mhurhangee/patent-ind-claim-en huggingface dataset:
A coaxial connector comprising: outer contacts comprising a first outer contact and a second outer contact which are slidably assembled together; inner contacts provided within the outer contacts ; and a first elastic element disposed between the first outer contact and the second outer contact and adapted to exert an axial pushing force onto the first outer contact , wherein the second outer contact comprises an outer cylinder and an inner cylinder connected to the outer cylinder , and a receiving groove having an an nular cross section is defined between the outer cylinder and the inner cylinder ; wherein the first elastic element is received in the receiving groove , and one end of the first elastic element abuts against the first outer contact and the other end thereof abuts against the second outer contact ; characterized in that the first outer contact comprises an elastic latch which is adapted to be inserted into the receiving groove and be latched onto an inner wall of the outer cylinder . outer contacts comprising a first outer contact and a second outer contact which are slidably assembled together; inner contacts provided within the outer contacts ; and a first elastic element disposed between the first outer contact and the second outer contact and adapted to exert an axial pushing force onto the first outer contact , wherein the second outer contact comprises an outer cylinder and an inner cylinder connected to the outer cylinder , and a receiving groove having an an nular cross section is defined between the outer cylinder and the inner cylinder ; wherein the first elastic element is received in the receiving groove , and one end of the first elastic element abuts against the first outer contact and the other end thereof abuts against the second outer contact ; characterized in that the first outer contact comprises an elastic latch which is adapted to be inserted into the receiving groove and be latched onto an inner wall of the outer cylinder .
A method of controlling movement of a component in a system by a plurality of actuators , comprising: receiving an operation actuation command to move the component ; and for each of the plurality of actuators : using the operation actuation command to generate a feed-forward equalization command for the actuator , combining the feed-forward equalization command for the actuator with the operation actuation command to provide an equalized actuation command for the actuator , and controlling the actuator to move the component using the equalized actuation command for the actuator , the method comprising delaying combining the feed-forward equalization command for the actuator with the operation actuation command to provide the equalized actuation command for the actuator based on a model of actuator system response delay . receiving an operation actuation command to move the component ; and for each of the plurality of actuators : using the operation actuation command to generate a feed-forward equalization command for the actuator , combining the feed-forward equalization command for the actuator with the operation actuation command to provide an equalized actuation command for the actuator , and controlling the actuator to move the component using the equalized actuation command for the actuator , using the operation actuation command to generate a feed-forward equalization command for the actuator , combining the feed-forward equalization command for the actuator with the operation actuation command to provide an equalized actuation command for the actuator , and controlling the actuator to move the component using the equalized actuation command for the actuator , the method comprising delaying combining the feed-forward equalization command for the actuator with the operation actuation command to provide the equalized actuation command for the actuator based on a model of actuator system response delay .
Nitric oxide (NO) donor for use in a method of treatment, prevention and/or amelioration of disturbances of the cerebral macro- and microcirculation which disturbances cause cerebrovascular spasms (CVS) and/or malperfusion of brain parenchyma caused by blood vessel and blood flow dysregulation, said method comprising administering to the subject a NO donor prodrug which has to be metabolized by said subject into the active NO-delivering form and intraventricularly administering an active NO-delivering NO donor, wherein said active NO-delivering NO donor is nitroprusside, wherein said NO donor prodrug is administered intravenously, and wherein said NO donor prodrug is N-ethoxycarbonyl-3-morpholinosydnonimine (molsidomine).
A stream-pushing method, applied to a live broadcast service using a content delivery network, CDN, and applied at a central node, comprising: receiving a stream-pushing request forward-pushed by an edge node, and determining whether the stream-pushing request corresponds to an existing channel, wherein the stream-pushing request comprises priority information; and establishing one channel for the stream-pushing request and receiving streaming media data corresponding to the channel when the determination result is no, and storing the priority information corresponding to the established channel; or sending a prompt message to the edge node when a determination result is yes, wherein the prompt message indicates that the stream-pushing request is a repeated stream-pushing request; comparing the priority information of the stream-pushing request and priority information of the existing channel, and receiving streaming media data with higher priority information based on a comparison result and storing priority information corresponding to the streaming media data. receiving a stream-pushing request forward-pushed by an edge node, and determining whether the stream-pushing request corresponds to an existing channel, wherein the stream-pushing request comprises priority information; and establishing one channel for the stream-pushing request and receiving streaming media data corresponding to the channel when the determination result is no, and storing the priority information corresponding to the established channel; or sending a prompt message to the edge node when a determination result is yes, wherein the prompt message indicates that the stream-pushing request is a repeated stream-pushing request; comparing the priority information of the stream-pushing request and priority information of the existing channel, and receiving streaming media data with higher priority information based on a comparison result and storing priority information corresponding to the streaming media data.
