mhurhangee/ep-ind-claims huggingface dataset:
A negative electrode plate, comprising: a negative electrode current collector, comprising an organic support layer and a metal conductive layer disposed on at least one surface of the organic support layer; a negative electrode active material layer, comprising at least a first active material layer, the first active material layer being disposed on the surface of the metal conductive layer away from the organic support layer, and the first active material layer comprising a first active material; wherein in a first cross section in a thickness direction of the negative electrode plate, the first active material has a size a in a direction parallel to the metal conductive layer, the first active material has a size b in the thickness direction, and a and b satisfy 0.8 ≤ a / b ≤ 20; and in a second cross section in the thickness direction of the negative electrode plate, the first active material has a size c in the direction parallel to the metal conductive layer, the first active material has a size d in the thickness direction, and c and d satisfy 0.8 ≤ c / d ≤ 20; and the first cross section is parallel to a first direction, the second cross section is parallel to a second direction, and the first direction intersects with the second direction. a negative electrode current collector, comprising an organic support layer and a metal conductive layer disposed on at least one surface of the organic support layer; a negative electrode active material layer, comprising at least a first active material layer, the first active material layer being disposed on the surface of the metal conductive layer away from the organic support layer, and the first active material layer comprising a first active material; wherein in a first cross section in a thickness direction of the negative electrode plate, the first active material has a size a in a direction parallel to the metal conductive layer, the first active material has a size b in the thickness direction, and a and b satisfy 0.8 ≤ a / b ≤ 20; and in a second cross section in the thickness direction of the negative electrode plate, the first active material has a size c in the direction parallel to the metal conductive layer, the first active material has a size d in the thickness direction, and c and d satisfy 0.8 ≤ c / d ≤ 20; and the first cross section is parallel to a first direction, the second cross section is parallel to a second direction, and the first direction intersects with the second direction.
An electric drive device comprising an electric motor with a stator and a rotor arranged to rotate a drive shaft, wherein said electric motor is arranged to be accommodated in a housing, further comprising opposite gear housings (30a, 30b) surrounding the electric motor, each containing a transmission configuration (60, 70), wherein a housing configuration in which the electric motor as well as said opposite gear housings (30a, 30b) are accommodated, characterized in that each gear housing (30a, 30b; 130a, 130b) is attached and hereby locked to said housing configuration, wherein the respective gear housing (30a, 30b) is locked axially as well as circumferentially to said housing configuration.
A method for facilitating reference signal, RS, measurements in an OFDM system, said system comprising a network node configured to transmit to a user equipment over a defined system bandwidth, the method characterised by the following steps, performed by the network node: - obtaining a first low interference bandwidth for the cell serving the user equipment, said first low interference bandwidth being smaller than the system bandwidth, and wherein data transmission is suppressed in a sub frame over the first low interference bandwidth, - retrieving a RS transmission bandwidth for a cell, said RS transmission bandwidth being smaller than the system bandwidth, - determining a RS measurement bandwidth based on the RS transmission bandwidth, said first low interference bandwidth and on a second low interference bandwidth of a neighbouring cell; and - transmitting the RS measurement bandwidth to a user equipment when said RS measurement bandwidth is smaller than the RS transmission bandwidth, in order for the user equipment to measure the RS of the cell. - obtaining a first low interference bandwidth for the cell serving the user equipment, said first low interference bandwidth being smaller than the system bandwidth, and wherein data transmission is suppressed in a sub frame over the first low interference bandwidth, - retrieving a RS transmission bandwidth for a cell, said RS transmission bandwidth being smaller than the system bandwidth, - determining a RS measurement bandwidth based on the RS transmission bandwidth, said first low interference bandwidth and on a second low interference bandwidth of a neighbouring cell; and - transmitting the RS measurement bandwidth to a user equipment when said RS measurement bandwidth is smaller than the RS transmission bandwidth, in order for the user equipment to measure the RS of the cell.
