mhurhangee/patent-ind-claim-en huggingface dataset:
A radio resource management measurement method, wherein the method is performed by a base station and comprises: determining configuration information for radio resource management, RRM, measurement for a user equipment, the RRM measurement is reference signal received power, RSRP, measurement; wherein the configuration information for RRM measurement comprises signal combination information which indicates a group of signals for the RRM measurement and configuration information of the signals; and, sending the configuration information for RRM measurement to the user equipment; and receiving, from the user equipment, a measurement result of performing said RRM measurement, wherein types of signals in the group of signals comprise: a primary synchronization signal, PSS, a secondary synchronization signal, SSS, a physical broadcast channel, PBCH, signal, and a channel state information-reference signal, CSI-RS; or, a PSS, a SSS, and a PBCH signal. determining configuration information for radio resource management, RRM, measurement for a user equipment, the RRM measurement is reference signal received power, RSRP, measurement; wherein the configuration information for RRM measurement comprises signal combination information which indicates a group of signals for the RRM measurement and configuration information of the signals; and, sending the configuration information for RRM measurement to the user equipment; and receiving, from the user equipment, a measurement result of performing said RRM measurement, wherein types of signals in the group of signals comprise: a primary synchronization signal, PSS, a secondary synchronization signal, SSS, a physical broadcast channel, PBCH, signal, and a channel state information-reference signal, CSI-RS; or, a PSS, a SSS, and a PBCH signal. a primary synchronization signal, PSS, a secondary synchronization signal, SSS, a physical broadcast channel, PBCH, signal, and a channel state information-reference signal, CSI-RS; or, a PSS, a SSS, and a PBCH signal.
A compound of formula wherein R1, R2, independently of each other, represent hydrogen, substituted or unsubstituted C1-C4 alkyl, substituted or unsubstituted C1-C4 alkoxyl, substituted or unsubstituted aryl, substituted or unsubstituted phenyl, amino, sulfonic, carboxyl, hydroxyl, or halogen groups, wherein the substituents are amino, hydroxyl, sulfonic or carboxylic groups, and R1 and/or R2 are sulfonic groups; C, D, independently of each other, represent R3 and R5, independently of each other, represent hydrogen, substituted or unsubstituted C1-C4 alkyl, substituted or unsubstituted C1-C4 alkoxyl, substituted or unsubstituted aryl, substituted or unsubstituted phenyl, amino, nitro, sulfonic, carboxyl, hydroxyl, or halogen groups, wherein the substituents are amino, hydroxyl, sulfonic or carboxylic groups; R8 is as defined below; n, r are 1, A, B independently of each other, represent or tautomeric forms; wherein R7 to R11 represent, independently of each other, hydrogen, substituted or unsubstituted C1-C4 alkyl, substituted or unsubstituted C1-C4 alkoxy, substituted or unsubstituted aryl, substituted or unsubstituted phenyl, sulfonic, carboxyl, amino, nitro, hydroxyl, or halogen groups, wherein the substituents are amino, hydroxyl, sulfonic or carboxylic groups; and X represents O, S, NH, SO 2 , CH=CH, NHCO, or NH-CO-NH. R1, R2, independently of each other, represent hydrogen, substituted or unsubstituted C1-C4 alkyl, substituted or unsubstituted C1-C4 alkoxyl, substituted or unsubstituted aryl, substituted or unsubstituted phenyl, amino, sulfonic, carboxyl, hydroxyl, or halogen groups, wherein the substituents are amino, hydroxyl, sulfonic or carboxylic groups, and R1 and/or R2 are sulfonic groups; C, D, independently of each other, represent R3 and R5, independently of each other, represent hydrogen, substituted or unsubstituted C1-C4 alkyl, substituted or unsubstituted C1-C4 alkoxyl, substituted or unsubstituted aryl, substituted or unsubstituted phenyl, amino, nitro, sulfonic, carboxyl, hydroxyl, or halogen groups, wherein the substituents are amino, hydroxyl, sulfonic or carboxylic groups; R8 is as defined below; n, r are 1, A, B independently of each other, represent
Device for inverting wafers (P), comprising two wheels which are parallel to one another, each wheel comprising at least one slot intended to receive a wafer (P) to be inverted, the slots being provided on their faces , facing the wafer, with a plurality of gas inlet nozzles , gas flows exiting the nozzles making it possible to hold the wafer in a corresponding slot of each of the wheels without contacting the wheels .
