mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing a connection of a mobile terminal, UE, (701, 801, 901, 1001, 1101) to a mobile radio communication network comprising: a first common control plane function (703, 803, 903, 1003, 1103) of a mobile radio communication network receiving a connection request from a mobile terminal (701, 801, 901, 1001, 1101); the first common control plane function (703, 803, 903, 1003, 1103) authenticating the mobile terminal (701, 801, 901, 1001, 1101) including generating an authentication context of the mobile terminal (701, 801, 901, 1001, 1101); the first common control plane function (703, 803, 903, 1003, 1103) forwarding the connection request and transmitting the authentication context of the mobile terminal (701, 801, 901, 1001, 1101) to a second common control plane function (704, 804, 904, 1004, 1104) of the mobile radio communication network; the second common control plane function (704, 804, 904, 1004, 1104) connecting the mobile terminal (701, 801, 901, 1001, 1101) to the mobile radio communication network. a first common control plane function (703, 803, 903, 1003, 1103) of a mobile radio communication network receiving a connection request from a mobile terminal (701, 801, 901, 1001, 1101); the first common control plane function (703, 803, 903, 1003, 1103) authenticating the mobile terminal (701, 801, 901, 1001, 1101) including generating an authentication context of the mobile terminal (701, 801, 901, 1001, 1101); the first common control plane function (703, 803, 903, 1003, 1103) forwarding the connection request and transmitting the authentication context of the mobile terminal (701, 801, 901, 1001, 1101) to a second common control plane function (704, 804, 904, 1004, 1104) of the mobile radio communication network; the second common control plane function (704, 804, 904, 1004, 1104) connecting the mobile terminal (701, 801, 901, 1001, 1101) to the mobile radio communication network.
Method for manufacturing a membrane electrode assembly for a fuel cell, comprising a membrane, two reinforcers, two seals, gas diffusion layers and a catalyst, the method comprising the following steps: - a step during which a seal is applied to each of the reinforcers using screen printing, - a step during which a reinforcer bearing a screen-printed seal is thermally bonded to each of the faces of the membrane, - a step during which a catalytic chemical element is applied to two gas diffusion layers, - a step during which a catalysed gas diffusion layer is thermally bonded to each of the faces of the membrane bearing a reinforcer and a seal, the method being such that the various elements are held on a support by suction during at least some of the steps of the method. - a step during which a seal is applied to each of the reinforcers using screen printing, - a step during which a reinforcer bearing a screen-printed seal is thermally bonded to each of the faces of the membrane, - a step during which a catalytic chemical element is applied to two gas diffusion layers, - a step during which a catalysed gas diffusion layer is thermally bonded to each of the faces of the membrane bearing a reinforcer and a seal,
A sealing device for an opening in the shell of a flap, in particular a tailgate of a motor vehicle, which has a flap outer wall with at least two outer wall parts (5, 6), which respectively have on facing circumferential wall regions an inwardly angled-away peripheral region (7, 8), which peripheral regions are connected to one another, with a flap inner wall, which has at least one inner wall part, which is connected at a distance from the angled-away peripheral regions (7, 8) of the outer wall parts (5, 6) to at least one circumferential region of the flap outer wall and, in the region of the angled-away peripheral regions (7, 8) of the outer wall parts (5, 6), forms together with the flap outer wall a gap, characterised in that the sealing device has a gap filling part which is brought into a closing position suitable for closing the gap, in which the gap is sealed on its own by the gap filling part or by the gap filling part together with a gap sealing means.
A hairless, immunodeficient mouse having a hr allele ( Hr hr) and both a B-cell deficiency and a T-cell deficiency, wherein the mouse is homozygous for the recessive hr allele ( Hr hr) and homozygous for a recessive Prkdc scid allele, which thereby disrupts differentiation of both B lymphocyte progenitor cells and T lymphocyte progenitor cells.
Crystalline Form B of (1R,5S)-1-(naphthalen-2-yl)-3-azabicyclo[3.1.0]hexane hydrochloride, wherein the Crystalline Form B exhibits an X-ray powder diffraction (XRPD) pattern comprising at least three 2-theta (°) values selected from the group consisting of 6.0±0.2, 17.4±0.2, 18.9±0.2, 19.2±0.2, and 24.4±0.2, wherein the XRPD is measured using an incident beam of Cu K α radiation having a wavelength of 1.54059 Å, and wherein the Crystalline Form B comprises less than 20 wt.% of any other crystalline form of (1R,5S)-1-(naphthalen-2-yl)-3-azabicyclo[3.1.0]hexane hydrochloride.