A stator of a resolver, comprising: a core having an annular shape and a plurality of teeth protruded from an inner circumferential surface or an outer circumferential surface of the core along a circumference thereof; an insulator that has an annular shape and covers a part of the core; windings wound around the teeth with the insulator interposed therebetween; and a cover that covers the windings and connecting wires that are extensions of the windings, wherein the insulator comprises winding parts around each of which the windings are wound, a connecting wire part having an annular shape and on which the connecting wires are disposed, a barrier wall provided on a side of the connecting wire part opposite to the winding parts, a plurality of island parts formed along a circumference thereof on a side of the barrier wall opposite to the connecting wire part, and a positioning projection part being formed on each of the island parts, the cover is formed by a plurality of cover sections arranged along a circumference thereof, each of the cover sections has a protrusion part that corresponds to one of the island parts, and the protrusion part is welded and fixed to the one of the island parts, and each of the cover sections is positioned with a positioning recess formed in the protrusion part being fitted onto the positioning projection part and a side wall thereof being interposed between the barrier wall and the positioning projection part. a core having an annular shape and a plurality of teeth protruded from an inner circumferential surface or an outer circumferential surface of the core along a circumference thereof; an insulator that has an annular shape and covers a part of the core; windings wound around the teeth with the insulator interposed therebetween; and a cover that covers the windings and connecting wires that are extensions of the windings, wherein the insulator comprises winding parts around each of which the windings are wound, a connecting wire part having an annular shape and on which the connecting wires are disposed, a barrier wall provided on a side of the connecting wire part opposite to the winding parts, a plurality of island parts formed along a circumference thereof on a side of the barrier wall opposite to the connecting wire part, and a positioning projection part being formed on each of the island parts, the cover is formed by a plurality of cover sections arranged along a circumference thereof, each of the cover sections has a protrusion part that corresponds to one of the island parts, and the protrusion part is welded and fixed to the one of the island parts, and each of the cover sections is positioned with a positioning recess formed in the protrusion part being fitted onto the positioning projection part and a side wall thereof being interposed between the barrier wall and the positioning projection part.
A mechanical torque transmission element, comprising a body extending along an axis of extension (X-X), said body having: - a through or blind hole extending about said axis of extension (X-X), - an inner surface of the hole facing said axis of extension (X-X); - a trapezoidal thread complying with ISO 2901:2016, formed on said surface, said thread comprising a plurality of turns which extend in a helical pattern between two end turns (5a, 5b), spaced apart from each other in the direction of the axis of extension (X-X), - each turn defines a crest portion projecting toward the axis of extension (X-X), and - said thread defines respective groove portions between the crest portions of each pair of successive turns, wherein - at the crest portion of at least one turn, two elevated portions of the crest portion, separated by a centerline of the crest portion which extends all along the turn, are deformed so as to be elevated with respect to the centerline and to close up by plastic deformation in mutual contact above the centerline. - a through or blind hole extending about said axis of extension (X-X), - an inner surface of the hole facing said axis of extension (X-X); - a trapezoidal thread complying with ISO 2901:2016, formed on said surface, said thread comprising a plurality of turns which extend in a helical pattern between two end turns (5a, 5b), spaced apart from each other in the direction of the axis of extension (X-X), - each turn defines a crest portion projecting toward the axis of extension (X-X), and - said thread defines respective groove portions between the crest portions of each pair of successive turns, wherein - at the crest portion of at least one turn, two elevated portions of the crest portion, separated by a centerline of the crest portion which extends all along the turn, are deformed so as to be elevated with respect to the centerline and to close up by plastic deformation in mutual contact above the centerline.
A Self-Contained Breathing Apparatus (SCBA) for use by emergency responders, comprising: a backpack; a bottle of gas secured to the backpack; a motion detection system comprising: a first motion sensing element, and a second motion sensing element; and at least one Personal Alert Safety System (PASS) (302 and 304) comprising an alarm, characterized in that the motion detection system is configured to: receive motion information from the first motion sensing element and the second motion sensing element, determine the alarm status of a user based upon the information received from both the first motion sensing element and the second motion sensing element, and only when both the first motion sensing element and the second motion sensing element indicate no motion for a set time period, activate the alarm associated with the at least one PASS (302 and 304). a backpack; a bottle of gas secured to the backpack; a motion detection system comprising: a first motion sensing element, and a second motion sensing element; and a first motion sensing element, and a second motion sensing element; and at least one Personal Alert Safety System (PASS) (302 and 304) comprising an alarm, characterized in that the motion detection system is configured to: receive motion information from the first motion sensing element and the second motion sensing element, determine the alarm status of a user based upon the information received from both the first motion sensing element and the second motion sensing element, and only when both the first motion sensing element and the second motion sensing element indicate no motion for a set time period, activate the alarm associated with the at least one PASS (302 and 304). receive motion information from the first motion sensing element and the second motion sensing element, determine the alarm status of a user based upon the information received from both the first motion sensing element and the second motion sensing element, and only when both the first motion sensing element and the second motion sensing element indicate no motion for a set time period, activate the alarm associated with the at least one PASS (302 and 304).
