mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: obtaining (501, 502) a measurement for a mobile device and a position of the mobile device; associating the measurement, the position of the mobile device and a time of the measurement as a record; aggregating records that match an identifier of the mobile device, and that are within a period of time that includes the time of the record, and that are within a geographic location that includes the position of the record; storing at least one statistical measure of the aggregated records; updating a minimum and a maximum threshold value for the operational network parameter based on the stored at least statistical measure; and adjusting an operational network parameter based on the minimum and the maximum threshold value. obtaining (501, 502) a measurement for a mobile device and a position of the mobile device; associating the measurement, the position of the mobile device and a time of the measurement as a record; aggregating records that match an identifier of the mobile device, and that are within a period of time that includes the time of the record, and that are within a geographic location that includes the position of the record; storing at least one statistical measure of the aggregated records; updating a minimum and a maximum threshold value for the operational network parameter based on the stored at least statistical measure; and adjusting an operational network parameter based on the minimum and the maximum threshold value.
Apparatus for heating an item selected from: an elongate tubular article; and a heat shrinkable sleeve applied around an elongate tubular article; comprising a frame member adapted to be disposed around said item, said frame member having a heater device adapted to heat the item and disposed on or proximal to an inner surface of said frame member, and a controller for operating the heater device; the said heater device having two or more heating zones, and comprises an infrared heating element, characterized in that the infra red heating element is in the form of a thin stamped sheet or foil strip, said heating element providing radiant infra-red energy at a wavelength of between 2.5 and 6 μm.
A process for preparing an organic alkali metal compound represented by the following formula, comprising adding an olefin compound represented by the following formula in the reaction of an active proton-containing compound represented by the following formula with an alkali metal compound; RH p wherein R is a hydrocarbon group or an amino group and may contain a halogen atom, a silicon atom, an oxygen atom or a nitrogen atom, H is an active proton, and p is the number of hydrogen atoms abstracted in the reaction with the alkali metal compound, wherein R a is an aryl group; R b is a group selected from a straight-chain hydrocarbon group, a branched hydrocarbon group, a cyclic saturated hydrocarbon group, a cyclic unsaturated hydrocarbon group, a saturated hydrocarbon group substituted with a cyclic unsaturated hydrocarbon group, an oxygen-containing group, a nitrogen-containing group, a sulfur-containing group, a hydrocarbon group-substituted silyl group, and a silyl group-substituted hydrocarbon group; and R c is hydrogen, RN p wherein R is a hydrocarbon group or an amino group and may contain a halogen atom, a silicon atom, an oxygen atom or a nitrogen atom, N is an alkali metal atom, and p is the same value as in the formula.
Method for automatically generating an optimized 2D or 3D roller profile curve having a prescribed desired 2D or 3D roller profile curve of a roller profile that changes along a rolled material feed direction and control of a flexible roller profile device, in which profiling rollers are adjustable in a computer-controlled manner during a roller profiling profess, the method for generating the optimized 2D or 3D roller profile curve comprising: a) entering the desired 2D or 3D roller profile curve by means of CAD tools, the desired 2D or 3D roller profile curve being composed of a plurality of straight and/or curved portions and corresponding transitions; b) calculating the optimized 2D or 3D roller profile curve from the input and desired 2D or 3D roller profile curve using rounding algorithm at the transition points between the straight and/or the curved portions in order to determine corresponding transition arcs at the transition points, wherein the rounding algorithms round off the 2D or 3D profile curve witch a substantially continuous curvature at the transition arcs, so that the optimized 2D or 3D roller profile curve is generate, accordingly substantially avoiding curvature steps; c) confirming or modifying a region of the optimized 2D or 3D roller profile curve: and d) saving the optimized 2D or 3D roller profile curve. a) entering the desired 2D or 3D roller profile curve by means of CAD tools, the desired 2D or 3D roller profile curve being composed of a plurality of straight and/or curved portions and corresponding transitions; b) calculating the optimized 2D or 3D roller profile curve from the input and desired 2D or 3D roller profile curve using rounding algorithm at the transition points between the straight and/or the curved portions in order to determine corresponding transition arcs at the transition points, wherein the rounding algorithms round off the 2D or 3D profile curve witch a substantially continuous curvature at the transition arcs, so that the optimized 2D or 3D roller profile curve is generate, accordingly substantially avoiding curvature steps; c) confirming or modifying a region of the optimized 2D or 3D roller profile curve: and d) saving the optimized 2D or 3D roller profile curve.