A remainder reducing member that is attached to an interior of a flexible inner bag disposed in an interior of an aerosol container in order to reduce a final remaining amount of content to be discharged, the remainder reducing member being constituted by a solid rod-shaped body and comprising: an attachment portion (220, 320) attached to an inflow port of said inner bag such that said content can flow therein, a guiding portion (230, 330) provided with a plurality of guiding grooves (231, 331) formed in a lengthwise direction of an outer periphery thereof, wherein a sectional shape of a part formed with said guiding grooves (231, 331) is uniform in said lengthwise direction, characterized in that an overlap prevention portion (240, 340) is provided in an intermediate position of said guiding portion (230, 330) in said lengthwise direction, said overlap prevention portion (240, 340) being formed to have a sectional shape different from the shape of the part formed with said guiding grooves (231, 331). an attachment portion (220, 320) attached to an inflow port of said inner bag such that said content can flow therein, a guiding portion (230, 330) provided with a plurality of guiding grooves (231, 331) formed in a lengthwise direction of an outer periphery thereof, wherein a sectional shape of a part formed with said guiding grooves (231, 331) is uniform in said lengthwise direction, characterized in that an overlap prevention portion (240, 340) is provided in an intermediate position of said guiding portion (230, 330) in said lengthwise direction, said overlap prevention portion (240, 340) being formed to have a sectional shape different from the shape of the part formed with said guiding grooves (231, 331).
A method of styling hair comprising the following steps: i) using a crystalline organic material or mixtures thereof to manufacture a hair care composition; wherein the crystalline organic material or mixtures thereof comprises pipecolic acid and has the intrinsic property of taking up water at 25°C and 70% relative humidity of at least 10 wt% of its total weight at 0.1% relative humidity. ii) applying said hair composition to the hair. i) using a crystalline organic material or mixtures thereof to manufacture a hair care composition; wherein the crystalline organic material or mixtures thereof comprises pipecolic acid and has the intrinsic property of taking up water at 25°C and 70% relative humidity of at least 10 wt% of its total weight at 0.1% relative humidity. ii) applying said hair composition to the hair.
A fashion item including a flexible thin wall with locally and selectively expandable areas the thin wall comprising: - an internal core made of a lining material which can expand, - a support layer comprising an external face opposite an internal face on which the internal core is arranged, said support layer being configured so that the expansion of the lining material does not substantially cause its deformation, - an impermeable covering layer attached to the support layer, said covering layer being configured such that the expansion of the lining material substantially causes its deformation, the fashion item characterised in that: • the material can expand in contact with a liquid, and in that • the covering layer tightly enclose the internal core, and includes one or a plurality of through holes opening onto the internal core and arranged relative to each other so as to form a predefined matrix. - an internal core made of a lining material which can expand, - a support layer comprising an external face opposite an internal face on which the internal core is arranged, said support layer being configured so that the expansion of the lining material does not substantially cause its deformation, - an impermeable covering layer attached to the support layer, said covering layer being configured such that the expansion of the lining material substantially causes its deformation, the fashion item characterised in that: • the material can expand in contact with a liquid, and in that • the covering layer tightly enclose the internal core, and includes one or a plurality of through holes opening onto the internal core and arranged relative to each other so as to form a predefined matrix. • the material can expand in contact with a liquid, and in that • the covering layer tightly enclose the internal core, and includes one or a plurality of through holes opening onto the internal core and arranged relative to each other so as to form a predefined matrix.
