mhurhangee/ep-ind-claims huggingface dataset:
A housing designed to invariantly attenuate mobile radio signals of a plurality of mobile telephones, having the plurality of mobile telephones, having a housing wall, comprising a polymer comprising electrically conductive particles, a plurality of housing intermediate elements made from the polymer comprising electrically conductive particles, and a plurality of telephone spacing elements arranged at the housing wall, wherein in the housing a plurality of inner chambers into which the mobile telephones can be inserted are provided and enclosed by the housing wall and the housing intermediate elements, the plurality of telephone spacing elements are arranged between the mobile telephones and the housing wall in such a way that an air gap is formed, the housing wall attenuates the mobile radio signals of the mobile telephones by ≥ 3 dB and by ≤ 15 dB on the side of the housing wall facing away from the inner chamber, as compared to an unobstructed propagation, the telephone spacing elements are arranged in such a way that an air gap is formed, and that the mobile telephones are fixed in the inner chamber, and the telephone spacing elements are arranged between the mobile telephones and all housing side walls, between the mobile telephones and a housing base, and, when the inner chamber is covered with a housing cover, between the mobile telephones and the housing cover.
A spatial light modulator comprising: a two-dimensional, 2D, array of a plurality of pixels, each of the plurality of pixels including a single liquid crystal cell and a driving circuit configured to drive the liquid crystal cell; a black matrix arranged between the plurality of pixels, the black matrix being disposed to block light such that the driving circuit is not seen; and a mask member having a periodic pattern that is arranged to split an area of the liquid crystal cell of each of the plurality of pixels into at least two portions, wherein the periodic pattern comprises an opaque black mask that blocks transmission of light and wherein a pattern width of the mask member is substantially equal to a pattern width of the black matrix. a two-dimensional, 2D, array of a plurality of pixels, each of the plurality of pixels including a single liquid crystal cell and a driving circuit configured to drive the liquid crystal cell; a black matrix arranged between the plurality of pixels, the black matrix being disposed to block light such that the driving circuit is not seen; and a mask member having a periodic pattern that is arranged to split an area of the liquid crystal cell of each of the plurality of pixels into at least two portions, wherein the periodic pattern comprises an opaque black mask that blocks transmission of light and wherein a pattern width of the mask member is substantially equal to a pattern width of the black matrix.
An environment-friendly flooring material formed by sequentially stacking a surface layer film, a printing layer, and a back layer sheet from an upper part, wherein the surface layer film includes a thermoplastic polyurethane resin having a Shore hardness of 40D to 80D, a softening point of 100°C to 150°C, and a light transmittance of 90% or more, and the back layer sheet includes a thermoplastic polyurethane resin having a Shore hardness of 40D to 80D and a softening point of 100°C to 150°C.
A combination of a fish-bite detector connected to a buzz bar by way of an attachment device which comprises a fixed part and a screw-threaded part, characterized in that the screw-threaded part can rotate relative to the fixed part in a given sense against the frictional force exerted by at least one slipping clutch member (22, 28) interposed between those parts (12, 16), the device further being provided with a one-way bearing which inhibits rotation of the screw-threaded part relative to the fixed part in the opposite sense.
A method comprising inserting fasteners into a stack of members and terminating the fasteners with nuts having at least one of a dry dielectric coating and an inner dry dielectric seal at select locations to protect against electromagnetic effects, characterised in that the nuts have an outer dielectric seal at a proximal location, the seal having a thickness between about 2.0% to 15.0% of nut diameter, and a height between about 2.2% and 22.3% of nut height.
A reinforcement structure for a vehicle, said reinforcement structure having a main extension direction and comprising a first portion and a second portion, said first portion comprising, or consisting of, a more ductile material than said second portion, said first portion and said second portion are joined to each other in an overlap zone extending along said main extension direction, such that said first portion and said second portion extend parallel to each other along said main extension direction in said overlap zone, characterised in that, said first portion being adapted to form an upper portion and said second portion being adapted to form a lower portion of said reinforcement structure when located in said vehicle.
