mhurhangee/patent-ind-claim-en huggingface dataset:
A compression ring for a shrouded compressor, the compression ring comprising: a radially inner surface having one or more areas configured to mate flush with one or more portions of a radially outward surface of a shroud of the shrouded compressor; a radially outer surface located opposite the radially inner surface ; characterized in that the compression ring comprises a labyrinth seal located on the radially outer surface ; a groove located within the radially inner surface ; and a load ring located within the groove ; wherein the compression ring has a first density and the load ring has a second density that is greater than the first density. a radially inner surface having one or more areas configured to mate flush with one or more portions of a radially outward surface of a shroud of the shrouded compressor; a radially outer surface located opposite the radially inner surface ; characterized in that the compression ring comprises a labyrinth seal located on the radially outer surface ; a groove located within the radially inner surface ; and a load ring located within the groove ; wherein the compression ring has a first density and the load ring has a second density that is greater than the first density.
Child seat underlay for a child seat arranged in a motor vehicle for putting on children's legs and/or for putting down children's feet, wherein the child seat underlay comprises a. at least one back part for at least partially spanning the back of a backrest of a child seat, b. at least one seat bottom part connected to the back part for arranging the child seat underlay underneath between the child seat and the vehicle seat surface, c. as well as at least one movably designed foot positioning part for putting on children's legs and/or for putting down children's feet, which is pivotably hinged to the seat bottom part and is designed so as to be changeable in at least one inclined position relative thereto, wherein the foot positioning part is designed as flap element whose at least two flap areas are designed to be pivotable relative to one another about a common axis of rotation (R), wherein at least one length alteration module connecting the two parts is arranged between the foot positioning part and the seat bottom part . a. at least one back part for at least partially spanning the back of a backrest of a child seat, b. at least one seat bottom part connected to the back part for arranging the child seat underlay underneath between the child seat and the vehicle seat surface, c. as well as at least one movably designed foot positioning part for putting on children's legs and/or for putting down children's feet, which is pivotably hinged to the seat bottom part and is designed so as to be changeable in at least one inclined position relative thereto,
A continuous production method for an aromatic polymer having an ether bond, the method comprising: (a) supplying a polymerization solvent and a reaction raw material to a continuous production apparatus including a plurality of reaction vessels; (b) performing a desalting polycondensation reaction in the polymerization solvent in at least one of the reaction vessels to form a reaction mixture; and (c) successively moving the reaction mixture to each of the reaction vessels; the steps (a), (b), and (c) being performed in parallel; wherein the ether bond is formed by the desalting polycondensation reaction; respective gas phase parts of the plurality of reaction vessels communicate with one another; and a pressure of each of the gas phase parts is uniform. (a) supplying a polymerization solvent and a reaction raw material to a continuous production apparatus including a plurality of reaction vessels; (b) performing a desalting polycondensation reaction in the polymerization solvent in at least one of the reaction vessels to form a reaction mixture; and (c) successively moving the reaction mixture to each of the reaction vessels; wherein the ether bond is formed by the desalting polycondensation reaction; respective gas phase parts of the plurality of reaction vessels communicate with one another; and a pressure of each of the gas phase parts is uniform.
A method performed by one or more devices of telecommunications system, the method comprising: establishing a first Diameter communication interface between a Home Subscriber Service, HSS, of an IP Multimedia Subsystem, IMS, and a Telephony Application Server, TAS, associated with the IMS; receiving , at the TAS, a Session Initiation Protocol, SIP, INVITE message; determining , at the TAS, that the SIP INVITE message contains an Unstructured Supplementary Service Data, USSD, message; and sending , by the TAS, a first Diameter request to the HSS via the first Diameter communication interface, wherein the first Diameter request contains the USSD message; receiving , by the TAS, a Diameter answer from the HSS via first Diameter communication interface, wherein the Diameter answer contains a USSD response to the USSD message; and sending , by the TAS, a SIP BYE message that contains the USSD response. establishing a first Diameter communication interface between a Home Subscriber Service, HSS, of an IP Multimedia Subsystem, IMS, and a Telephony Application Server, TAS, associated with the IMS; receiving , at the TAS, a Session Initiation Protocol, SIP, INVITE message; determining , at the TAS, that the SIP INVITE message contains an Unstructured Supplementary Service Data, USSD, message; and sending , by the TAS, a first Diameter request to the HSS via the first Diameter communication interface, wherein the first Diameter request contains the USSD message; receiving , by the TAS, a Diameter answer from the HSS via first Diameter communication interface, wherein the Diameter answer contains a USSD response to the USSD message; and sending , by the TAS, a SIP BYE message that contains the USSD response.