Arrangement of an impeller on an external rotor motor, whereby the torque of the motor is transferred to the impeller by means of a torsion-proof connection between the rotor of the motor and the impeller and/or its impeller hub, whereby the connection of the impeller to the rotor results from physical and/or chemical interactions between an adhesive medium and the contact surfaces of the impeller hub and of the rotor, which face each other, whereby the adhesive medium fills an annular space that is formed between the impeller hub and the rotor by a given play, whereby a circumferential centring fin is provided on the contact surface of the impeller hub or at least three axial centring fins radially outside the annular space are provided on the contact surface of the impeller hub, whereby the circumferential centring fin/ axial centring fins define an imaginary annular ring surface with approximately the same diameter or a smaller diameter than the rotor such that they are deformed, at least to a small degree, when the impeller hub is being pushed onto the rotor and whereby at least one ring-shaped sealing surface or sealing lip is provided on the contact surface of the impeller hub to prevent the adhesive medium from being pushed out of the annular space.
Composite body which comprises a first part which is formed by a first alloy and a second part which is formed by an iron-based, cobalt-based or nickel-based alloy, wherein the parts have been joined to one another by diffusion of alloy elements of the first part and/or the second part into the other part and the first alloy comprises the following constituents in the following proportions in % by weight: C = 0.02 - 0.3; Si = 0.01 - 1.1; Mn = 0.01 - 2.0; P < 0.06; S < 0.5; Cr = 11.0 - 20.0; Mo = 0.3 - 1.0; Ni < 1.1; Nb or/and Ta < 1.1; N < 0.03; Co < 1.1; balance Fe and production-related impurities. C = 0.02 - 0.3; Si = 0.01 - 1.1; Mn = 0.01 - 2.0; P < 0.06; S < 0.5; Cr = 11.0 - 20.0; Mo = 0.3 - 1.0; Ni < 1.1; Nb or/and Ta < 1.1; N < 0.03; Co < 1.1; balance Fe and production-related impurities.
Tyre module for measuring the tyre pressure of a motor vehicle tyre including a container that is fastenable in a cavity of the vehicle tyre and serves to accommodate a tyre pressure capture unit which comprises at least one electronic module for capturing the tyre pressure, wherein the tyre module includes a receptacle in which at least part of the electronic module is arranged, wherein the electronic module is embedded in a casting compound arranged inside the receptacle, wherein the receptacle includes at least one ventilation opening, characterised in that the receptacle is substantially in the shape of a pot-like hollow cylinder, which has a shell surface conformed as each side wall (24, 26) and has a base surface conformed as the bottom wall (25, 27), and the receptacle has ventilation openings that are arranged in the base surface and/or the shell surface.
An apparatus configured to be employed in a UE, User Equipment, comprising a processor configured to: generate a beam failure recovery, BFR, request that indicates a new candidate beam; process a CORESET-BFR, Control Resource Set-BFR, of a set of configured CORESETs, wherein the CORESET-BFR is dedicated to deliver a response to the BFR request; receive a response to the BFR request; generate an ACK, Acknowledgement, for the response to the BFR request; process scheduling information for a first PDSCH, Physical Downlink Shared Channel based on the BFR request, wherein the first PDSCH is scheduled by a first CORESET of the set of configured CORESETs, wherein the first CORESET is different than the CORESET-BFR, wherein the first PDSCH is scheduled after the response to the BFR request is received and before a TCI, Transmission Configuration Information, state is one of reconfigured, reactivated, or re-indicated; determine a spatial assumption for the first PDSCH based on an offset between the ACK and the first PDSCH, wherein when the offset is X or more slots the spatial assumption is based on the new candidate beam and wherein when the offset is less than X slots the spatial assumption for the first PDSCH is based on an original beam associated with the first CORESET; wherein X is one of predefined in a specification or configured via higher layer signaling; and process the first PDSCH based on the determined spatial assumption for the first PDSCH. generate a beam failure recovery, BFR, request that indicates a new candidate beam; process a CORESET-BFR, Control Resource Set-BFR, of a set of configured CORESETs, wherein the CORESET-BFR is dedicated to deliver a response to the BFR request; receive a response to the BFR request; generate an ACK, Acknowledgement, for the response to the BFR request; process scheduling information for a first PDSCH, Physical Downlink Shared Channel based on the BFR request, wherein the first PDSCH is scheduled by a first CORESET of the set of configured CORESETs, wherein the first CORESET is different than the CORESET-BFR, wherein the first PDSCH is scheduled after the response to the BFR request is received and before a TCI, Transmission Configuration Information, state is one of reconfigured, reactivated, or re-indicated; determine a spatial assumption for the first PDSCH based on an offset between the ACK and the first PDSCH, wherein when the offset is X or more slots the spatial assumption is based on the new candidate beam and wherein when the offset is less than X slots the spatial assumption for the first PDSCH is based on an original beam associated with the first CORESET; wherein X is one of predefined in a specification or configured via higher layer signaling; and process the first PDSCH based on the determined spatial assumption for the first PDSCH.