Method for simultaneous cleaning of exhaust gas from CO 2 and manufacturing a supplementary cementitious material from recycled concrete fines, comprising the steps: - providing recycled concrete fines with d 90 ≤ 1000 μm in a stockpile or silo as starting material - flushing the starting material with the exhaust gas providing a carbonated material, - withdrawing the carbonated material and cleaned exhaust gas, and - de-agglomerating the carbonated material to form the supplementary cementitious material. - providing recycled concrete fines with d 90 ≤ 1000 μm in a stockpile or silo as starting material - flushing the starting material with the exhaust gas providing a carbonated material, - withdrawing the carbonated material and cleaned exhaust gas, and - de-agglomerating the carbonated material to form the supplementary cementitious material.
A key sharing method for a Machine Type Communication, MTC, server, comprising: when an MTC device needs to perform safe communications with a second MTC server while the MTC device establishes a safe connection with a first MTC server and performs safe communications with the first MTC server after establishing the safe connection via a Generic Bootstrapping Architecture, GBA, process, sending, by the MTC device, a request message to the second MTC server, wherein the request message contains a bootstrapping identifier, B-TID, currently used by the MTC device and the first MTC server, and a host identifier NAF-ID 1 of the first MTC server; after receiving the request message from the MTC device, sending, by the second MTC server, an authentication request to a Bootstrapping Server Function, BSF, wherein the authentication request contains a host identifier NAF-ID 2 of the second MTC server, the B-TID, and the host identifier NAF-ID 1 of the first MTC server; after receiving the authentication request from the second MTC server, generating, by the BSF, a session key K NAF according to the B-TID and the NAF-ID 1 included in the authentication request, and sending the generated K NAF to the second MTC server via an authentication request response message. when an MTC device needs to perform safe communications with a second MTC server while the MTC device establishes a safe connection with a first MTC server and performs safe communications with the first MTC server after establishing the safe connection via a Generic Bootstrapping Architecture, GBA, process, sending, by the MTC device, a request message to the second MTC server, wherein the request message contains a bootstrapping identifier, B-TID, currently used by the MTC device and the first MTC server, and a host identifier NAF-ID 1 of the first MTC server; after receiving the request message from the MTC device, sending, by the second MTC server, an authentication request to a Bootstrapping Server Function, BSF, wherein the authentication request contains a host identifier NAF-ID 2 of the second MTC server, the B-TID, and the host identifier NAF-ID 1 of the first MTC server; after receiving the authentication request from the second MTC server, generating, by the BSF, a session key K NAF according to the B-TID and the NAF-ID 1 included in the authentication request, and sending the generated K NAF to the second MTC server via an authentication request response message.
A filtration medium for filtration of liquids and/or gases, the filtration medium comprising at least one mat having a first surface and a second surface, wherein at least one of the first surface or the second surface is substantially non-planar and has a convolution profile, with non-uniform placement of convolutions, characterized in that the mat is configured into cylindrical format by rolling the mat around a winding axis such that the first surface is in contact with the second surface.