A method for producing a metal borohydride, wherein the method comprises A1. providing metal boron oxide and Hz to allow a synthesis process to proceed and to yield metal borohydride, especially metal borohydride and Oz, according to the overall reaction formula Me(BO 2) n + 2n H 2 → Me(BH 4) n + n O 2; and A2. optionally providing metal hydroxide, B 2 O 3 and Hz to allow a synthesis process to proceed and to yield metal borohydride, optionally metal borohydride and Oz, wherein the synthesis process proceeds according to the reaction formula 4 Me n + 2n B 2 O 3 + 6n H 2 → 4 Me(BH 4) n + 5n O 2, in which Me is a metal and n is the valence of the metal ion. A1. providing metal boron oxide and Hz to allow a synthesis process to proceed and to yield metal borohydride, especially metal borohydride and Oz, according to the overall reaction formula Me(BO 2) n + 2n H 2 → Me(BH 4) n + n O 2; and A2. optionally providing metal hydroxide, B 2 O 3 and Hz to allow a synthesis process to proceed and to yield metal borohydride, optionally metal borohydride and Oz, wherein the synthesis process proceeds according to the reaction formula 4 Me n + 2n B 2 O 3 + 6n H 2 → 4 Me(BH 4) n + 5n O 2,
A transformer comprising: a "Y"-shaped magnetic core that includes a top portion and a bottom portion, wherein the top portion and the bottom portion both include a plurality of "Y"-shaped laminates stacked on top of one another and bent to form a plurality of core limbs (22a, 22b, 22c); a plurality of input windings (24a, 24b, 24c) wound around each of the plurality of core limbs (22a, 22b, 22c); and a plurality of output windings (26a, 26b, 26c) wound around each of the plurality of core limbs (22a, 22b, 22c), wherein the top portion and the bottom portion are oriented such that the plurality of core limbs (22a, 22b, 22c) in the top portion are aligned with the plurality of core limbs (22a, 22b, 22c) in the bottom portion and characterised in that the top portion and the bottom portion include a key hole mechanism formed in a center portion of each of the laminates associated with a core limb and aligning each of the laminates with one another in the same orientation and the key hole mechanism having an irregular shape. a "Y"-shaped magnetic core that includes a top portion and a bottom portion, wherein the top portion and the bottom portion both include a plurality of "Y"-shaped laminates stacked on top of one another and bent to form a plurality of core limbs (22a, 22b, 22c); a plurality of input windings (24a, 24b, 24c) wound around each of the plurality of core limbs (22a, 22b, 22c); and a plurality of output windings (26a, 26b, 26c) wound around each of the plurality of core limbs (22a, 22b, 22c), wherein the top portion and the bottom portion are oriented such that the plurality of core limbs (22a, 22b, 22c) in the top portion are aligned with the plurality of core limbs (22a, 22b, 22c) in the bottom portion and characterised in that the top portion and the bottom portion include a key hole mechanism formed in a center portion of each of the laminates associated with a core limb and aligning each of the laminates with one another in the same orientation and the key hole mechanism having an irregular shape.
A rotorcraft with at least one main rotor and a fuselage, comprising: a tail boom connected to the fuselage, the tail boom extending in a longitudinal direction from the fuselage toward a duct-type portion; a shroud provided at the duct-type portion and forming a transverse duct comprising a circumferential direction and a longitudinal extension oriented at least essentially perpendicular to the circumferential direction and the longitudinal direction of the tail boom; and at least one ducted tail rotor rotatably arranged in the transverse duct; wherein the shroud comprises a first section connected to the tail boom and a second section spaced apart from the tail boom and diametrically opposed to the first section along the longitudinal direction of the tail boom, the first section comprising an airfoil-like aerodynamic profile, characterized in that the transverse duct comprises a depth oriented at least essentially in parallel to the longitudinal extension of the transverse duct, and in that the depth varies along the circumferential direction of the transverse duct. a tail boom connected to the fuselage, the tail boom extending in a longitudinal direction from the fuselage toward a duct-type portion; a shroud provided at the duct-type portion and forming a transverse duct comprising a circumferential direction and a longitudinal extension oriented at least essentially perpendicular to the circumferential direction and the longitudinal direction of the tail boom; and at least one ducted tail rotor rotatably arranged in the transverse duct; wherein the shroud comprises a first section connected to the tail boom and a second section spaced apart from the tail boom and diametrically opposed to the first section along the longitudinal direction of the tail boom, the first section comprising an airfoil-like aerodynamic profile, characterized in that the transverse duct comprises a depth oriented at least essentially in parallel to the longitudinal extension of the transverse duct, and in that the depth varies along the circumferential direction of the transverse duct.
A channel tube inspection device comprising an inspection head, a pushing cable, and an elongated intermediate part of which one end is connected to the inspection head and the other end is connected to the pushing cable, which intermediate part comprises elastically bendable portions which have a different elasticity, characterized in that the intermediate part possesses a bending rigidity gradually increasing over its length, where the bending rigidity of the intermediate part gradually increasing from the inspection head to the pushing cable, and in that the intermediate part is substantially solid and has a gradually diminishing diameter from the pushing cable to the inspection head.
