mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a terminal in a wireless network, the method comprises: transmitting, to a base station, information regarding a number of receiving, RX, beams at the terminal; and receiving, from the base station, paging information based on a timing which is determined by the terminal based on the information regarding the number of RX beams, wherein the paging information comprises information for identifying the terminal. transmitting, to a base station, information regarding a number of receiving, RX, beams at the terminal; and receiving, from the base station, paging information based on a timing which is determined by the terminal based on the information regarding the number of RX beams, wherein the paging information comprises information for identifying the terminal.
A method of forming a pipe liner comprising a fabric sleeve with a barrier-coated inner surface and a longitudinal seam, the method comprising the steps of: a) providing a sheet of fabric comprising a barrier coating on one side; b) bringing two opposing side edges (103, 104) of the sheet of fabric together to form the fabric sleeve comprising the barrier coating on an inner surface of the fabric sleeve; c) providing a strip of carrier material comprising a liquid sealant on at least one surface of the strip of carrier material and arranging the strip of carrier material inside the fabric sleeve and in registration with the two opposing side edges (103, 104) of the sheet of fabric with the liquid sealant facing towards the two opposing side edges of the sheet of fabric; and d) joining together the two opposing side edges (103, 104) of the sheet of fabric with the strip of carrier material and the liquid sealant to form the longitudinal seam in the fabric sleeve wherein the strip of carrier material and the sealant cover each of the two opposing side edges of the sheet of fabric, and any gap in-between the opposing side edges, to provide the barrier-coated inner surface of the fabric sleeve, and thereby provide the pipe liner. a) providing a sheet of fabric comprising a barrier coating on one side; b) bringing two opposing side edges (103, 104) of the sheet of fabric together to form the fabric sleeve comprising the barrier coating on an inner surface of the fabric sleeve; c) providing a strip of carrier material comprising a liquid sealant on at least one surface of the strip of carrier material and arranging the strip of carrier material inside the fabric sleeve and in registration with the two opposing side edges (103, 104) of the sheet of fabric with the liquid sealant facing towards the two opposing side edges of the sheet of fabric; and d) joining together the two opposing side edges (103, 104) of the sheet of fabric with the strip of carrier material and the liquid sealant to form the longitudinal seam in the fabric sleeve wherein the strip of carrier material and the sealant cover each of the two opposing side edges of the sheet of fabric, and any gap in-between the opposing side edges, to provide the barrier-coated inner surface of the fabric sleeve, and thereby provide the pipe liner.
Plug connection, comprising a plug connector with a first coding element arranged thereon with a coding pattern and an insertion location with a second coding element arranged thereon with a coding pattern complementary to said coding pattern, wherein the plug connector can be inserted, in an insertion direction, into the insertion location as far as a coupling position, if the first coding element and the second coding element assume a predefined position relative to one another, characterised in that the first coding element is held on the plug connector so as to be rotatable around an axis of rotation running parallel to the insertion direction and/or the second coding element is held on the insertion location so as to be rotatable around the axis of rotation and, characterised by a self-alignment mechanism by means of which, when plugging in the plug connector, the first coding element and the second coding element are automatically rotated into the predefined position relative to one another.
A cover part of a metallurgical melting vessel for covering an opening of a cavity of a ladle part of the metallurgical melting vessel, wherein the cover part comprises a collar part, which can protrude into the cavity of the ladle part, in order to reduce the risk of formation of skull on the metallurgical melting vessel, characterized in that fastening elements serve for the arrangement of the collar part, wherein said fastening elements are arranged on the collar part such that they protrude vertically downward from the cover part and adjustable with respect to their length, preferably realized in the form of length-adjustable chains.
An accommodation assisting lens, comprising: a lens main body; and dots that are isotropically and uniformly disposed in the lens main body, wherein in a visible light region, a difference in average transmittance between a dot portion based on the dots, and a non-dot portion other than the dot portion is 2% to 50% inclusive, and the average transmittance in the dot portion is higher than in the non-dot portion, characterized in that a pattern forming the non-dot portion is a coloring matter pattern composed of a metal, and wherein the difference in the average transmittance is produced by the coloring matter pattern. a lens main body; and dots that are isotropically and uniformly disposed in the lens main body, wherein in a visible light region, a difference in average transmittance between a dot portion based on the dots, and a non-dot portion other than the dot portion is 2% to 50% inclusive, and the average transmittance in the dot portion is higher than in the non-dot portion, characterized in that a pattern forming the non-dot portion is a coloring matter pattern composed of a metal, and wherein the difference in the average transmittance is produced by the coloring matter pattern.
