mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication, comprising: receiving first information from a network device, wherein the first information indicates a first parameter to be used for generating a random access preamble sequence, receiving second information from the network device, wherein the second information indicates a set type, wherein the set type is one of an unrestricted set, a restricted set type A, or a restricted set type B, wherein each set type is associated with a set of values of the first parameter; determining, a value of the first parameter according to the first information and the second information; and generating, the random access preamble sequence based on the determined value of the first parameter; characterized in that : when the set type is the restricted set type A, the determined value of the first parameter is one value of a first set of values of the first parameter, and the first set comprises: 237, 216, 195, 173, 152, 137, 132, 121, 112, 103, 94, 89, 81, 72, 57, and 36; when the set type is the restricted set type B, the determined value of the first parameter is one value of a second set of values of the first parameter, and the second set comprises: 137, 122, 109, 97, 85, 81, 77, 71, 68, 65, 63, 60, 57 and 36. receiving first information from a network device, wherein the first information indicates a first parameter to be used for generating a random access preamble sequence, receiving second information from the network device, wherein the second information indicates a set type, wherein the set type is one of an unrestricted set, a restricted set type A, or a restricted set type B, wherein each set type is associated with a set of values of the first parameter; determining, a value of the first parameter according to the first information and the second information; and generating, the random access preamble sequence based on the determined value of the first parameter; characterized in that : when the set type is the restricted set type A, the determined value of the first parameter is one value of a first set of values of the first parameter, and the first set comprises: 237, 216, 195, 173, 152, 137, 132, 121, 112, 103, 94, 89, 81, 72, 57, and 36; when the set type is the restricted set type B, the determined value of the first parameter is one value of a second set of values of the first parameter, and the second set comprises: 137, 122, 109, 97, 85, 81, 77, 71, 68, 65, 63, 60, 57 and 36. when the set type is the restricted set type A, the determined value of the first parameter is one value of a first set of values of the first parameter, and the first set comprises: 237, 216, 195, 173, 152, 137, 132, 121, 112, 103, 94, 89, 81, 72, 57, and 36; when the set type is the restricted set type B, the determined value of the first parameter is one value of a second set of values of the first parameter, and the second set comprises: 137, 122, 109, 97, 85, 81, 77, 71, 68, 65, 63, 60, 57 and 36.
A governor assembly , comprising: a sheave rotatably mounted on a shaft ; an overspeed assembly including: a swing jaw mounted to the sheave movable between a normal position and a tripped position, the swing jaw being biased into the tripped position, wherein when the swing jaw is in the tripped position, rotation of the sheave in a first direction is restricted; and a tripping lever pivotally mounted to the sheave , the tripping lever being configured to cooperate with the swing jaw , wherein rotation of the sheave in a second, opposite direction is configured to automatically move the swing jaw against its bias to the normal position; and a ratchet disc mounted on the shaft such that rotation of the ratchet disc is restricted, wherein the ratchet disc is decoupled from rotation of the sheave shaft during normal operating conditions such that the ratchet disc remains generally stationary, and characterised in that rotation of the sheave in the second opposite direction is relative to the stationary ratchet disc . a sheave rotatably mounted on a shaft ; an overspeed assembly including: a swing jaw mounted to the sheave movable between a normal position and a tripped position, the swing jaw being biased into the tripped position, wherein when the swing jaw is in the tripped position, rotation of the sheave in a first direction is restricted; and a tripping lever pivotally mounted to the sheave , the tripping lever being configured to cooperate with the swing jaw , wherein rotation of the sheave in a second, opposite direction is configured to automatically move the swing jaw against its bias to the normal position; and a ratchet disc mounted on the shaft such that rotation of the ratchet disc is restricted, wherein the ratchet disc is decoupled from rotation of the sheave shaft during normal operating conditions such that the ratchet disc remains generally stationary, and characterised in that rotation of the sheave in the second opposite direction is relative to the stationary ratchet disc . a swing jaw mounted to the sheave movable between a normal position and a tripped position, the swing jaw being biased into the tripped position, wherein when the swing jaw is in the tripped position, rotation of the sheave in a first direction is restricted; and a tripping lever pivotally mounted to the sheave , the tripping lever being configured to cooperate with the swing jaw , wherein rotation of the sheave in a second, opposite direction is configured to automatically move the swing jaw against its bias to the normal position; and a ratchet disc mounted on the shaft such that rotation of the ratchet disc is restricted, wherein the ratchet disc is decoupled from rotation of the sheave shaft during normal operating conditions such that the ratchet disc remains generally stationary, and characterised in that rotation of the sheave in the second opposite direction is relative to the stationary ratchet disc .