A system for creating a plasma proximate an aerodynamic surface, the system comprising: an aircraft active flow control dielectric barrier discharge device , comprising: a machinable ceramic dielectric support having an aerodynamic surface shaped to form an exposed flush part of an airfoil surface of an aircraft ; and at least two electrodes configured to be oppositely charged and spaced apart from each other on the dielectric support , and characterized by a controller configured to activate the dielectric barrier device during takeoff and landing if a predetermined speed threshold is crossed or if a predetermined angle of attack for the airfoil surface is exceeded, wherein the dielectric barrier discharge device is provided in a form of a cartridge configured to plug into the airfoil structure and to be unplugged for replacement. a machinable ceramic dielectric support having an aerodynamic surface shaped to form an exposed flush part of an airfoil surface of an aircraft ; and at least two electrodes configured to be oppositely charged and spaced apart from each other on the dielectric support , and characterized by a controller configured to activate the dielectric barrier device during takeoff and landing if a predetermined speed threshold is crossed or if a predetermined angle of attack for the airfoil surface is exceeded, wherein the dielectric barrier discharge device is provided in a form of a cartridge configured to plug into the airfoil structure and to be unplugged for replacement.
Compositions comprising A) 10 to 90% by weight of aromatic polycarbonate and/or polyester carbonate, B) 1 to 50% by weight of rubber-based graft polymer with a graft shell B.1) consisting of at least 95% by weight, based on component B.1), of B.1.1) styrene and B.1.2) acrylonitrile and optionally at most 5% by weight, based on component B.1), of at least one other vinyl monomer B.1.3) copolymerizable with B.1.1) and B.1.2), and also with a rubber-type graft base B.2), C) 1 to 50% by weight of rubber-free copolymer consisting of at least 95% by weight, based on component C), of C.1) styrene and C.2) acrylonitrile and optionally at most 5% by weight, based on component C), of at least one other vinyl monomer C.3) copolymerizable with C.1) and C.2), characterized in that the content of acrylonitrile C.2) in component C) is higher by 1.5 to 8.0% by weight than the content of acrylonitrile B.1.2) in the graft shell B.1) of component B) and that the weight-average molecular weight Mw of component C, determined by gel permeation chromatography (GPC) in tetrahydrofuran with polystyrene as standard, is 70 to 200 kDa. A) 10 to 90% by weight of aromatic polycarbonate and/or polyester carbonate, B) 1 to 50% by weight of rubber-based graft polymer with a graft shell B.1) consisting of at least 95% by weight, based on component B.1), of B.1.1) styrene and B.1.2) acrylonitrile and optionally at most 5% by weight, based on component B.1), of at least one other vinyl monomer B.1.3) copolymerizable with B.1.1) and B.1.2), and also with a rubber-type graft base B.2), C) 1 to 50% by weight of rubber-free copolymer consisting of at least 95% by weight, based on component C), of C.1) styrene and C.2) acrylonitrile and optionally at most 5% by weight, based on component C), of at least one other vinyl monomer C.3) copolymerizable with C.1) and C.2),
A method for determining a verification path for each leaf l k of a tree, the method being performed by a tree manager processor , the method comprising: acquiring (S102) leaf values x k of leaves l k , for k = 1,..., m of a tree, wherein the leaves represent at least one of: distinct hash digests, documents, log files, distinct one-time signing keys, authentication keys, default values, or any combination thereof; determining (S104) a root value RV of the leaves l k ; and determining (S106) a verification path VP k from a leaf l k to the root value RV for each of the leaves by determining (S106a) auxiliary parameters y 1 ,..., y m by applying a collision resistant function