mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, comprising: receiving (S101), by a first network device that manages a network slice subnet instance, requirement description information of the network slice subnet instance from a second network device that manages a network slice instance, wherein the requirement description information of the network slice subnet instance is used to indicate a service requirement for the network slice subnet instance, and the network slice instance comprises the network slice subnet instance; and creating or configuring (S 102), by the first network device , the network slice subnet instance based on configuration information of the network slice subnet instance, wherein the configuration information of the network slice subnet instance is determined based on the requirement description information of the network slice subnet instance; characterized by : sending, by the first network device to a third network device, requirement description information of a nested network slice subnet instance comprised in the network slice subnet instance, wherein the third network device is configured to manage the nested network slice subnet instance, and the requirement description information of the nested network slice subnet instance is generated based on the requirement description information of the network slice subnet instance. receiving (S101), by a first network device that manages a network slice subnet instance, requirement description information of the network slice subnet instance from a second network device that manages a network slice instance, wherein the requirement description information of the network slice subnet instance is used to indicate a service requirement for the network slice subnet instance, and the network slice instance comprises the network slice subnet instance; and creating or configuring (S 102), by the first network device , the network slice subnet instance based on configuration information of the network slice subnet instance, wherein the configuration information of the network slice subnet instance is determined based on the requirement description information of the network slice subnet instance; characterized by : sending, by the first network device to a third network device, requirement description information of a nested network slice subnet instance comprised in the network slice subnet instance, wherein the third network device is configured to manage the nested network slice subnet instance, and the requirement description information of the nested network slice subnet instance is generated based on the requirement description information of the network slice subnet instance.
An apparatus for solid freeform fabrication comprising: a. a movable nozzle comprising a nozzle opening , b. a heating element connected to the movable nozzle, c. a driver connected to the movable nozzle, d. a platform for receiving a build material from the movable nozzle, and e. a hopper for providing the build material to the driver , the hopper comprising a hopper opening , wherein the nozzle opening and the hopper opening are capable of simultaneous alignment on a straight axis such that the build material , when present, is capable of traveling along the straight axis at least from the hopper opening until the build material attains a flowable state. a. a movable nozzle comprising a nozzle opening , b. a heating element connected to the movable nozzle, c. a driver connected to the movable nozzle, d. a platform for receiving a build material from the movable nozzle, and e. a hopper for providing the build material to the driver , the hopper comprising a hopper opening ,
System for managing a supply voltage (B+A) of an onboard electrical network of a motor vehicle, of the type comprising a regulation device for regulating said supply voltage (B+A) and a protective device for protecting against overvoltages of said onboard electrical network jointly controlling excitation of an alternator supplying said onboard electrical network, where said protective device is distinct from said regulation device and where an overvoltage signal (OVD) that is generated by said protective device and controls said excitation takes priority over an excitation signal (EXC) that is generated by said regulation device , the system being characterized in that the regulation device is of digital type and in that said system further comprises a power circuit comprising a semiconductor excitation switch that is able to switch an excitation circuit of said alternator and is controlled by a control signal (EXC_DR) that is generated by validation means for validating said excitation signal (EXC) by way of said overvoltage signal (OVD).
A detector inlet for providing a sample to an analytical apparatus for detecting a substance of interest, the detector inlet comprising: a plenum for allowing passage of a flow of a gaseous fluid, the plenum comprising a sampling volume ; a sampling inlet arranged in the plenum wherein the sampling inlet comprises a pinhole inlet arranged to collect samples of the gaseous fluid from the sampling volume and to provide the samples to the analytical apparatus , wherein the flow carries particulates; and a flow director arranged to create circulatory flow of the gaseous fluid around the plenum , said circulatory flow encircling the sampling inlet thereby to vary a spatial distribution of the particulates carried by the fluid to increase a relative proportion of the particulates carried past the sampling inlet without entering the sampling volume . a plenum for allowing passage of a flow of a gaseous fluid, the plenum comprising a sampling volume ; a sampling inlet arranged in the plenum wherein the sampling inlet comprises a pinhole inlet arranged to collect samples of the gaseous fluid from the sampling volume and to provide the samples to the analytical apparatus , wherein the flow carries particulates; and a flow director arranged to create circulatory flow of the gaseous fluid around the plenum , said circulatory flow encircling the sampling inlet thereby to vary a spatial distribution of the particulates carried by the fluid to increase a relative proportion of the particulates carried past the sampling inlet without entering the sampling volume .