An apparatus for feeding fish, defined as objects to a process line, the apparatus comprising: - a plurality of of workstations, each workstation comprising an object receiver, each object receiver comprising: - a chamber - sensing means in each object receiver for detecting an object in the object receiver, - releasing means (5 and 6) for releasing objects from the object receiver, - a V-shaped conveyor common to the plurality of workstations, said V-shaped conveyor comprising: - two individual continuous flank conveyor belts (7a and 7b) being arranged in a V-shape and running synchronously in an outfeed direction to feed the objects further in a processing line, - slide resisting means on the surface of the two individual continuous conveyor belts, and - computing means for determining object spaces on the V-shaped conveyor and to determine the time for each releasing means to eject the object onto a designated object space on the v-shaped conveyor, wherein the computing means divides the V-shaped conveyor into object spaces and when an object space is free it assigns an object in one of the object receivers to that object space and ejects the object out of the object receiver and onto the v-shaped conveyor. - a plurality of of workstations, each workstation comprising an object receiver, each object receiver comprising: - a chamber - sensing means in each object receiver for detecting an object in the object receiver, - releasing means (5 and 6) for releasing objects from the object receiver, - a chamber - sensing means in each object receiver for detecting an object in the object receiver, - releasing means (5 and 6) for releasing objects from the object receiver, - a V-shaped conveyor common to the plurality of workstations, said V-shaped conveyor comprising: - two individual continuous flank conveyor belts (7a and 7b) being arranged in a V-shape and running synchronously in an outfeed direction to feed the objects further in a processing line, - slide resisting means on the surface of the two individual continuous conveyor belts, and - two individual continuous flank conveyor belts (7a and 7b) being arranged in a V-shape and running synchronously in an outfeed direction to feed the objects further in a processing line, - slide resisting means on the surface of the two individual continuous conveyor belts, and - computing means for determining object spaces on the V-shaped conveyor and to determine the time for each releasing means to eject the object onto a designated object space on the v-shaped conveyor, wherein the computing means divides the V-shaped conveyor into object spaces and when an object space is free it assigns an object in one of the object receivers to that object space and ejects the object out of the object receiver and onto the v-shaped conveyor.
A method of sensing magnetic indicia on at least one financial check, comprising: (a) receiving at least one check in an automated banking machine, wherein the at least one check includes a check comprising magnetic indicia encoded in a micr line thereon; (b) sensing through operation of at least one sensor in the machine, a width associated with the check, wherein the at least one sensor is in operative connection with at least one processor in the machine; (c) moving responsive at least in part to the width sensed in (b), at least one of two magnetic read heads (714, 716) in the machine, wherein the at least one magnetic read head is moved responsive at least in part to operation of the at least one processor, wherein the at least one magnetic read head is moved such that the micr line on the check is aligned with one of the magnetic read heads (714, 716) regardless of a facing position of the check; (d) moving the check past the two magnetic read heads (714, 716) in the machine responsive at least in part to operation of the at least one processor; and (e) sensing micr line data on the check with one of the two magnetic read heads (714, 716); wherein prior to (b) the check is positioned and aligned in a direction transverse to the direction of movement of the check in the machine until a longitudinal edge of the check is aligned with a virtual wall formed by alignment sensors, wherein in (c) the at least one magnetic read head is positioned by the at least one processor using the sensed width of the positioned and aligned check in an appropriate transverse position associated with a micr line on the check relative to the aligned and positioned longitudinal edge of the check. (a) receiving at least one check in an automated banking machine, wherein the at least one check includes a check comprising magnetic indicia encoded in a micr line thereon; (b) sensing through operation of at least one sensor in the machine, a width associated with the check, wherein the at least one sensor is in operative connection with at least one processor in the machine; (c) moving responsive at least in part to the width sensed in (b), at least one of two magnetic read heads (714, 716) in the machine, wherein the at least one magnetic read head is moved responsive at least in part to operation of the at least one processor, wherein the at least one magnetic read head is moved such that the micr line on the check is aligned with one of the magnetic read heads (714, 716) regardless of a facing position of the check; (d) moving the check past the two magnetic read heads (714, 716) in the machine responsive at least in part to operation of the at least one processor; and (e) sensing micr line data on the check with one of the two magnetic read heads (714, 716);
A measurement instrument for testing a device under test, wherein the device under test has at least two test points (20, 24), wherein the measurement instrument comprises a first measurement channel, a second measurement channel, and a machine-learning module, wherein the first measurement channel is configured to process a first input signal associated with one of the at least two test points (20, 24), thereby generating a first measurement signal, wherein the second measurement channel is configured to process a second input signal associated with another one of the at least two test points (20, 24), thereby generating a second measurement signal, wherein the machine-learning module is configured to determine at least one correlation quantity based on the first measurement signal and based on the second measurement signal, and wherein the at least one correlation quantity is indicative of a correlation between the first measurement signal and the second measurement signal. wherein the measurement instrument comprises a first measurement channel, a second measurement channel, and a machine-learning module, wherein the first measurement channel is configured to process a first input signal associated with one of the at least two test points (20, 24), thereby generating a first measurement signal, wherein the second measurement channel is configured to process a second input signal associated with another one of the at least two test points (20, 24), thereby generating a second measurement signal, wherein the machine-learning module is configured to determine at least one correlation quantity based on the first measurement signal and based on the second measurement signal, and wherein the at least one correlation quantity is indicative of a correlation between the first measurement signal and the second measurement signal.