A semiconductor laser, comprising: a substrate; an active area provided on the substrate, the active area including a quantum well structure; an emitter area provided on the substrate, the emitter area having a first conduction type; and a collector area provided on the substrate, the collector area having the first conduction type, wherein the quantum well structure causes a radiative transition of carrier of the first conduction type between a higher energy level to a lower energy level, the higher energy level being lower than or equal to an energy level of the carriers in the emitter area, the lower energy level being higher than or equal to an energy level of the carriers in the collector area characterized in that the active area, the emitter area and the collector area are laterally arranged on a top surface of the substrate such that the emitter area and the collector area sandwich the active area therebetween. a substrate; an active area provided on the substrate, the active area including a quantum well structure; an emitter area provided on the substrate, the emitter area having a first conduction type; and a collector area provided on the substrate, the collector area having the first conduction type, wherein the quantum well structure causes a radiative transition of carrier of the first conduction type between a higher energy level to a lower energy level, the higher energy level being lower than or equal to an energy level of the carriers in the emitter area, the lower energy level being higher than or equal to an energy level of the carriers in the collector area characterized in that the active area, the emitter area and the collector area are laterally arranged on a top surface of the substrate such that the emitter area and the collector area sandwich the active area therebetween.
Laboratory apparatus in which biological or microbiological samples are processed or stored, comprising a UV irradiation device having at least one UV emitter for carrying out a disinfection process, and a control device, characterized in that the control device is designed to control the UV emitter and is designed to specify a duration (t) during which the UV emitter is operated during the disinfection process, and to specify the duration (t), using a control function stored in the control device, as a function of the operating time (d) of the UV emitter such that the duration (t) increases as the operating time (d) increases.
An outer-rotor type motor for a ceiling fan, comprising: a stator comprising an iron core and a shaft, wherein the iron core has an assembly hole and is coupled to a base, wherein the shaft extends through the assembly hole in an extending direction, and wherein the base comprises a recess; a rotor comprising a permanent magnet unit and rotating about the shaft; and a circuit unit arranged between the iron core and the shaft in a radial direction of the shaft perpendicular to the extending direction of the shaft, wherein the rotor does not extend into a space between the stator and the circuit unit, wherein the shaft, the circuit unit, the iron core and the permanent magnet unit are arranged in sequence in the radial direction of the shaft, wherein the outer-rotor type motor for the ceiling fan is characterized in that the iron core and the shaft are located outside the recess, that the shaft is non-rotatable, and that the circuit unit is arranged in the recess so that the circuit unit abuts the bottom of the recess and electronic components of the circuit unit extend into the assembly hole. a stator comprising an iron core and a shaft, wherein the iron core has an assembly hole and is coupled to a base, wherein the shaft extends through the assembly hole in an extending direction, and wherein the base comprises a recess; a rotor comprising a permanent magnet unit and rotating about the shaft; and a circuit unit arranged between the iron core and the shaft in a radial direction of the shaft perpendicular to the extending direction of the shaft, wherein the rotor does not extend into a space between the stator and the circuit unit, wherein the shaft, the circuit unit, the iron core and the permanent magnet unit are arranged in sequence in the radial direction of the shaft, wherein the outer-rotor type motor for the ceiling fan is characterized in that the iron core and the shaft are located outside the recess, that the shaft is non-rotatable, and that the circuit unit is arranged in the recess so that the circuit unit abuts the bottom of the recess and electronic components of the circuit unit extend into the assembly hole.
An information handling system comprising: a plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) defined on a plurality of physical data storage devices (311-317; 411-417; 511-517; 611-618; 711-717; 811-820), wherein at least one of the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) is comprised of at least one of a different type of physical storage device (311-317; 411-417; 511-517; 611-618; 711-717; 811-820) or a different number of physical data storage devices (311-317; 411-417; 511-517; 611-618; 711-717; 811-820) than at least one other of the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807); and a processing unit, wherein the processing unit is configured to dynamically allocate data to the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) so as to balance data I/O across the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807), wherein balancing data I/O comprises: determining a usage factor for each RAID device (301-304; 401-406; 501-507; 601-607; 701-704; 801-807), wherein the usage factor is the sum of overlapping disk usages of the extents of a given RAID device divided by the number of disks over which the device is striped; and wherein the balancing data I/O is based at least in part on the usage factor. a plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) defined on a plurality of physical data storage devices (311-317; 411-417; 511-517; 611-618; 711-717; 811-820), wherein at least one of the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) is comprised of at least one of a different type of physical storage device (311-317; 411-417; 511-517; 611-618; 711-717; 811-820) or a different number of physical data storage devices (311-317; 411-417; 511-517; 611-618; 711-717; 811-820) than at least one other of the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807); and a processing unit, wherein the processing unit is configured to dynamically allocate data to the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807) so as to balance data I/O across the plurality of RAID devices (301-304; 401-406; 501-507; 601-607; 701-704; 801-807), wherein balancing data I/O comprises: determining a usage factor for each RAID device (301-304; 401-406; 501-507; 601-607; 701-704; 801-807), wherein the usage factor is the sum of overlapping disk usages of the extents of a given RAID device divided by the number of disks over which the device is striped; and wherein the balancing data I/O is based at least in part on the usage factor. determining a usage factor for each RAID device (301-304; 401-406; 501-507; 601-607; 701-704; 801-807), wherein the usage factor is the sum of overlapping disk usages of the extents of a given RAID device divided by the number of disks over which the device is striped; and wherein the balancing data I/O is based at least in part on the usage factor.