A method of improving the uniformity of a tire, comprising: obtaining, by one or more computing devices, a set of magnitudes of a uniformity parameter measured for a set of a plurality of tires, each magnitude being associated with one of the test tires in the set of tires; transforming, by the one or more computing devices, the set of magnitudes to generate a set of transformed magnitudes, wherein the transformed magnitudes are associated with a generally linear distribution; estimating, by the one or more computing devices, one or more parameters of a probability distribution from the transformed magnitudes; determining, by the one or more computing devices, data indicative of a measurement error attributable to a measurement process harmonic based at least in part on the one or more parameters of the probability distribution; and modifying tire manufacture based at least in part on the data indicative of the measurement error. obtaining, by one or more computing devices, a set of magnitudes of a uniformity parameter measured for a set of a plurality of tires, each magnitude being associated with one of the test tires in the set of tires; transforming, by the one or more computing devices, the set of magnitudes to generate a set of transformed magnitudes, wherein the transformed magnitudes are associated with a generally linear distribution; estimating, by the one or more computing devices, one or more parameters of a probability distribution from the transformed magnitudes; determining, by the one or more computing devices, data indicative of a measurement error attributable to a measurement process harmonic based at least in part on the one or more parameters of the probability distribution; and modifying tire manufacture based at least in part on the data indicative of the measurement error.
A resin composition comprising an ethylene-vinyl alcohol copolymer as a principal component, the resin composition having a heterogeneous nucleation index (f) of less than 0.6 as determined by formula based on a differential scanning calorimetry (DSC) curve obtained by DSC, wherein the resin composition is cooled at a rate of 150 °C/sec from a molten state at 210 °C, f = Q hetero /Q total where in the formula , Q total represents an area of a total region surrounded by the DSC curve and a base line that is a straight line connecting a point indicating a thermal flow value at a temperature lower than a melting point by 38 °C and a point indicating a thermal flow value at a temperature lower than the melting point by 103 °C, and Q hetero represents an area of a heterogeneous region that is a part of the total region, falling within a range from the temperature lower than the melting point by 38 °C to a temperature lower than the melting point by 75 °C. Q total represents an area of a total region surrounded by the DSC curve and a base line that is a straight line connecting a point indicating a thermal flow value at a temperature lower than a melting point by 38 °C and a point indicating a thermal flow value at a temperature lower than the melting point by 103 °C, and Q hetero represents an area of a heterogeneous region that is a part of the total region, falling within a range from the temperature lower than the melting point by 38 °C to a temperature lower than the melting point by 75 °C.
Bipolar plate for a fuel cell system , having: a cathode-side plate , having a first channel structure (K1) for an oxygen-containing reactant (O2) on a first side and a second channel structure (K2) for a coolant (KM) on a second side , and an anode-side plate , having a first channel structure (A1) for a fuel-containing reactant (H2) on a first side and a second channel structure (A2) for a coolant (KM) on a second side , where the cathode-site plate and the anode-side plate adjoin one another by their second sides for the coolant (KM), characterized in that the first channel structure (K1) of the cathode-side plate differs geometrically from the second channel structure (K2) of the cathode-side plate , characterized in that the cathode-side plate , viewed in a direction (R) transverse to individual channels (k1, k2, km) of the first channel structure (K1) and of the second channel structure (K2), alternately has a channel (km) for the coolant (KM) and two channels (k1, k2) for the oxygen-containing reactant (O2). a cathode-side plate , having a first channel structure (K1) for an oxygen-containing reactant (O2) on a first side and a second channel structure (K2) for a coolant (KM) on a second side , and an anode-side plate , having a first channel structure (A1) for a fuel-containing reactant (H2) on a first side and a second channel structure (A2) for a coolant (KM) on a second side , where the cathode-site plate and the anode-side plate adjoin one another by their second sides for the coolant (KM), characterized in that the first channel structure (K1) of the cathode-side plate differs geometrically from the second channel structure (K2) of the cathode-side plate , characterized in that the cathode-side plate , viewed in a direction (R) transverse to individual channels (k1, k2, km) of the first channel structure (K1) and of the second channel structure (K2), alternately has a channel (km) for the coolant (KM) and two channels (k1, k2) for the oxygen-containing reactant (O2).