A modified release pharmaceutical composition comprising immediate release febuxostat beads in an amount ranging from 20% to 40% (w/w) of the total composition weight and delayed release febuxostat beads having a solubility at pH levels greater than or equal to 6.8 in an amount ranging from 60% to 80% (w/w) of the total composition weight, wherein said immediate release beads comprise (a) an inert core in an amount ranging from 50% to 55% (w/w) of the weight of the immediate release bead, and (b) an immediate release layer that encapsulates the inert core comprising a mixture of febuxostat and hydroxypropyl methylcellulose in an amount ranging from 45% to 50% (w/w) of the weight of the immediate release bead, the ratio of febuxostat to hydroxypropyl methylcellulose ranging from 1.5 to 3; and wherein said delayed release beads comprise (a) an inert core in an amount ranging from 40.5% to 43% (w/w) of the weight of the delayed release bead, (b) an immediate release layer encapsulating the inert core comprising a mixture of febuxostat and hydroxypropyl methylcellulose in an amount ranging from 35% to 40% (w/w) of the weight of the delayed release bead, the ratio of febuxostat to hydroxypropyl methylcellulose ranging from 1.5 to 3, (c) a delayed release enteric polymer layer encapsulating the immediate release layer comprising a delayed release enteric polymer in an amount ranging from 17% to 20% (w/w) of the delayed release bead, said delayed release enteric polymer comprising a mixture of methacrylic acid copolymer type A and methacrylic acid copolymer type B in a ratio ranging from 0.1 to 0.5, and (d) a plasticizer in an amount ranging from 1% to 3% (w/w) of the weight of the delayed-controlled release bead, said plasticizer comprising triethyl citrate. (a) an inert core in an amount ranging from 50% to 55% (w/w) of the weight of the immediate release bead, and (b) an immediate release layer that encapsulates the inert core comprising a mixture of febuxostat and hydroxypropyl methylcellulose in an amount ranging from 45% to 50% (w/w) of the weight of the immediate release bead, the ratio of febuxostat to hydroxypropyl methylcellulose ranging from 1.5 to 3; and (a) an inert core in an amount ranging from 40.5% to 43% (w/w) of the weight of the delayed release bead, (b) an immediate release layer encapsulating the inert core comprising a mixture of febuxostat and hydroxypropyl methylcellulose in an amount ranging from 35% to 40% (w/w) of the weight of the delayed release bead, the ratio of febuxostat to hydroxypropyl methylcellulose ranging from 1.5 to 3, (c) a delayed release enteric polymer layer encapsulating the immediate release layer comprising a delayed release enteric polymer in an amount ranging from 17% to 20% (w/w) of the delayed release bead, said delayed release enteric polymer comprising a mixture of methacrylic acid copolymer type A and methacrylic acid copolymer type B in a ratio ranging from 0.1 to 0.5, and (d) a plasticizer in an amount ranging from 1% to 3% (w/w) of the weight of the delayed-controlled release bead, said plasticizer comprising triethyl citrate.
Force assisted charging arrangement for supplying electrical energy to an electrical vehicle via a first set of bus bars and a second set of bus bars, comprising the first set of bus bars arranged distant and fixed in respect to ground, the second set of bus bars having a first end and a second end, the first end connected rotatable to the first set of bus bars thereby allowing a rotation of the second end around a vertical rotation axis, whereby the first set of bus bars and the second set of bus bars each comprise two or at least two bus bars and whereby the bus bars are isolated; and wherein the bus bars are dimensioned for supplying DC currents up to 500A or more at a DC voltage of 1000V or more; a charging cable having a first charging cable end and a second charging cable end, the second charging cable end connected to the second end of the second set of bus bars, and a charging connector connected to the first charging cable end. the first set of bus bars arranged distant and fixed in respect to ground, the second set of bus bars having a first end and a second end, the first end connected rotatable to the first set of bus bars thereby allowing a rotation of the second end around a vertical rotation axis, whereby the first set of bus bars and the second set of bus bars each comprise two or at least two bus bars and whereby the bus bars are isolated; and wherein the bus bars are dimensioned for supplying DC currents up to 500A or more at a DC voltage of 1000V or more; a charging cable having a first charging cable end and a second charging cable end, the second charging cable end connected to the second end of the second set of bus bars, and a charging connector connected to the first charging cable end.