A T cell proliferation method, characterized by comprising: step A, culturing a composition containing the T cells, by using a first culture medium which is able to stimulate T cells, so as to stimulate the T cells, wherein the first culture medium comprises interleukin-2 and phosphonic acid compounds, and optionally, also comprises interleukin-15, and vitamin C or a derivative of vitamin C.; and step B, using a second culture medium to culture stimulated T cells, wherein the second culture medium contains interleukin-2, interleukin-15, and vitamin C or a derivative of vitamin C. step A, culturing a composition containing the T cells, by using a first culture medium which is able to stimulate T cells, so as to stimulate the T cells, wherein the first culture medium comprises interleukin-2 and phosphonic acid compounds, and optionally, also comprises interleukin-15, and vitamin C or a derivative of vitamin C.; and step B, using a second culture medium to culture stimulated T cells, wherein the second culture medium contains interleukin-2, interleukin-15, and vitamin C or a derivative of vitamin C.
Method for compressing electrode material applied to a collector tape, with the following features: a. the method serves the purpose of compressing electrode material which has been applied to a collector tape and together with it forms an electrode tape, wherein the electrode material has been applied to the collector tape at least on one side and wherein on this side at least one free area which is in the form of a strip and extends in a longitudinal direction of the collector tape is free from electrode material, and b. the electrode tape is guided in a conveying direction, which is parallel to the longitudinal direction of the electrode tape, through a compression gap, which brings about a compression of the electrode material, and c. force is applied in the longitudinal direction to the at least one free area in order in this way to bring about a stretching of the collector tape in the free area, characterized by the following feature: d. the stretching of the collector tape in the at least one free area in the longitudinal direction takes place by force being applied to the collector tape downstream of the compression gap in the conveying direction by means of at least one conveying roller, selectively acting on the free area, and the collector tape simultaneously being restrained upstream of the compression gap in the conveying direction by at least one braking roller of a braking device, selectively acting on the free area, such that the collector tape is subjected to tensile stress in the free area between the braking device and the conveying device and a plastic strain in the longitudinal direction is thereby brought about in the free area. a. the method serves the purpose of compressing electrode material which has been applied to a collector tape and together with it forms an electrode tape, wherein the electrode material has been applied to the collector tape at least on one side and wherein on this side at least one free area which is in the form of a strip and extends in a longitudinal direction of the collector tape is free from electrode material, and b. the electrode tape is guided in a conveying direction, which is parallel to the longitudinal direction of the electrode tape, through a compression gap, which brings about a compression of the electrode material, and c. force is applied in the longitudinal direction to the at least one free area in order in this way to bring about a stretching of the collector tape in the free area,
A method for determining electrophysiology properties of tissue, the method comprising: acquiring electrical signal data from a plurality of electrodes of one or more catheters (10, 30, 100, 50, 70, 400); determining at least one electrode clique (71, 72, 73) from the plurality of adjacent electrodes; computing local conduction velocity vectors for the at least one electrode clique (71, 72, 73); determining at least one catheter orientation independent indicator from which to classify an arrhythmia source based on one or more of an angular dependence parameter associated with a flow field of the local velocity conduction vectors, an eccentricity parameter reflecting the uniformity of local conduction velocity, and divergence and curl-like sums or closed path integral parameters associated with the local velocity vectors; and displaying a rhythm classification responsive to catheter movement thereby facilitating identification of types and causes of arrhythmia disorders. acquiring electrical signal data from a plurality of electrodes of one or more catheters (10, 30, 100, 50, 70, 400); determining at least one electrode clique (71, 72, 73) from the plurality of adjacent electrodes; computing local conduction velocity vectors for the at least one electrode clique (71, 72, 73); determining at least one catheter orientation independent indicator from which to classify an arrhythmia source based on one or more of an angular dependence parameter associated with a flow field of the local velocity conduction vectors, an eccentricity parameter reflecting the uniformity of local conduction velocity, and divergence and curl-like sums or closed path integral parameters associated with the local velocity vectors; and displaying a rhythm classification responsive to catheter movement thereby facilitating identification of types and causes of arrhythmia disorders.