A polymeric composition comprising a crosslinked (meth)acrylic composition comprising of a brittle matrix (I) having a glass transition temperature of greater than 0°C and of elastomeric domains having a characteristic dimension of less than 100 nm consisting of macromolecular sequences (II) having a flexible nature with a glass transition temperature of less than 0°C, characterized that the macromolecular sequences (II) having a flexible nature are having a weight average molecular weight Mw of between 150 000 and 800 000 g/mol and that the polydispersity index PI of the macromolecular sequences (II) having a flexible nature is greater than 2.6, wherein the glass transition temperature, the weight average molecular weight Mw and the polydispersity index PI are determined as specified in the description.
A star macromolecule represented by Formula X: Formula X [(P1) q1 -(P2) q2 ] t -Core-[(P3) q3 ] r wherein: Core represents a crosslinked polymeric segment; P1 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophobic monomers; P2 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophilic monomers; P3 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophilic monomers; q1 represents the number of repeat units in P1 and has a value between 1 and 50; q2 represents the number of repeat units in P2 and has a value between 30 and 500; q3 represents the number of repeat units in P3 and has a value between 30 and 500; r represents the number of homopolymeric arms covalently attached to the Core; t represents the number of copolymeric arms covalently attached to the Core; and wherein the molar ratio of r to t is in the range of between 20:1 and 2:1. Core represents a crosslinked polymeric segment; P1 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophobic monomers; P2 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophilic monomers; P3 represents a homopolymeric segment comprised of repeat units of monomeric residues of polymerized hydrophilic monomers; q1 represents the number of repeat units in P1 and has a value between 1 and 50; q2 represents the number of repeat units in P2 and has a value between 30 and 500; q3 represents the number of repeat units in P3 and has a value between 30 and 500; r represents the number of homopolymeric arms covalently attached to the Core; t represents the number of copolymeric arms covalently attached to the Core; and
A nonwoven fibrous structure comprising: a plurality of staple fibers, wherein the plurality of staple fibers are non-melt-blown fibers; a plurality of melt-blown fibers comprising poly(phenylene sulfide) in an amount sufficient for the nonwoven fibrous structure to exhibit fire-resistance by passing one or more test selected from UL 94 V0, FAR 25.853 (a), FAR 25.856 (a), AITM20007A, and AITM 3-0005, without any halogenated flame-retardant additive, wherein the nonwoven fibrous structure is dimensionally stable and exhibits a Shrinkage less than 15%, optionally wherein the plurality of melt-blown fibers do not contain a nucleating agent in an amount effective to achieve nucleation. a plurality of staple fibers, wherein the plurality of staple fibers are non-melt-blown fibers; a plurality of melt-blown fibers comprising poly(phenylene sulfide) in an amount sufficient for the nonwoven fibrous structure to exhibit fire-resistance by passing one or more test selected from UL 94 V0, FAR 25.853 (a), FAR 25.856 (a), AITM20007A, and AITM 3-0005, without any halogenated flame-retardant additive, wherein the nonwoven fibrous structure is dimensionally stable and exhibits a Shrinkage less than 15%, optionally wherein the plurality of melt-blown fibers do not contain a nucleating agent in an amount effective to achieve nucleation.
Silicified virus or silicified virus particles for use in a method of inducing a virus-specific immune response in a subject, the method comprising administering to the subject an effective amount of silicified virus or silicified virus particles, thereby inducing a virus-specific immune response in the subject.
A cabin outflow temperature control system for an aircraft comprising: an aircraft cabin; a heat load source (308;408;508;608;708), wherein the heat load source is a catalytic reactor of an aircraft fuel tank inerting system ; a heat exchanger (232; 302-702) configured to receive cabin outflow air from the aircraft cabin and heat load discharge air from the heat load source, the heat exchanger configured to enable thermal transfer from the heat load discharge air to the cabin outflow air to generate high temperature cabin outflow air (312;412;512;612;712) and low temperature discharge air (314;414;514;614;714) as outputs from the heat exchanger; and one or more downstream operation systems (318;420;518;520;626;718;726) configured to receive the high temperature cabin outflow air and perform a downstream operation using said high temperature cabin outflow air. an aircraft cabin; a heat load source (308;408;508;608;708), wherein the heat load source is a catalytic reactor of an aircraft fuel tank inerting system ; a heat exchanger (232; 302-702) configured to receive cabin outflow air from the aircraft cabin and heat load discharge air from the heat load source, the heat exchanger configured to enable thermal transfer from the heat load discharge air to the cabin outflow air to generate high temperature cabin outflow air (312;412;512;612;712) and low temperature discharge air (314;414;514;614;714) as outputs from the heat exchanger; and one or more downstream operation systems (318;420;518;520;626;718;726) configured to receive the high temperature cabin outflow air and perform a downstream operation using said high temperature cabin outflow air.