A method for a user equipment, UE, to receive a multimedia broadcast multicast service, MBMS, comprising: when initiating, at the UE , a handover from a first cell that is providing the MBMS through point-to-multipoint transmission, adding, at the UE , a temporary multicast group identity, TMGI, associated with the MBMS to a message sent from the UE to an access node in the first cell, said message being a measurement report in the first cell; and receiving, at the UE , information from the access node in the first cell, the information promoting the UE being handed over to a second cell capable of providing the MBMS through point-to-multipoint transmission, wherein, when none of the cells that provide the MBMS through point-to-multipoint transmission have a signal quality greater than a pre-specified threshold, the information promotes that the UE be handed over to a cell with the best signal quality and the service associated with the MBMS is continued via a point-to-point transmission in the cell with the best signal quality, and wherein when the message comprises an MBMS priority information element not indicating that the MBMS should be prioritized, the information promotes that the UE be handed over to a cell with the best signal quality, and the service associated with the MBMS is continued via a point-to-point transmission in the cell with the best signal quality. when initiating, at the UE , a handover from a first cell that is providing the MBMS through point-to-multipoint transmission, adding, at the UE , a temporary multicast group identity, TMGI, associated with the MBMS to a message sent from the UE to an access node in the first cell, said message being a measurement report in the first cell; and receiving, at the UE , information from the access node in the first cell, the information promoting the UE being handed over to a second cell capable of providing the MBMS through point-to-multipoint transmission, wherein, when none of the cells that provide the MBMS through point-to-multipoint transmission have a signal quality greater than a pre-specified threshold, the information promotes that the UE be handed over to a cell with the best signal quality and the service associated with the MBMS is continued via a point-to-point transmission in the cell with the best signal quality, and wherein when the message comprises an MBMS priority information element not indicating that the MBMS should be prioritized, the information promotes that the UE be handed over to a cell with the best signal quality, and the service associated with the MBMS is continued via a point-to-point transmission in the cell with the best signal quality.
An optical measurement system, comprising: an image generation system configured for generating test image information and outputting light containing the test image information to an optical device under test; an image measurement system configured for obtaining detected image information according to the light passing through the optical device under test; and a control system configured for calculating and/or selecting the test image information and outputting the test image information to the image generation system , and characterized in that the test image information further comprises a wavefront compensation, wherein the wavefront compensation is configured for compensating a missing part in the optical device under test and/or the wavefront compensation is configured for simulating a light field modulated by a subsequently unassembled lens element according to a design file to measure and adjust the position of at least one lens element of the optical device under test in a lens assembling process of the optical device under test. an image generation system configured for generating test image information and outputting light containing the test image information to an optical device under test; an image measurement system configured for obtaining detected image information according to the light passing through the optical device under test; and a control system configured for calculating and/or selecting the test image information and outputting the test image information to the image generation system , and characterized in that the test image information further comprises a wavefront compensation, wherein the wavefront compensation is configured for compensating a missing part in the optical device under test and/or the wavefront compensation is configured for simulating a light field modulated by a subsequently unassembled lens element according to a design file to measure and adjust the position of at least one lens element of the optical device under test in a lens assembling process of the optical device under test.
Vehicle comprising a compartment with a cavity and an apparatus for receiving objects in the cavity , the cavity being accessible from the outside and from the interior of the vehicle, wherein the cavity can be closed by an opening member and is accessible to the outside via an opening , wherein upon release of the opening to the outside the opening member as access to the interior of the vehicle can be blocked, wherein the compartment with the cavity is arranged in a side door of the vehicle in a region of a side mirror , the side mirror being designed foldable for releasing the cavity to the outside.
Electrolytic manganese dioxide powder, wherein the full width at half maximum (FWHM) of the plane in the XRD measurement using CuKa radiation as the light source is at least 2.2° and at most 2.9°, and the / peak intensity ratio in the X-ray diffraction peaks is at least 0.50 and at most 0.80, characterized in that the potential as measured in a 40 wt% KOH aqueous solution by using a mercury/mercury oxide reference electrode as a standard, is at least 280 mV and less than 310 mV; the sulfate group content is less than 1.30 wt%; and the median diameter of the powder is at least 30 μm and at most 50 μm. wherein the full width at half maximum (FWHM) of the plane in the XRD measurement using CuKa radiation as the light source is at least 2.2° and at most 2.9°, and the / peak intensity ratio in the X-ray diffraction peaks is at least 0.50 and at most 0.80, characterized in that the potential as measured in a 40 wt% KOH aqueous solution by using a mercury/mercury oxide reference electrode as a standard, is at least 280 mV and less than 310 mV; the sulfate group content is less than 1.30 wt%; and the median diameter of the powder is at least 30 μm and at most 50 μm.