A method of reducing or preventing the tendency for condensation to form on the outermost surface of a glazing comprising: providing the outermost surface of a pane of glass comprised in the glazing with a photoactive, hydrophilic, low emissivity coating layer, having a water droplet contact angle of 10° to 30° and an emissivity of 0.7 or less, wherein reduction in visibility through the glazing due to condensation is minimised or eliminated, wherein the coating layer is a composite layer comprising two or more different coating layers, wherein the composite layer comprises a low emissivity layer and an outermost hydrophilic, photoactive layer, and wherein the outermost hydrophilic, photoactive layer exhibits photoactivity of at least 1 x 10 -3 cm -1 min -1 . providing the outermost surface of a pane of glass comprised in the glazing with a photoactive, hydrophilic, low emissivity coating layer, having a water droplet contact angle of 10° to 30° and an emissivity of 0.7 or less, wherein reduction in visibility through the glazing due to condensation is minimised or eliminated, wherein the coating layer is a composite layer comprising two or more different coating layers, wherein the composite layer comprises a low emissivity layer and an outermost hydrophilic, photoactive layer, and wherein the outermost hydrophilic, photoactive layer exhibits photoactivity of at least 1 x 10 -3 cm -1 min -1 .
A method of operating a wireless device in a cellular communications network , to provide Channel State Information, CSI, feedback from multiple CSI reporting configurations, the method comprising: receiving a first CSI reporting configuration; receiving a second CSI reporting configuration; reporting updated CSI in a CSI report for only one of the first CSI reporting configuration and the second CSI reporting configuration; characterized by further comprising: determining a first time instant corresponding to the first CSI reporting configuration; determining a second time instant corresponding to the second CSI reporting configuration; and calculating the CSI report using the second CSI reporting configuration if the first time instant is not between the second time instant and a third time instant, where the third time instant is later than the second time instant. receiving a first CSI reporting configuration; receiving a second CSI reporting configuration; reporting updated CSI in a CSI report for only one of the first CSI reporting configuration and the second CSI reporting configuration; characterized by further comprising: determining a first time instant corresponding to the first CSI reporting configuration; determining a second time instant corresponding to the second CSI reporting configuration; and calculating the CSI report using the second CSI reporting configuration if the first time instant is not between the second time instant and a third time instant, where the third time instant is later than the second time instant. determining a first time instant corresponding to the first CSI reporting configuration; determining a second time instant corresponding to the second CSI reporting configuration; and calculating the CSI report using the second CSI reporting configuration if the first time instant is not between the second time instant and a third time instant, where the third time instant is later than the second time instant.
A power control method, comprising: obtaining parameter information of a physical uplink control channel, PUCCH, wherein the parameter information comprises value information of a scale factor, SF, of the PUCCH; calculating transmit power of the PUCCH according to the parameter information; and transmitting the PUCCH according to the calculated transmit power of the PUCCH; wherein the calculating transmit power of the PUCCH according to the parameter information comprises: calculating the transmit power of the PUCCH according to the formula P PUCCH i = min { P CMAX , c i 10 log 10 SF + P 0 _ PUCCH + PL c + h n CQI n HARQ n SR + Δ F _ PUCCH F + Δ TxD F ′ + g i wherein P PUCCH ( i ) represents transmit power of the PUCCH channel in a subframe i, P CMAX,c represents maximum transmit power of UE on a carrier c, P 0_PUCCH represents channel open-loop power of the PUCCH, PL c represents a path loss on the carrier c, h ( n CQI , n HARQ , n SR ) is a compensation for a quantity of bits of different uplink control information in a same PUCCH format, Δ F_PUCCH ( F ) is a compensation for different PUCCH formats, Δ TxD ( F' ) is a parameter related to multiple antenna ports and g ( i ) represents a power control dynamic deviation. obtaining parameter information of a physical uplink control channel, PUCCH, wherein the parameter information comprises value information of a scale factor, SF, of the PUCCH; calculating transmit power of the PUCCH according to the parameter information; and transmitting the PUCCH according to the calculated transmit power of the PUCCH; wherein the calculating transmit power of the PUCCH according to the parameter information comprises: calculating the transmit power of the PUCCH according to the formula P PUCCH i = min { P CMAX , c i 10 log 10 SF + P 0 _ PUCCH + PL c + h n CQI n HARQ n SR + Δ F _ PUCCH F + Δ TxD F ′ + g i wherein P PUCCH ( i ) represents transmit power of the PUCCH channel in a subframe i, P CMAX,c represents maximum transmit power of UE on a carrier c, P 0_PUCCH represents channel open-loop power of the PUCCH, PL c represents a path loss on the carrier c, h ( n CQI , n HARQ , n SR ) is a compensation for a quantity of bits of different uplink control information in a same PUCCH format, Δ F_PUCCH ( F ) is a compensation for different PUCCH formats, Δ TxD ( F' ) is a parameter related to multiple antenna ports and g ( i ) represents a power control dynamic deviation.