A computer implemented method for monitoring bone marrow in a patient, comprising: collecting NMR signals of a bone marrow volume in a bone of the patient, at a first time point; repeating the collecting of NMR signals at least at a second time point, at least two months after the first time point; and analyzing the NMR signals collected at the first time point and the second time point; characterized in that the analyzing comprises estimating one or both of adipocyte content and changes in adipocyte content of the bone marrow; and in that collecting the NMR signals at the first time point and at the second time point is done using a stray field non-homogeneous NMR scanner. collecting NMR signals of a bone marrow volume in a bone of the patient, at a first time point; repeating the collecting of NMR signals at least at a second time point, at least two months after the first time point; and analyzing the NMR signals collected at the first time point and the second time point; characterized in that the analyzing comprises estimating one or both of adipocyte content and changes in adipocyte content of the bone marrow; and in that collecting the NMR signals at the first time point and at the second time point is done using a stray field non-homogeneous NMR scanner.
A soft cake having a water activity of from 0.50 to 0.95 and at least a molded face and at least a non-molded face, the molded face having at least one molded three-dimensional pattern, said three dimensional pattern comprising at least a molded groove which is in recess relative to said molded face, said molded groove having a minimum width of about 0.5 mm measured across the groove at the maximum depth, said molded groove having a depth of from 1 to 5 mm, and said molded groove forms a pit such that the length substantially matches the width, wherein said soft cake is obtainable by a method comprising the steps of: a) pouring a cake batter suitable for forming a soft cake into a pan, wherein the cake batter has a viscosity of between 500 and 1 Pa.s as measured at the filling temperature using a Brookfield RVDV-II+ viscometer, using spindle no. 6 at a speed of 25 RPM; b) baking said soft cake batter in said pan to form a soft cake; and c) removing the soft cake from the pan; wherein the pan has a molded inner surface for receiving the cake batter and which provides the three dimensional molding pattern of the soft cake, and wherein the molded inner surface of the pan has an arithmetical mean degree of roughness (Ra) of from 0.12 μm to 0.22 μm, wherein the molded three-dimensional pattern of the soft cake is complementary to the molded inner surface of the pan; wherein the method does not involve a step of pre-greasing the inner surface of a pan before a cake batter is poured into the pan. a) pouring a cake batter suitable for forming a soft cake into a pan, wherein the cake batter has a viscosity of between 500 and 1 Pa.s as measured at the filling temperature using a Brookfield RVDV-II+ viscometer, using spindle no. 6 at a speed of 25 RPM; b) baking said soft cake batter in said pan to form a soft cake; and c) removing the soft cake from the pan; wherein the pan has a molded inner surface for receiving the cake batter and which provides the three dimensional molding pattern of the soft cake, and wherein the molded inner surface of the pan has an arithmetical mean degree of roughness (Ra) of from 0.12 μm to 0.22 μm, wherein the molded three-dimensional pattern of the soft cake is complementary to the molded inner surface of the pan; wherein the method does not involve a step of pre-greasing the inner surface of a pan before a cake batter is poured into the pan.
Use of a chimeric receptor that comprises the central region of OR5A2, encompassing the transmembrane domains 2 to 7 defined by amino acid sequence ID NO:11, which is fused at its N-terminus to the N-terminal extracellular moiety, the transmembrane domain 1 and the intracellular loop 1 of a G protein-coupled receptor; and which is fused at its C-terminus to the intracellular C-terminal end of a G protein-coupled receptor, for identifying agents that interfere with the binding between said OR5A2 receptor and musk compounds.
A wire electrical discharge machine for machining a workpiece (W) by generating electrical discharge at an electrode gap formed between the workpiece and a wire electrode while moving the wire electrode relative to the workpiece, comprising: a processor as a control unit , wherein the control unit includes: a detection unit configured to detect a contact state in which the wire electrode contacts the workpiece, and a contact release state in which the wire electrode that is in the contact state is separated from the workpiece; characterised in that the control unit further includes: a vibration unit configured to, if the contact state is detected during machining of the workpiece, stop relative movement of the wire electrode and vibrate the wire electrode about a stop position (P) at which the relative movement of the wire electrode has been stopped; and a relative movement control unit configured to resume relative movement of the wire electrode if, until a predetermined time elapses from when the contact state has been detected or until a number of times that the wire electrode is vibrated reaches a predetermined number of times, the contact release state is detected. a detection unit configured to detect a contact state in which the wire electrode contacts the workpiece, and a contact release state in which the wire electrode that is in the contact state is separated from the workpiece; characterised in that the control unit further includes: a vibration unit configured to, if the contact state is detected during machining of the workpiece, stop relative movement of the wire electrode and vibrate the wire electrode about a stop position (P) at which the relative movement of the wire electrode has been stopped; and a relative movement control unit configured to resume relative movement of the wire electrode if, until a predetermined time elapses from when the contact state has been detected or until a number of times that the wire electrode is vibrated reaches a predetermined number of times, the contact release state is detected. a vibration unit configured to, if the contact state is detected during machining of the workpiece, stop relative movement of the wire electrode and vibrate the wire electrode about a stop position (P) at which the relative movement of the wire electrode has been stopped; and a relative movement control unit configured to resume relative movement of the wire electrode if, until a predetermined time elapses from when the contact state has been detected or until a number of times that the wire electrode is vibrated reaches a predetermined number of times, the contact release state is detected.