An electronic device for controlling at least one processing unit of the electronic device, the electronic device comprising: a communication unit ; an input unit configured to sense user input; and a control unit configured to: obtain user input speeds based on results of sensing the user input, determine control information corresponding to the user input speeds to control the at least one processing unit based on performance assignment information including at least one control information mapped respectively with each user input speed, and control the at least one processing unit to operate based on the control information, wherein the performance assignment information includes at least one of CPU clock information, voltage information, bus clock information, or big/little switch type information, and wherein a number of the at least one processing unit to be controlled is determined based on the control information and a remaining battery power. a communication unit ; an input unit configured to sense user input; and a control unit configured to: obtain user input speeds based on results of sensing the user input, determine control information corresponding to the user input speeds to control the at least one processing unit based on performance assignment information including at least one control information mapped respectively with each user input speed, and control the at least one processing unit to operate based on the control information, obtain user input speeds based on results of sensing the user input, determine control information corresponding to the user input speeds to control the at least one processing unit based on performance assignment information including at least one control information mapped respectively with each user input speed, and control the at least one processing unit to operate based on the control information, wherein the performance assignment information includes at least one of CPU clock information, voltage information, bus clock information, or big/little switch type information, and wherein a number of the at least one processing unit to be controlled is determined based on the control information and a remaining battery power.
A device for installation of wired track sensors, comprising a plug (Fig. 1,2) and a centering element , the plug including a plug body , which is through, preferably with an internal assembly compartment, with a plug socket provided with at least four connectors, wherein the plug body is provided with a base and is installed in a detachable manner on the centering element that is a part of a clamp (4,M) to attach a track sensors housing (O) to a track (S), formed as an angled profile made of a load-bearing plate and an adjusting plate perpendicular to the load-bearing plate, wherein a frame protrusion is formed on the front wall of the plug body and first parallel conducted guides are provided on both sides, at the base , while a semi-circular cable conduit is formed in the middle of the load-bearing plate of the centering element , on the side of the plug body , with second parallel leading guides formed on both sides of the semi-circular cable conduit , and an adjusting cut-out is provided in the adjusting plate , with a shape matching that of the frame protrusion .
A fluid-insulated electrical apparatus , in particular a fluid-insulated transformer or fluid-insulated reactor, comprising a housing enclosing an interior space , in which interior space an electrical component comprising at least one winding is arranged, at least a portion of the interior space defining an insulation space which is filled with an insulation fluid electrically insulating at least a part of the electrical component from the housing , wherein the electrical apparatus (10; 101) further comprises a cooling element comprising a condenser , an evaporator and a cooling fluid to be circulated between the condenser and the evaporator , the evaporator being designed such that at least a part of the electrical component is immersed in the cooling fluid in its liquid state, thus being in direct contact with the cooling fluid , characterized in that the cooling fluid and the insulation fluid comprise independently from each other an organofluorine compound selected from the group consisting of fluoroethers, fluoroketones, fluoroolefins, fluoronitriles, and mixtures thereof, the cooling fluid is devoid of a background gas and consists of the organofluorine compound or a mixture of the organofluorine compounds, and the insulation fluid comprises the organofluorine compound in combination with a background gas.
A voice over new radio, VoNR, user identification method, comprising: extracting (S1), in response to a radio resource control, RRC, connection resume request, an identifier of a user terminal from the RRC connection resume request; querying (S2) whether the identifier of the user terminal is stored in a database preconfigured, wherein several identifiers and a storage write time corresponding to each of the several identifiers are stored in the database; calculating (S3) a time difference between a time at which the RRC connection resume request is received and a storage write time corresponding to the identifier of the user terminal in the database, in response to querying that the identifier of the user terminal is stored in the database; determining (S4) whether the time difference is shorter than a valid duration threshold predefined; and identifying (S5) that the user terminal is a VoNR user, in response to determining that the time difference is shorter than the valid duration threshold. extracting (S1), in response to a radio resource control, RRC, connection resume request, an identifier of a user terminal from the RRC connection resume request; querying (S2) whether the identifier of the user terminal is stored in a database preconfigured, wherein several identifiers and a storage write time corresponding to each of the several identifiers are stored in the database; calculating (S3) a time difference between a time at which the RRC connection resume request is received and a storage write time corresponding to the identifier of the user terminal in the database, in response to querying that the identifier of the user terminal is stored in the database; determining (S4) whether the time difference is shorter than a valid duration threshold predefined; and identifying (S5) that the user terminal is a VoNR user, in response to determining that the time difference is shorter than the valid duration threshold.