Method of producing an α-glucan with a ratio of branching of at least 8% comprising contacting a polysaccharide or oligosaccharide substrate comprising at its non-reducing end at least two α(1→4) linked D-glucose units with an α-glucanotransferase enzyme capable of cleaving α(1→4) glucosidic linkages and making new alternating α(1→4) and α(1→6) glucosidic linkages with α(1→4,6) branching points without forming consecutive α(1→6) glucosidic linkages, wherein said α-glucanotransferase is selected from the group consisting of GTFB, GTFC and GTFD types of enzyme, or a functional homolog thereof having the specified enzymatic activity, and wherein the α-glucanotransferase comprises an amino acid sequence having at least 80% identity to SEQ ID NO:1 or comprises an amino acid sequence having at least 80% identity to SEQ ID NO:92.
A computer-implemented method for identifying prominent landmarks in a geographic area, the method comprising: accessing , by the one or more computing devices, geographic imagery data comprising a plurality of images captured from one or more cameras, where the plurality of images have been captured from a plurality of perspectives at or near ground level; generating , by the one or more computing devices, a point cloud based at least in part on the geographic imagery data, the point cloud comprising a plurality of data points, each of the plurality of data points associated with a tracked feature in the geographic imagery data, wherein the point cloud is generated by the one or more computing devices using a structure-from-motion technique; identifying , by the one or more computing devices, a subset of data points in the point cloud, each data point in the subset located at least a threshold distance away from one or more camera perspectives associated with the geographic imagery data; and matching , by the one or more computing devices, one or more data points in the subset of data points with a landmark, wherein matching one or more data points in the subset of data points with the landmark comprises querying a database of landmarks; identifying the matched landmark as a prominent landmark in the geographical area. accessing , by the one or more computing devices, geographic imagery data comprising a plurality of images captured from one or more cameras, where the plurality of images have been captured from a plurality of perspectives at or near ground level; generating , by the one or more computing devices, a point cloud based at least in part on the geographic imagery data, the point cloud comprising a plurality of data points, each of the plurality of data points associated with a tracked feature in the geographic imagery data, wherein the point cloud is generated by the one or more computing devices using a structure-from-motion technique; identifying , by the one or more computing devices, a subset of data points in the point cloud, each data point in the subset located at least a threshold distance away from one or more camera perspectives associated with the geographic imagery data; and matching , by the one or more computing devices, one or more data points in the subset of data points with a landmark, wherein matching one or more data points in the subset of data points with the landmark comprises querying a database of landmarks; identifying the matched landmark as a prominent landmark in the geographical area.
A method for analyzing the status of an electromechanical joining system wherein an output force or output torque for a joining method carried out by the electromechanical joining system is generated by an electrical drive by means of a screw drive , which drive comprises a servo motor , which servo motor drives a drive shaft by means of a gear and a belt drive ; wherein a monitoring device is supplied with actual values (IW, IW`) of the electrical drive as input variables, wherein an actual value (IW, IW`) is a rotational speed (n) of the drive shaft or a required current of the servo motor ; wherein a sensor determines additional measurement values (ZMW), which sensor is used to measure the course of forces or torques over time during the joining method; wherein the monitoring device is supplied with the additional measurement values (ZMW) as input variable, wherein the actual values (IW, IW`) of the electrical drive as well as the additional measurement values (ZMW) of the sensor are determined at the same point of time in the joining process and transmitted to the monitoring device ; wherein the monitoring device uses an algorithm to link the actual values (IW, IW`) with the additional measurement values (ZMW); wherein the algorithm calculates an efficiency (η) from the ratio of the actual values (IW, IW') and the additional measurement values (ZMW); and wherein the monitoring device uses this linkage to detect upcoming wear of a wear-prone component of the electromechanical joining system .