A dye-sensitized solar cell element comprising at least one dye-sensitized solar cell, wherein the dye-sensitized solar cell includes: a first base material including a transparent substrate; a second base material which faces the first base material; an annular sealing portion which bonds the first base material and the second base material; and an oxide semiconductor layer which is provided between the first base material and the second base material, characterized in that the second base material has a flexibility, the second base material includes an annular bonding edge portion which is bonded to the sealing portion and a main body portion in an inner side of the bonding edge portion, and a portion of the main body portion is a convex bending portion which is bent to be convex toward a side opposite to the first base material. a first base material including a transparent substrate; a second base material which faces the first base material; an annular sealing portion which bonds the first base material and the second base material; and an oxide semiconductor layer which is provided between the first base material and the second base material, characterized in that the second base material has a flexibility, the second base material includes an annular bonding edge portion which is bonded to the sealing portion and a main body portion in an inner side of the bonding edge portion, and a portion of the main body portion is a convex bending portion which is bent to be convex toward a side opposite to the first base material.
A gas-insulated switching apparatus (101;103;104;105;106) of a three-phase-isolated type, the apparatus comprising: two first main buses (11a,21a) extending in parallel at an identical height; a first connection bus interconnecting the first main buses; a first divergence bus diverging downward from the first connection bus; a first circuit breaker connected to the first divergence bus; two second main buses (11b,21b) extending at an identical height below the first main buses in parallel with the first main buses; a second connection bus interconnecting the second main buses; a second divergence bus diverging downward from the second connection bus; a second circuit breaker connected to the second divergence bus; two third main buses (11c,21c) extending at an identical height below the second main buses in parallel with the first main buses; a third connection bus interconnecting the third main buses; a third divergence bus diverging downward from the third connection bus; and a third circuit breaker connected to the third divergence bus, wherein a connection portion (60;62) between the first connection bus and the first divergence bus is disposed at a position lower than the height at which the first main buses (11a,21a) extend, characterized in that a grounding switch is disposed above the connection portion between the first connection bus and the first divergence bus. two first main buses (11a,21a) extending in parallel at an identical height; a first connection bus interconnecting the first main buses; a first divergence bus diverging downward from the first connection bus; a first circuit breaker connected to the first divergence bus; two second main buses (11b,21b) extending at an identical height below the first main buses in parallel with the first main buses; a second connection bus interconnecting the second main buses; a second divergence bus diverging downward from the second connection bus; a second circuit breaker connected to the second divergence bus; two third main buses (11c,21c) extending at an identical height below the second main buses in parallel with the first main buses; a third connection bus interconnecting the third main buses; a third divergence bus diverging downward from the third connection bus; and a third circuit breaker connected to the third divergence bus, wherein a connection portion (60;62) between the first connection bus and the first divergence bus is disposed at a position lower than the height at which the first main buses (11a,21a) extend, characterized in that a grounding switch is disposed above the connection portion between the first connection bus and the first divergence bus.
Emergency ventilator for emergency medicine artificial respiration of patients, comprising - A housing with an ambient air aspiration aperture and a respiratory gas output aperture, and - A fan which is configured and arranged in the housing in order to convey ambient air from the ambient air aspiration aperture to the respiratory gas output aperture, Wherein the fan comprises a fan housing with an air conveyor movable relative to the fan housing and wherein the fan housing is arranged housing-tight in the housing, wherein the fan housing is fixed to the housing with the interposition of a heat-conducting body, wherein the heat-conducting body comprises a material or is made from a material which is chosen out of light metal, non-ferrous metal, and/or a synthetic filled with heat-conducting filling material Characterized in that an outer surface (42a1) of the fan housing is exposed in a section of a flow path from the ambient air aspiration aperture to the respiratory gas output aperture in such a way that during the ventilation operation of the emergency ventilator it can be bathed by respiratory gas conveyed by the fan, wherein a surface of the heat-conducting body forms a wall of a region enclosing a respiratory gas, wherein the heat-conducting body surrounds a section of the flow path of the respiratory gas on at least three sides forming a recess, wherein the outer surface (42a1) of the fan housing which can be bathed by respiratory gas is arranged in the recess formed by the heat-conducting body. - A housing with an ambient air aspiration aperture and a respiratory gas output aperture, and - A fan which is configured and arranged in the housing in order to convey ambient air from the ambient air aspiration aperture to the respiratory gas output aperture, Wherein the fan comprises a fan housing with an air conveyor movable relative to the fan housing and wherein the fan housing is arranged housing-tight in the housing, wherein the fan housing is fixed to the housing with the interposition of a heat-conducting body, wherein the heat-conducting body comprises a material or is made from a material which is chosen out of light metal, non-ferrous metal, and/or a synthetic filled with heat-conducting filling material Characterized in that an outer surface (42a1) of the fan housing is exposed in a section of a flow path from the ambient air aspiration aperture to the respiratory gas output aperture in such a way that during the ventilation operation of the emergency ventilator it can be bathed by respiratory gas conveyed by the fan, wherein a surface of the heat-conducting body forms a wall of a region enclosing a respiratory gas, wherein the heat-conducting body surrounds a section of the flow path of the respiratory gas on at least three sides forming a recess, wherein the outer surface (42a1) of the fan housing which can be bathed by respiratory gas is arranged in the recess formed by the heat-conducting body.
