be allocated to the mobile station is higher than a second mobile station transmission power level to be allocated to at least one other mobile station for an attempt to perform a random access procedure to establish an initial connection with the second base station.
A repositionable mounting material (100, 200, 300) comprising: a mounting material having first and second opposed major surfaces (170; 172, 272) and comprising inorganic fibers; and a layer of repositionable pressure-sensitive adhesive (110, 210, 310) inwardly disposed along at least a portion of the first major surface, wherein the layer of repositionable pressure-sensitive adhesive (110, 210, 310) comprises: adhesive microspheres having a first particle size distribution with at least one first mode, each of which has a D50 of at least 30 micrometers, wherein D50 refers to that particle diameter wherein 50 percent by volume of the particles in the distribution have a smaller particle diameter; and binder particles, wherein the binder particles have a second particle size distribution with at least one second mode, each of which has a D50 that is less than 10 micrometers, and wherein at least one of the at least one second modes has a D50 below one micrometer; wherein the adhesive microspheres and binder particles are present in a weight ratio from 30:70 up to 70:30; wherein the repositionable mounting material is repositionably adherable to a monolith adapted for use in a pollution control device, and wherein a reference mounting material, prepared identically to the repositionable mounting material, except without the binder particles, is not repositionably adherable to the monolith. a mounting material having first and second opposed major surfaces (170; 172, 272) and comprising inorganic fibers; and a layer of repositionable pressure-sensitive adhesive (110, 210, 310) inwardly disposed along at least a portion of the first major surface, wherein the layer of repositionable pressure-sensitive adhesive (110, 210, 310) comprises: adhesive microspheres having a first particle size distribution with at least one first mode, each of which has a D50 of at least 30 micrometers, wherein D50 refers to that particle diameter wherein 50 percent by volume of the particles in the distribution have a smaller particle diameter; and binder particles, wherein the binder particles have a second particle size distribution with at least one second mode, each of which has a D50 that is less than 10 micrometers, and wherein at least one of the at least one second modes has a D50 below one micrometer; wherein the adhesive microspheres and binder particles are present in a weight ratio from 30:70 up to 70:30; wherein the repositionable mounting material is repositionably adherable to a monolith adapted for use in a pollution control device, and wherein a reference mounting material, prepared identically to the repositionable mounting material, except without the binder particles, is not repositionably adherable to the monolith.