A method for determining the amount of a vitamin D metabolite in a sample by tandem mass spectrometry, comprising: (a) purifying a plasma or serum sample by liquid chromatography, wherein the sample is not subjected to gas-chromatography; (b generating a protonated and dehydrated precursor ion of said vitamin D metabolite; (c) generating from said precursor ion one or more fragment ions having a mass-to-charge ratio of 251.30±0.5, 211.35±0.5, 209.20±0.5, or 179.10±0.5; and (d) detecting the amount of one or more of said ions generated in step (b) or (c) or both and relating the detected ions to the amount of said vitamin D metabolite in said sample. (a) purifying a plasma or serum sample by liquid chromatography, wherein the sample is not subjected to gas-chromatography; (b generating a protonated and dehydrated precursor ion of said vitamin D metabolite; (c) generating from said precursor ion one or more fragment ions having a mass-to-charge ratio of 251.30±0.5, 211.35±0.5, 209.20±0.5, or 179.10±0.5; and (d) detecting the amount of one or more of said ions generated in step (b) or (c) or both and relating the detected ions to the amount of said vitamin D metabolite in said sample.
A method of operation of a wireless device in a cellular communications network , comprising: receiving an indication of one or more transmit patterns for one or more logical channel groups, wherein each transmit pattern of the one or more transmit patterns defines a plurality of transmit opportunities; wherein the one or more transmit patterns comprise a plurality of transmit patterns, each transmit pattern comprising a delay constraint that defines an amount of time between adjacent transmit opportunities in the plurality of transmit opportunities defined by the transmit pattern; generating a combined transmit pattern for the wireless device based on the one or more transmit patterns, wherein a periodicity of the combined transmit pattern is a minimum delay constraint among the plurality of transmit patterns; based on the one or more transmit patterns, determining when to transmit a scheduling request for transmission of data in accordance with the one or more transmit patterns; wherein determining when to transmit a scheduling request comprises determining when to transmit a scheduling request based on the combined transmit pattern; and upon determining that it is time to transmit a scheduling request, transmitting a scheduling request to a radio access node to thereby request resources for transmission of uplink data in accordance with the one or more transmit patterns. receiving an indication of one or more transmit patterns for one or more logical channel groups, wherein each transmit pattern of the one or more transmit patterns defines a plurality of transmit opportunities; wherein the one or more transmit patterns comprise a plurality of transmit patterns, each transmit pattern comprising a delay constraint that defines an amount of time between adjacent transmit opportunities in the plurality of transmit opportunities defined by the transmit pattern; generating a combined transmit pattern for the wireless device based on the one or more transmit patterns, wherein a periodicity of the combined transmit pattern is a minimum delay constraint among the plurality of transmit patterns; based on the one or more transmit patterns, determining when to transmit a scheduling request for transmission of data in accordance with the one or more transmit patterns; wherein determining when to transmit a scheduling request comprises determining when to transmit a scheduling request based on the combined transmit pattern; and upon determining that it is time to transmit a scheduling request, transmitting a scheduling request to a radio access node to thereby request resources for transmission of uplink data in accordance with the one or more transmit patterns.
A base station configured to serve one or more mobile terminals , the base station comprising a baseband processor configured to: determine different sets of configuration parameters for uplink sounding signal transmissions for a given mobile terminal of said one or more mobile terminals ; which different sets of configuration parameters are adapted to enable said given mobile terminal to generate different sounding signals based on said different sets of configuration parameters, wherein said different sounding signals are received by the base station and used thereby for different operations including channel-quality estimation and timing estimation and transmit the different sets of configuration parameters to the mobile terminal.