ξ() to the leaves l 1 ,..., l m , and by determining (S106b) a result from applying a combining function F m to the auxiliary parameters y 1 ,..., y m , wherein the combining function F m is provided as a family of functions F m ( y 1 ,..., y m ), where the length of the output is independent of the number of inputs m such that the size of each verification path is independent from the number of leaves m , where each verification path comprises a partial result and a function that enables determination of said root value RV from its leaf value and said partial result, and wherein said partial result for the verification path for leaf l k is determined as a one-way function depending only on other leaves l j # l k such that the verification path for leaf l k prohibits re-computation of any other leaf value x j from said partial result. acquiring (S102) leaf values x k of leaves l k , for k = 1,..., m of a tree, wherein the leaves represent at least one of: distinct hash digests, documents, log files, distinct one-time signing keys, authentication keys, default values, or any combination thereof; determining (S104) a root value RV of the leaves l k ; and determining (S106) a verification path VP k from a leaf l k to the root value RV for each of the leaves by determining (S106a) auxiliary parameters y 1 ,..., y m by applying a collision resistant function ξ() to the leaves l 1 ,..., l m , and by determining (S106b) a result from applying a combining function F m to the auxiliary parameters y 1 ,..., y m , wherein the combining function F m is provided as a family of functions F m ( y 1 ,..., y m ), where the length of the output is independent of the number of inputs m such that the size of each verification path is independent from the number of leaves m , where each verification path comprises a partial result and a function that enables determination of said root value RV from its leaf value and said partial result, and wherein said partial result for the verification path for leaf l k is determined as a one-way function depending only on other leaves l j # l k such that the verification path for leaf l k prohibits re-computation of any other leaf value x j from said partial result.
A sterile drape for use on an operating table in conjunction with mobile imaging equipment to preserve the sterile field of the operating theater comprising: a flexible enclosure moveable between collapsed and expanded configurations, said flexible enclosure comprising a patient portion for covering at least part of the patient and an imaging portion, the imaging portion including a proximal portion, a distal portion and a pouch formable therebetween, the pouch including at least an upper sterile portion and at least an inner mobile imaging equipment contacting surface, wherein the pouch is sufficiently dimensioned to receive and cover at least a portion of the mobile imaging equipment, and where in the collapsed configuration the upper sterile portion of the pouch is folded inwardly such that the upper sterile portion is substantially shielded from external contamination; and at least one reusable enclosure fastener disposed to secure the enclosure in the collapsed configuration. a flexible enclosure moveable between collapsed and expanded configurations, said flexible enclosure comprising a patient portion for covering at least part of the patient and an imaging portion, the imaging portion including a proximal portion, a distal portion and a pouch formable therebetween, the pouch including at least an upper sterile portion and at least an inner mobile imaging equipment contacting surface, wherein the pouch is sufficiently dimensioned to receive and cover at least a portion of the mobile imaging equipment, and where in the collapsed configuration the upper sterile portion of the pouch is folded inwardly such that the upper sterile portion is substantially shielded from external contamination; and at least one reusable enclosure fastener disposed to secure the enclosure in the collapsed configuration.