Hybrid materials comprised of carbon allotrope forms, optionally fullerenes or single wall carbon nanotubes, and copolymeric materials comprising polythiophenes with electron donating properties and polyquinolines with electron accepting properties, wherein the copolymers have the architecture of the random copolymer 1 or of the rod-coil block copolymer 2a, or of the coil-coil block copolymer 2b, or of the brush type rod-coil copolymer 2c.
A computer implemented method for configuring a neuromorphic system comprising a plurality of physical cores (301, 302, 303, 304) wherein the method comprises: reading a neural network description describing a plurality of logical cores, each logical core being executable by a physical core; determining a plurality of precedence relationships among the plurality of logical cores; determining a plurality of identity relationships among the plurality of logical cores, each identity relationship determining at least two identical logic cores, wherein two logical cores are identical when each parameter of a plurality of parameters of the one of two logical cores is identical to a corresponding parameter of a plurality of parameters of the other of the two logical cores and neither of the two logical cores is a precedent to the other; based on the plurality of precedence relationships, generating a schedule assigning the plurality of logical cores to the plurality of physical cores at a plurality of time slices, wherein generating the schedule comprises assigning identical logical cores to the same physical core in consecutive time slices; configuring the plurality of physical cores according to the assigned logical cores within each time slice of the plurality of time slices, comprising receiving parameters for a logical core that is not determined as identical and reusing rather than re-receiving parameters that are already loaded at a physical core for a logical core that is determined as identical, at each time slice, in order to, based on the schedule, execute the plurality of logical cores on the physical cores. reading a neural network description describing a plurality of logical cores, each logical core being executable by a physical core; determining a plurality of precedence relationships among the plurality of logical cores; determining a plurality of identity relationships among the plurality of logical cores, each identity relationship determining at least two identical logic cores, wherein two logical cores are identical when each parameter of a plurality of parameters of the one of two logical cores is identical to a corresponding parameter of a plurality of parameters of the other of the two logical cores and neither of the two logical cores is a precedent to the other; based on the plurality of precedence relationships, generating a schedule assigning the plurality of logical cores to the plurality of physical cores at a plurality of time slices, wherein generating the schedule comprises assigning identical logical cores to the same physical core in consecutive time slices; configuring the plurality of physical cores according to the assigned logical cores within each time slice of the plurality of time slices, comprising receiving parameters for a logical core that is not determined as identical and reusing rather than re-receiving parameters that are already loaded at a physical core for a logical core that is determined as identical, at each time slice, in order to, based on the schedule, execute the plurality of logical cores on the physical cores.
A composition for use in the treatment of age-related cognitive impairment in a subject in need or at risk thereof, wherein the composition comprises brivaracetam or a pharmaceutically acceptable salt thereof.
Composite component assembly (10; 10a), comprising a first component (1; 1a) with a first contact surface and at least a second component (2; 2a) with a second contact surface abutting against the first contact surface, wherein the first contact surface has a surface structure which comprises a microstructure superposed with a nanostructure, wherein the microstructure comprises microstructure elements having a diameter in a size range of 1 micrometre to 999 micrometres, and the nanostructure comprises nanostructure elements having a diameter in a size range of 1 nanometre to 999 nanometres, wherein the abutment of the second contact surface against the first contact surface is effected by at least partial melting of the material of the second component (2; 2a), wherein the material of the first component has a higher melting point than the material of the second component, wherein in that the first component (1; 1a) and the second component (2; 2a) are composed of metal, wherein in that the first component (1; 1a) is composed at least predominantly of copper and the second component (2; 2a) is composed at least predominantly of aluminium, characterized in that an additional form-fit connection is formed between the two components (1; 1a, 2; 2a), preferably in the region of the two contact surfaces. in that the first component (1; 1a) and the second component (2; 2a) are composed of metal, wherein in that the first component (1; 1a) is composed at least predominantly of copper and the second component (2; 2a) is composed at least predominantly of aluminium, characterized in that an additional form-fit connection is formed between the two components (1; 1a, 2; 2a), preferably in the region of the two contact surfaces.