A generator load state detection method, wherein the method comprises: acquiring the load power of a target generator, wherein the target generator is connected to a load with a set of cables, the target generator is in load control mode and the load power is used to represent the actual output power of the target generator; acquiring the target output power of the target generator, wherein the target output power is used to represent the power required by the target generator to output in load control mode; calculating the difference between the load power and the target output power as a power imbalance value; characterised by determining if an unexpected load interruption of the target generator happens according to the power imbalance value. acquiring the load power of a target generator, wherein the target generator is connected to a load with a set of cables, the target generator is in load control mode and the load power is used to represent the actual output power of the target generator; acquiring the target output power of the target generator, wherein the target output power is used to represent the power required by the target generator to output in load control mode; calculating the difference between the load power and the target output power as a power imbalance value; characterised by determining if an unexpected load interruption of the target generator happens according to the power imbalance value.
A method for producing an implant member, comprising, providing an implant member including means for attachment to living biological tissue of a human being or an animal, the implant having an outer surface, wherein said outer surface comprises at least one surface region , the surface region being positioned in the region of the attachment means , modifying the surface region topographically by patterning said surface by means of laser, and wherein the surface region has a surface with an S a between 0.8 and 10 μm, where S a is specified by the equation: S a = 1 M ∗ N ∑ j = 1 N ∑ i = 1 M z x i y j .
A sheet-mask package constituted by a package box and a holed tray (T1) stored in the package box, which holed tray has a hole at a bottom and on which holed tray a stack of sheet masks that have been moistened with a chemical solution (L) and then Z-folded is placed, wherein the package box contacting the hole provided in the holed tray has a window formed in it that can be opened for dispensing, wherein the package box contacting the hole provided in the holed tray has an outline of a window pre-formed using a thin area part so that a window can be formed in such a way that the outline of the window is torn by applying an external force along the thin area.
An orthodontic attachment device (100; 100a; 100b) comprising: an attachment body (102; 102a; 102b) and a bonding surface (110; 110a; 110b) underlying the body, wherein the bonding surface is shaped to correspond to a contour of a portion of a tooth; wherein the attachment body has the general shape of an inverted frustrum and the bonding surface is the underside of the attachment body, wherein the attachment body includes mesial, distal, occlusal, and gingival side surfaces extending between a facial surface of the body and the bonding surface, and wherein each one of the side surfaces has a continuous, decreasing taper between the facial surface and the bonding surface so that the attachment body has a generally trapezoidal cross-sectional shape along both a mesial-distal and an occlusal-gingival axis. an attachment body (102; 102a; 102b) and a bonding surface (110; 110a; 110b) underlying the body, wherein the bonding surface is shaped to correspond to a contour of a portion of a tooth; wherein the attachment body has the general shape of an inverted frustrum and the bonding surface is the underside of the attachment body, wherein the attachment body includes mesial, distal, occlusal, and gingival side surfaces extending between a facial surface of the body and the bonding surface, and wherein each one of the side surfaces has a continuous, decreasing taper between the facial surface and the bonding surface so that the attachment body has a generally trapezoidal cross-sectional shape along both a mesial-distal and an occlusal-gingival axis.
A multicast group creation method, comprising: receiving , by a first control plane network element, a first request message from a terminal, wherein the first request message is used to request to create a multicast group; sending , by the first control plane network element, a second request message to a second control plane network element, wherein the second request message is used to request to create the multicast group; receiving , by the first control plane network element, information about a first user plane network element from the second control plane network element; and sending , by the first control plane network element, indication information to a second user plane network element, wherein the indication information is used to indicate the second user plane network element to send a multicast packet received from the terminal to the first user plane network element; wherein a next-hop user plane network element of the second user plane network element is the first user plane network element; and wherein the first control plane network element manages the second user plane network element, the second control plane network element manages the first user plane network element, and the first user plane network element is connected to the second user plane network element. receiving , by a first control plane network element, a first request message from a terminal, wherein the first request message is used to request to create a multicast group; sending , by the first control plane network element, a second request message to a second control plane network element, wherein the second request message is used to request to create the multicast group; receiving , by the first control plane network element, information about a first user plane network element from the second control plane network element; and sending , by the first control plane network element, indication information to a second user plane network element, wherein the indication information is used to indicate the second user plane network element to send a multicast packet received from the terminal to the first user plane network element; wherein a next-hop user plane network element of the second user plane network element is the first user plane network element; and wherein the first control plane network element manages the second user plane network element, the second control plane network element manages the first user plane network element, and the first user plane network element is connected to the second user plane network element.