A Method for covalently binding an organic metal complex with at least one metal center and at least one organic ligand to a polymer, comprising performing a first reaction, which comprises - a first reactant in the form of an organic metal complex and - a second reactant in the form of a polymer, wherein the metal complex is covalently bound to the polymer during the reaction, characterized in that the reaction is catalyzed by the metal center of the metal complex. - a first reactant in the form of an organic metal complex and - a second reactant in the form of a polymer,
A method for decomposing a cured epoxy resin composite material in the form of a carbon fiber reinforced plastic (CFRP) containing a fiber assembly, comprising the steps of: - pre-treating the cured epoxy resin composite material by introducing the cured epoxy resin composite material into a mixed composition of a surfactant and acetic acid; - heating the mixture at 120°C for 24 hours; - separating the cured epoxy resin composite material; - washing the cured epoxy resin composite material with acetone, and - drying the cured epoxy resin composite material; - depolymerizing the cured epoxy resin composite material by introducing the pre-treated cured epoxy resin composite material into an aqueous sodium hypochlorite solution contained in an open glass container and allowing to stand at 90°C for 20 hours; wherein, during the depolymerisation, the cured epoxy resin composite material is inserted between two sheets of stainless steel mesh and compressed and fixed with a binding clip to retain the organizational structure of the fiber assembly, wherein the cured epoxy resin composite material is not subjected to agitation or fluidization during the depolymerisation and wherein the fiber assembly retains its organizational shape by itself after the cured epoxy resin composite material is decomposed. - pre-treating the cured epoxy resin composite material by introducing the cured epoxy resin composite material into a mixed composition of a surfactant and acetic acid; - heating the mixture at 120°C for 24 hours; - separating the cured epoxy resin composite material; - washing the cured epoxy resin composite material with acetone, and - drying the cured epoxy resin composite material; - depolymerizing the cured epoxy resin composite material by introducing the pre-treated cured epoxy resin composite material into an aqueous sodium hypochlorite solution contained in an open glass container and allowing to stand at 90°C for 20 hours;
A method for image processing, the method performed by at least one processor and comprising: obtaining an input low resolution,LR, image comprising a height, a width, and a number of channels; implementing a feature learning deep neural network,DNN, configured to compute a feature tensor based on the input LR image; generating (S204, S205), by an upscaling DNN, a high resolution,HR, image, having a higher resolution than the input LR image, based on the feature tensor computed by the feature learning DNN, wherein a networking structure of the upscaling DNN differs depending on different scale factors, and wherein a networking structure of the feature learning DNN is a same structure for each of the different scale factors. obtaining an input low resolution,LR, image comprising a height, a width, and a number of channels; implementing a feature learning deep neural network,DNN, configured to compute a feature tensor based on the input LR image; generating (S204, S205), by an upscaling DNN, a high resolution,HR, image, having a higher resolution than the input LR image, based on the feature tensor computed by the feature learning DNN, wherein a networking structure of the upscaling DNN differs depending on different scale factors, and wherein a networking structure of the feature learning DNN is a same structure for each of the different scale factors.
Lighting apparatus for a motor vehicle, comprising one or more light sources and an optical device (4, 5), which is designed such that a first light distribution is generated in an intermediate image plane from one or more light beams whose light originates from respective light sources and that, from the first light distribution, a second light distribution in the form of a target light distribution is generated in front of the lighting apparatus, wherein the optical device comprises an exit optical unit imaging the first light distribution into the second light distribution, wherein the optical device (4, 5) comprises one or more spatial phase modulators onto which in each case at least one light beam is incident and which are electrically controllable to variably set a phase modulation of the at least one light beam which is incident thereon, wherein the spatial phase modulator(s) are controlled during operation of the lighting apparatus such that only one phase modulation of the light beam(s) is carried out and substantially the entire luminous flux at the respective phase modulator after passage of the at least one light beam that is incident thereon is contained in the first light distribution, wherein the lighting apparatus comprises an individual spatial phase modulator and an individual monochromatic light source, characterized in that in the real intermediate image plane, a conversion element is arranged which converts the monochromatic light beam from the individual light source into a different colour spectrum and/or into white light.
Illumination arrangement comprising an LED chip array consisting of at least two LED chips secured on a carrier component having conductor tracks with which the LED chips are electrically contacted, wherein • the carrier component consists of an electrically insulating ceramic, • the mounting side of the carrier component for the LED chips has a plurality of stepped levels (12, 13, 14), • the LED chips are secured on at least two different levels (12, 13, 14), • the conductor tracks are provided as metallization on the mounting side forming the surface of the carrier component, • the LED chips are electrically connected in series at least in groups, wherein a mutual contacting of LED chips on adjacent levels (12, 13, 14) is respectively provided, characterized in that respective contacting of the LED chips on adjacent levels (12, 13, 14) among one another is formed by a bond wire, wherein the bond wire is respectively secured on an emissive side of the LED chip and on a contact pad of the next higher level (12, 13, 14), said contact pad being provided for this purpose. • the carrier component consists of an electrically insulating ceramic, • the mounting side of the carrier component for the LED chips has a plurality of stepped levels (12, 13, 14), • the LED chips are secured on at least two different levels (12, 13, 14), • the conductor tracks are provided as metallization on the mounting side forming the surface of the carrier component, • the LED chips are electrically connected in series at least in groups, wherein a mutual contacting of LED chips on adjacent levels (12, 13, 14) is respectively provided,