A computer-implemented method comprising: establishing , by a mobile computing device having one or more processors, a first cellular connection between the mobile computing device and a first cellular carrier associated with a mobile virtual network operator MVNO ; detecting , by the mobile computing device , a condition indicative of (i) a level of cellular activity via the first cellular connection below an inactivity threshold (ii) an available second cellular connection with a different second cellular carrier associated with the MVNO , (iii) a signal strength difference between the first cellular connection with the first cellular carrier associated with the MVNO and the available second cellular connection with the different second cellular carrier associated with the MVNO is greater than a minimum strength improvement threshold, and (iv) a predicted period of inactivity between the mobile computing device and a user based on usage patterns of the user; and in response to detecting the condition: (a) terminating , by the mobile computing device, the first cellular connection, and (b) initiating , by the mobile computing device, the second cellular connection with the second cellular carrier associated with the MVNO . establishing , by a mobile computing device having one or more processors, a first cellular connection between the mobile computing device and a first cellular carrier associated with a mobile virtual network operator MVNO ; detecting , by the mobile computing device , a condition indicative of (i) a level of cellular activity via the first cellular connection below an inactivity threshold (ii) an available second cellular connection with a different second cellular carrier associated with the MVNO , (iii) a signal strength difference between the first cellular connection with the first cellular carrier associated with the MVNO and the available second cellular connection with the different second cellular carrier associated with the MVNO is greater than a minimum strength improvement threshold, and (iv) a predicted period of inactivity between the mobile computing device and a user based on usage patterns of the user; and in response to detecting the condition: (a) terminating , by the mobile computing device, the first cellular connection, and (b) initiating , by the mobile computing device, the second cellular connection with the second cellular carrier associated with the MVNO . (a) terminating , by the mobile computing device, the first cellular connection, and (b) initiating , by the mobile computing device, the second cellular connection with the second cellular carrier associated with the MVNO .
A tube yoke manufacturing apparatus (A) comprising: a plurality of tube yoke forming moulds (110-150) configured to form a tube yoke comprising a tube part and a yoke part by inserting a material into a die and pressing the material by means of a punch, and a spline forging mould provided with a forming pin having a spline part (161P-a) formed in an outer circumferential surface thereof and configured to make a spline (SP) formed inside the tube part as the forming pin is inserted into the tube part characterized in that a land part (L1, L2) protruding in a circumferential direction of the forming pin is formed on the spline part (161P-a) corresponding to one side in the length direction of the forming pin. a plurality of tube yoke forming moulds (110-150) configured to form a tube yoke comprising a tube part and a yoke part by inserting a material into a die and pressing the material by means of a punch, and a spline forging mould provided with a forming pin having a spline part (161P-a) formed in an outer circumferential surface thereof and configured to make a spline (SP) formed inside the tube part as the forming pin is inserted into the tube part characterized in that a land part (L1, L2) protruding in a circumferential direction of the forming pin is formed on the spline part (161P-a) corresponding to one side in the length direction of the forming pin.
An alarm system comprising: an alarm panel ; a sensor operatively connected to the alarm panel and operable to detect alarm events; and a communicator module operatively connected to the alarm panel and operable to: capture cellular signals based upon a cellular communication protocol, and transmitted by mobile devices within a predefined area; extract mobile device identifiers from the cellular signals; and record the mobile device identifiers in an active device identifier list that is maintained in a memory associated with the communicator module , characterized in that the active device identifier list comprises the mobile device identifiers extracted from a predefined number of strongest signals received from the mobile devices during a predefined period of time. an alarm panel ; a sensor operatively connected to the alarm panel and operable to detect alarm events; and a communicator module operatively connected to the alarm panel and operable to: capture cellular signals based upon a cellular communication protocol, and transmitted by mobile devices within a predefined area; extract mobile device identifiers from the cellular signals; and record the mobile device identifiers in an active device identifier list that is maintained in a memory associated with the communicator module , characterized in that the active device identifier list comprises the mobile device identifiers extracted from a predefined number of strongest signals received from the mobile devices during a predefined period of time. capture cellular signals based upon a cellular communication protocol, and transmitted by mobile devices within a predefined area; extract mobile device identifiers from the cellular signals; and record the mobile device identifiers in an active device identifier list that is maintained in a memory associated with the communicator module , characterized in that