An emissive device, comprising: a) a substrate having a substrate surface; b) a chiplet having a thickness of 20μm or less adhered to the substrate's surface, the chiplet having one or more connection pads at its upper surface; c) a bottom electrode on the substrate surface, the bottom electrode being adjacent to the chiplet, one or more organic or inorganic light-emitting layers over the bottom electrode, and a top electrode over the one or more organic or inorganic light-emitting layers, the bottom electrode, the organic or inorganic light-emitting layers and the top electrode together being a light emitting diode, LED; d) an insulating transition layer over only an end portion of the chiplet and over only a portion of the substrate surface, the transition layer exposing at least one of said connection pads and a portion of the substrate upon which the bottom electrode is formed; and e) an electrical conductor connecting the exposed connection pad with the bottom electrode, wherein the bottom electrode is in common with the electrical conductor such that it extends from the exposed surface of the substrate and on the transition layer to the exposed connection pad. a) a substrate having a substrate surface; b) a chiplet having a thickness of 20μm or less adhered to the substrate's surface, the chiplet having one or more connection pads at its upper surface; c) a bottom electrode on the substrate surface, the bottom electrode being adjacent to the chiplet, one or more organic or inorganic light-emitting layers over the bottom electrode, and a top electrode over the one or more organic or inorganic light-emitting layers, the bottom electrode, the organic or inorganic light-emitting layers and the top electrode together being a light emitting diode, LED; d) an insulating transition layer over only an end portion of the chiplet and over only a portion of the substrate surface, the transition layer exposing at least one of said connection pads and a portion of the substrate upon which the bottom electrode is formed; and e) an electrical conductor connecting the exposed connection pad with the bottom electrode, wherein the bottom electrode is in common with the electrical conductor such that it extends from the exposed surface of the substrate and on the transition layer to the exposed connection pad.
A method of focusing particles, the method comprising: providing a suspension of the particles in a first suspending medium comprising a polymer imparting viscoelastic properties to the medium; and flowing the suspension along a channel having a longitudinal axis and a cross-section perpendicular thereto and having at least one cross-sectional dimension smaller than 100μm; wherein the viscoelastic properties of the first suspending medium are selected according to a relationship between elasticity, viscosity, and shear-thinning of the first suspending medium and size of the particles, wherein the strength of the focusing effect increases with increasing one or more of elasticity, shear-thinning, and particle size, and decreases with increasing viscosity, such that when the suspension is flowing through the channel, a concentration of the particles suspended therein is provided in a focus region aligned with the longitudinal axis of the channel; and wherein the focus region includes a center of the channel, and the concentration of the particles is maximum at the center of the channel. providing a suspension of the particles in a first suspending medium comprising a polymer imparting viscoelastic properties to the medium; and flowing the suspension along a channel having a longitudinal axis and a cross-section perpendicular thereto and having at least one cross-sectional dimension smaller than 100μm; wherein the viscoelastic properties of the first suspending medium are selected according to a relationship between elasticity, viscosity, and shear-thinning of the first suspending medium and size of the particles, wherein the strength of the focusing effect increases with increasing one or more of elasticity, shear-thinning, and particle size, and decreases with increasing viscosity, such that when the suspension is flowing through the channel, a concentration of the particles suspended therein is provided in a focus region aligned with the longitudinal axis of the channel; and wherein the focus region includes a center of the channel, and the concentration of the particles is maximum at the center of the channel.
Transmission comprising a ring gear within which a flexible gearwheel is arranged, wherein a flexible gearwheel is connected to a wave generator and the wave generator deforms the flexible gearwheel so that it meshes partially with the ring gear, and wherein the flexible gearwheel comprises at least two toothed segments (7.1, 7.2) which are connected to each other by means of spring segments, at least one of the toothed segments (7.1) features a recess, each of the spring segments features a median plane (M FS) that includes a central median axis of the transmission and divides the respective spring segment into two areas of equal length, and each recess features a median plane (M A) that comprises the central median axis of the transmission and divides the recess in two areas of equal size, and the median plane (M FS) of each spring segment shows a different distance to the median plane (M A) of the recess adjacent to each side of the median plane (M FS) of the spring segment, characterized in that a gudgeon element is arranged in the recess of the at least one toothed segment (7.1).