A catheter comprising: a tube having a distal end; characterised by a balloon secured only to the distal end, the balloon having a length, a great majority of the length of the balloon being substantially inelastic, such that the balloon does not substantially expand with inflation of the balloon; and by an extending portion moveable between a retracted inverted position and a longitudinally extended everted position with inflation of said balloon.
A negative electrode material used as a negative electrode active material for an electrochemical device, the negative electrode material comprising the first active material particles and the second active material particles, wherein the first active material particles comprise a silicon oxide material (M-SiO x (0 < x ≤ 2)) comprising a metal (M)-silicate and silicon oxide, and the second active material particles comprise a carbonaceous material; the negative electrode material satisfies the following Formula 1, when the particle diameter (D 50 ) of the first active material particles is r and the particle diameter (D 50 ) of the second active material particles is R; and the second active material particles have a full width at half maximum (FWHM) value of 9 μm or more, as determined by plotting the central value from experiment obtained by Gaussian fitting of particle size distribution of the second active material particles and FWMH distribution: 1 μ m ≤ r ≤ 0.4 R wherein the first active material particles comprise a silicon oxide material (M-SiO x (0 < x ≤ 2)) comprising a metal (M)-silicate and silicon oxide, and the second active material particles comprise a carbonaceous material; the negative electrode material satisfies the following Formula 1, when the particle diameter (D 50 ) of the first active material particles is r and the particle diameter (D 50 ) of the second active material particles is R; and the second active material particles have a full width at half maximum (FWHM) value of 9 μm or more, as determined by plotting the central value from experiment obtained by Gaussian fitting of particle size distribution of the second active material particles and FWMH distribution: 1 μ m ≤ r ≤ 0.4 R
A process for producing a three dimensional structure, the process including at least the following steps a) applying of at least a first material M 1 onto a substrate to build a first layer L 1 on the substrate; b) layering of at least one further layer L y of the first material M 1 or of a further material M x onto the first layer L 1 , wherein the at least one further layer L y covers the first layer L 1 and/or previous layer L y-1 at least partially to build a precursor of the three dimensional structure; c) curing the precursor to achieve the three dimensional structure; wherein at least one of the materials M 1 or M x provides a Mooney viscosity, determined according to DIN 53523 with a large rotor, 1 minute preheating and 4 minutes measuring interval, of > 10 ME at 60 °C and of < 200 ME at 100 °C before curing, wherein at least one of the materials, the first material M 1 or the further material M x is a powder and wherein step b) comprises a selective attachment step b') which is performed before the curing step c). a) applying of at least a first material M 1 onto a substrate to build a first layer L 1 on the substrate; b) layering of at least one further layer L y of the first material M 1 or of a further material M x onto the first layer L 1 , wherein the at least one further layer L y covers the first layer L 1 and/or previous layer L y-1 at least partially to build a precursor of the three dimensional structure; c) curing the precursor to achieve the three dimensional structure;
An X-ray radiation detection apparatus comprising: a silicon drift detector operative to detect X-ray radiation and to produce a detector output signal; a first differential filter having a time constant and operative to differentiate and convert the detector output signal into a first pulsed signal (S20); and a second differential filter having a time constant greater than that of the first differential filter and operative to differentiate and convert the detector output signal into a second pulsed signal (S30); a noise detection section for detecting noise, characterised in that the noise detecting section is arranged to detect noise based on a difference in timing between a peak (A1) of the first pulsed signal (S20) and a peak (B1) of the second pulsed signal (S30). a silicon drift detector operative to detect X-ray radiation and to produce a detector output signal; a first differential filter having a time constant and operative to differentiate and convert the detector output signal into a first pulsed signal (S20); and a second differential filter having a time constant greater than that of the first differential filter and operative to differentiate and convert the detector output signal into a second pulsed signal (S30); a noise detection section for detecting noise, characterised in that the noise detecting section is arranged to detect noise based on a difference in timing between a peak (A1) of the first pulsed signal (S20) and a peak (B1) of the second pulsed signal (S30).