A computer-implemented method of generating at least one depth value, the method comprising: receiving, by one or more processors, captured image data from a first optical device having a first optical axis or a second optical device having a second optical axis; receiving, from a flexion sensor , by the one or more processors, sensor data which reflects a value of electrical resistance associated with a current deformation of the flexion sensor indicative of a deflection of a substrate that supports the first and second optical devices, the deflection resulting in a misalignment of the first optical axis relative to the second optical axis, the flexion sensor being configured to measure the deflection along at least one bending axis of the substrate ; determining a deflection amount based on the sensor data ; and generating, by the one or more processors, a depth value based on the captured image data and the deflection amount, the depth value reflecting a compensation for the misalignment of the first optical axis relative to the second optical axis. receiving, by one or more processors, captured image data from a first optical device having a first optical axis or a second optical device having a second optical axis; receiving, from a flexion sensor , by the one or more processors, sensor data which reflects a value of electrical resistance associated with a current deformation of the flexion sensor indicative of a deflection of a substrate that supports the first and second optical devices, the deflection resulting in a misalignment of the first optical axis relative to the second optical axis, the flexion sensor being configured to measure the deflection along at least one bending axis of the substrate ; determining a deflection amount based on the sensor data ; and generating, by the one or more processors, a depth value based on the captured image data and the deflection amount, the depth value reflecting a compensation for the misalignment of the first optical axis relative to the second optical axis.
A method of forming a medical device element comprising: mixing a first polymeric component comprising a polyurethane, a second polymeric component comprising a methyl vinyl ether and maleic anhydride copolymer, and a photoactivatable cross-linking agent to form a polymer mixture; forming the polymer mixture into the medical device element; wherein the medical device element is formed into a tube or a shaft, wherein the tube or shaft defines a luminal surface having one or more functional properties comprising lubriciousness or hemocompatibility; exposing the medical device element to ultraviolet radiation; drying the medical device element; and treating the medical device element with at least one of an acid or a base. mixing a first polymeric component comprising a polyurethane, a second polymeric component comprising a methyl vinyl ether and maleic anhydride copolymer, and a photoactivatable cross-linking agent to form a polymer mixture; forming the polymer mixture into the medical device element; wherein the medical device element is formed into a tube or a shaft, wherein the tube or shaft defines a luminal surface having one or more functional properties comprising lubriciousness or hemocompatibility; exposing the medical device element to ultraviolet radiation; drying the medical device element; and treating the medical device element with at least one of an acid or a base.
A synapse array based on a static random access memory (SRAM), the synapse array comprising a plurality of synapse circuits; at least one synapse circuit among the plurality of synapse circuits comprises at least one bias transistor and at least two cut-off transistors , and the at least one synapse circuit is configured to charge a membrane node of a neuron circuit connected with the at least one synapse circuit using a sub-threshold leakage current that passed through the at least one bias transistor; wherein the at least two cut-off transistors comprise a first cut-off transistor and a second cut-off transistor ; said synapse circuit comprising a static random access memory (SRAM) circuit implemented by a cross-coupled inverter configuration coupled between a power voltage (VDD) and a ground voltage (GND); said first cut-off transistor being a PMOS transistor, connected between said cross-coupled inverter configuration and the power voltage for pull-up, having its gate connected to said power voltage for pull-up; said second cut-off transistor being an NMOS transistor, connected between said cross-coupled inverter configuration and the ground voltage for pull-down, having its gate connected to said ground voltage for pull-down; said at least one bias transistor being a PMOS transistor, serially connected between the membrane node and at least one additional PMOS transistor, the gate of said additional PMOS transistor being connected to said output node of said cross-coupled inverter configuration and a source/drain of said additional PMOS transistor being connected to the power voltage for pull up, and said at least one bias transistor being connected to the membrane node of the neuron circuit connected with the at least one synapse circuit; wherein the at least one synapse circuit is configured to change a value of the SRAM using a leakage current that passed through the at least two cut-off transistors.