An illumination device for a vehicle e.g. for a cup holder, comprising: a light guide body including a light entrance hole from which light from a light source can enter, an outer rim part, an outer surface, and an emission portion configured to emit the light entered from the light entrance hole toward the outer surface from a position of the outer rim part; a light shielding member that covers the outer surface of the light guide body except the emission portion; and a light entrance member disposed in the light entrance hole and configured to reflect the light from the light source toward the emission portion, wherein the emission portion has an anti-dust height, and the anti-dust height is set to a height strictly higher than a surface of the light shielding member by 0 mm to 1 mm, 0 mm being excluded.
A walking device (201, 401, 808) comprising: an elongated body that is more than 0.3048 m in length; a movable arm (109, 204, 303, 403, 516, 707, 1203) coupled to the elongated body; a power source; and a first sensor; wherein the first sensor is capable of detecting an orientation of the walking device (201, 401, 808) and producing an electronic signal based on the orientation, and wherein the electronic signal is capable of at least partially causing a movement of the movable arm (109, 204, 303, 403, 516, 707, 1203). an elongated body that is more than 0.3048 m in length; a movable arm (109, 204, 303, 403, 516, 707, 1203) coupled to the elongated body; a power source; and a first sensor; wherein the first sensor is capable of detecting an orientation of the walking device (201, 401, 808) and producing an electronic signal based on the orientation, and wherein the electronic signal is capable of at least partially causing a movement of the movable arm (109, 204, 303, 403, 516, 707, 1203).
A grease composition comprising: a base oil having a kinematic viscosity in a range from 200 mm 2 /s to 2000 mm 2 /s at 40°C; and a soap thickener that is blended in the grease composition at 17 mass% or less of a total amount of the composition, wherein the blend ratio of the soap thickener is represented by the amount of carboxylic acid constituting the thickener, and wherein the base oil comprises a. a hydrocarbon-based synthetic oil at 40 mass% or more of the base oil, wherein the hydrocarbon-based synthetic oil comprises a component A having a kinematic viscosity of 10 mm 2 /s to 40 mm 2 /s at 40 °C and being an olefin oligomer or a mixture of olefin oligomers, the amount of the component A being from 20 mass% to 70 mass% of the base oil, b. a petroleum resin that is blended in the base oil in an amount of 0.5 mass% to 30 mass% of the total amount of the composition; wherein a worked penetration of the grease composition is in a range from 220 to 350 as measured according to JIS K 2220.7 at 25 degrees C and 60 W. a base oil having a kinematic viscosity in a range from 200 mm 2 /s to 2000 mm 2 /s at 40°C; and a soap thickener that is blended in the grease composition at 17 mass% or less of a total amount of the composition, wherein the blend ratio of the soap thickener is represented by the amount of carboxylic acid constituting the thickener, and wherein the base oil comprises a. a hydrocarbon-based synthetic oil at 40 mass% or more of the base oil, wherein the hydrocarbon-based synthetic oil comprises a component A having a kinematic viscosity of 10 mm 2 /s to 40 mm 2 /s at 40 °C and being an olefin oligomer or a mixture of olefin oligomers, the amount of the component A being from 20 mass% to 70 mass% of the base oil, b. a petroleum resin that is blended in the base oil in an amount of 0.5 mass% to 30 mass% of the total amount of the composition; a. a hydrocarbon-based synthetic oil at 40 mass% or more of the base oil, wherein the hydrocarbon-based synthetic oil comprises a component A having a kinematic viscosity of 10 mm 2 /s to 40 mm 2 /s at 40 °C and being an olefin oligomer or a mixture of olefin oligomers, the amount of the component A being from 20 mass% to 70 mass% of the base oil, b. a petroleum resin that is blended in the base oil in an amount of 0.5 mass% to 30 mass% of the total amount of the composition; wherein a worked penetration of the grease composition is in a range from 220 to 350 as measured according to JIS K 2220.7 at 25 degrees C and 60 W.