An optical amplifier module containing at least one optical amplifier, comprising: an internal housing having an outer dimension substantially equal to an outer dimension of an internal fiber splice housing of an undersea optical fiber cable joint, said internal housing including: a pair of opposing end faces each having a retaining element for retaining the internal housing within an outer housing of said undersea optical fiber cable joint; and a sidewall interconnecting said opposing end faces and extending between said opposing end faces in a longitudinal direction, characterized in that said sidewall includes a receptacle portion having a plurality of thruholes each being sized to receive a passive optical component employed in an optical amplifier. an internal housing having an outer dimension substantially equal to an outer dimension of an internal fiber splice housing of an undersea optical fiber cable joint, said internal housing including: a pair of opposing end faces each having a retaining element for retaining the internal housing within an outer housing of said undersea optical fiber cable joint; and a sidewall interconnecting said opposing end faces and extending between said opposing end faces in a longitudinal direction, characterized in that said sidewall includes a receptacle portion having a plurality of thruholes each being sized to receive a passive optical component employed in an optical amplifier. a pair of opposing end faces each having a retaining element for retaining the internal housing within an outer housing of said undersea optical fiber cable joint; and a sidewall interconnecting said opposing end faces and extending between said opposing end faces in a longitudinal direction, characterized in that said sidewall includes a receptacle portion having a plurality of thruholes each being sized to receive a passive optical component employed in an optical amplifier.
Refrigeration device, in particular household refrigeration device, having a carcass with an interior container space, a refrigeration device door, in addition to a separate compartment located in the interior container space and thermally insulated in relation to a refrigeration compartment, the access opening of said separate compartment being closed by a thermally insulating compartment door that has a handle for opening the compartment door which is arranged outside of the thermally insulating region of the compartment door, characterised in that the handle is provided on the lower-lying edge of the horizontally arranged edges of the compartment door, wherein the compartment door is opened by pivoting about a vertical axis of rotation of a stop, wherein the handle is embodied as a horizontally arranged handle strip and wherein the handle strip is pivotably mounted on the compartment door by means of a horizontal pivot bearing.
A sensor mounting structure for a sensor having a detection surface configured to detect information around a vehicle, the sensor mounting structure comprising: an exterior member of the vehicle provided with an opening (41; 64; 202a; 501) that is provided to be wider than an outer shape of the detection surface the opening (41; 64; 202a; 501) being provided such that an opening edge of the opening (41; 64; 202a; 501) is disposed around the detection surface with a space between the opening edge and the detection surface; and a cover (63; 201; 301) disposed around the detection surface to close the space between an outer peripheral edge of the detection surface and the opening edge of the opening (41; 64; 202a; 501), a case which comprises the detection surface characterized in that the cover (63; 201; 301) is attached to the case and disposed so as to be flush with the detection surface, the cover (63; 201; 301) and the detection surface are formed so that tangential directions of adjacent ends of the cover and the detection surface are coincident with each other, the color of the cover (63; 201; 301) and the color of the detection surface are the same, the opening (41; 64; 202a; 501) is disposed in a fender panel so as to expose the detection surface, the opening (41; 64; 202a; 501) is formed in the fender panel, and a flange portion is formed on the peripheral edge of the opening (41; 64; 202a; 501) a garnish is attached to the flange portion, and the opening (41; 64; 202a; 501) is formed in the garnish. an exterior member of the vehicle provided with an opening (41; 64; 202a; 501) that is provided to be wider than an outer shape of the detection surface the opening (41; 64; 202a; 501) being provided such that an opening edge of the opening (41; 64; 202a; 501) is disposed around the detection surface with a space between the opening edge and the detection surface; and a cover (63; 201; 301) disposed around the detection surface to close the space between an outer peripheral edge of the detection surface and the opening edge of the opening (41; 64; 202a; 501), a case which comprises the detection surface characterized in that the cover (63; 201; 301) is attached to the case and disposed so as to be flush with the detection surface, the cover (63; 201; 301) and the detection surface are formed so that tangential directions of adjacent ends of the cover and the detection surface are coincident with each other, the color of the cover (63; 201; 301) and the color of the detection surface are the same, the opening (41; 64; 202a; 501) is disposed in a fender panel so as to expose the detection surface, the opening (41; 64; 202a; 501) is formed in the fender panel, and a flange portion is formed on the peripheral edge of the opening (41; 64; 202a; 501) a garnish is attached to the flange portion, and the opening (41; 64; 202a; 501) is formed in the garnish.
A method of calibrating an analogue contact probe having a deflectable stylus and configured to provide at least one signal which is indicative of the extent of deflection of the stylus, the analogue contact probe being mounted on a coordinate positioning machine which facilitates reorientation of the analogue contact probe about at least one axis (A, B), comprising: taking measurement data obtained with the analogue contact probe positioned at a plurality of different orientations about the at least one axis; and determining from the measurement data at least one gain variation model which models any apparent variation in the gain of the at least one probe signal dependent on the orientation of the analogue contact probe about the at least one axis, wherein the gain of the at least one signal quantifies how the at least one signal varies with stylus deflection. taking measurement data obtained with the analogue contact probe positioned at a plurality of different orientations about the at least one axis; and determining from the measurement data at least one gain variation model which models any apparent variation in the gain of the at least one probe signal dependent on the orientation of the analogue contact probe about the at least one axis, wherein the gain of the at least one signal quantifies how the at least one signal varies with stylus deflection.