A method for processing signal data comprising the steps of: (a) receiving complete signal data from at least one sensor, the signal data describing the signals received from the at least one sensor in terms of time and frequency (S10); (b) storing the complete signal data in a first file (S20); (c) storing predetermined signal data of the complete signal data in a second file (S30); (d) creating a time-frequency index tree of the predetermined signal data, wherein the time-frequency index tree is based on a B+ tree, wherein each element and each node of the time-frequency index tree comprises a composite key, wherein the composite key comprises a sort key and a search key, and wherein the creating of the time-frequency index tree comprises: d1) inserting new predetermined signal data into the time-frequency index tree using a Hilbert index (S40), wherein the predetermined signal data of a received signal comprises a start time point, an end time point, a lower cut-off frequency and an upper cut-off frequency, and wherein the inserting of new predetermined signal data into the time-frequency index tree comprises: calculating the composite key for the received signal comprising the steps of: calculating the Hilbert index based on the start time point and the lower cutoff frequency, wherein the calculated Hilbert index is used as a sort key; and using the start time point, the end time point, the lower cutoff frequency, and the upper cutoff frequency as a search key for searching for the signal data. (a) receiving complete signal data from at least one sensor, the signal data describing the signals received from the at least one sensor in terms of time and frequency (S10); (b) storing the complete signal data in a first file (S20); (c) storing predetermined signal data of the complete signal data in a second file (S30); (d) creating a time-frequency index tree of the predetermined signal data, wherein the time-frequency index tree is based on a B+ tree, wherein each element and each node of the time-frequency index tree comprises a composite key, wherein the composite key comprises a sort key and a search key, and wherein the creating of the time-frequency index tree comprises: d1) inserting new predetermined signal data into the time-frequency index tree using a Hilbert index (S40), calculating the Hilbert index based on the start time point and the lower cutoff frequency, wherein the calculated Hilbert index is used as a sort key; and using the start time point, the end time point, the lower cutoff frequency, and the upper cutoff frequency as a search key for searching for the signal data.
Elevator system, comprising - a first elevator car and a second elevator car which can be moved in a first elevator shaft in the vertical direction, - a closed support means which is guided about a lower deflection roller and an upper deflection roller , - a drive machine which is assigned to the support means , and - an actuatable coupling device arranged on the first elevator car and an actuatable coupling device arranged on the second elevator car , the support means having a first and a second coupling element , to and from which a coupling device can be coupled and decoupled, as a result of which a drive connection can be established and detached between the relevant elevator car and the support means , and a coupled elevator car can be moved in the first elevator shaft by means of the support means drivable by the relevant drive machine , characterized in that the two coupling elements of the support means are arranged such that in a movement of the first elevator car , which is coupled to the support means via a coupling element , from a lower end position to an upper end position , or vice versa, no coupling element is guided about a deflection roller . - a first elevator car and a second elevator car which can be moved in a first elevator shaft in the vertical direction, - a closed support means which is guided about a lower deflection roller and an upper deflection roller , - a drive machine which is assigned to the support means , and - an actuatable coupling device arranged on the first elevator car and an actuatable coupling device arranged on the second elevator car ,
Method for producing a chassis assembly having a structural component with a through-opening into which a ball joint housing is inserted, wherein the outer circumference of the ball joint housing is peripherally connected to a marginal portion of the through-opening by materially bonded joining without filler material, characterized in that , for stabilization in the through-opening , the ball joint housing is additionally peripherally connected to at least one inner wall portion of the through-opening that is spaced apart from the marginal portion , likewise by materially bonded joining without filler material, wherein the additional connection is spaced apart slightly from the edge of the through-opening that is situated opposite to the marginal portion .