A method for initializing a rotation angle detection device , wherein the rotation angle detection device includes a driving gear configured to be rotated integrally with a rotary body , a first driven gear and a second driven gear coupled to the driving gear and configured to be rotated in cooperation with the driving gear , a first sensor configured to detect rotation of the first driven gear and generate a first sensor output, and a second sensor configured to detect rotation of the second driven gear and generate a second sensor output, the first driven gear and the second driven gear differ from each other in the number of teeth, and the rotation angle detection device is configured to calculate a rotation angle (θ) of the rotary body based on the first sensor output and the second sensor output, the method comprising: adjusting a zero point of the first sensor output so that a rotation reference of the first driven gear coincides with a reference of the first sensor output; adjusting a zero point of the second sensor output so that a rotation reference of the second driven gear coincides with a reference of the second sensor output; calculating a cycle number (i) of at least one of the first driven gear and the second driven gear based on the first sensor output and the second sensor output; measuring a deviation amount (mod_i) occurring in the calculation of the cycle number (i), wherein the measuring of the deviation amount (mod_i) is performed by comparing the cycle number (i) relative to an absolute rotation angle (θ) of the driving gear calculated when the driving gear is actually rotated with its true value; and correcting the zero point of at least one of the first sensor output and the second sensor output to offset the deviation amount (mod_i) so that the deviation amount (mod_i) is included in a specified range. adjusting a zero point of the first sensor output so that a rotation reference of the first driven gear coincides with a reference of the first sensor output; adjusting a zero point of the second sensor output so that a rotation reference of the second driven gear coincides with a reference of the second sensor output; calculating a cycle number (i) of at least one of the first driven gear and the second driven gear based on the first sensor output and the second sensor output; measuring a deviation amount (mod_i) occurring in the calculation of the cycle number (i), wherein the measuring of the deviation amount (mod_i) is performed by comparing the cycle number (i) relative to an absolute rotation angle (θ) of the driving gear calculated when the driving gear is actually rotated with its true value; and correcting the zero point of at least one of the first sensor output and the second sensor output to offset the deviation amount (mod_i) so that the deviation amount (mod_i) is included in a specified range.
A composition comprising (i) a biomaterial or a precursor of the biomaterial and (ii) a blood extract that comprises at least 1000 platelets, wherein the biomaterial is a polymer, wherein the precursor of the biomaterial comprises a first monomer and a second monomer, and wherein the first monomer is a 4-arm PEG that has been derivatized with norbornene at the end of each arm and the second monomer is a peptide containing at least 2 cysteine residues wherein the cysteine residues flank an enzymatically degradable moiety.
A spray tip removably mountable to a spray device , the spray tip comprising: a tip body with a fluid channel along a channel axis (Ac); a tip piece disposed within the fluid channel, and having an outlet passage that terminates in an outlet orifice ; and a pre-orifice piece having an inlet passage , the pre-orifice piece disposed within the fluid channel, abutting and immediately upstream of the tip piece, so as to define a turbulating chamber between the tip piece and the pre-orifice piece, wherein the tip body is injection-molded about the tip piece and the pre-orifice piece so that the tip piece and the pre-orifice piece are captured along the channel axis on both sides within a cavity of the tip body. a tip body with a fluid channel along a channel axis (Ac); a tip piece disposed within the fluid channel, and having an outlet passage that terminates in an outlet orifice ; and a pre-orifice piece having an inlet passage , the pre-orifice piece disposed within the fluid channel, abutting and immediately upstream of the tip piece, so as to define a turbulating chamber between the tip piece and the pre-orifice piece, wherein the tip body is injection-molded about the tip piece and the pre-orifice piece so that the tip piece and the pre-orifice piece are captured along the channel axis on both sides within a cavity of the tip body.
An anti-intrusion fog generator for generating fog at an intrusion event, said fog generator comprising: - a fluid reservoir, arranged for containing a volume of fog fluid; - a heat exchanger, arranged for vaporizing said fog fluid into fog; - a pump, in fluidal connection with said fluid reservoir and said heat exchanger, arranged for transporting said fog fluid towards said heat exchanger; - a controller unit, in communicative connection with said pump and said heat exchanger, arranged for driving said pump to transport said fog fluid towards said heat exchanger upon receipt of an anti-intrusion activation signal; said fog generator further comprising: - at least one fog vessel, in fluidal connection with said heat exchanger, arranged for containing a volume of pressurized fog fluid; - a valve, located between said at least one fog vessel and said heat exchanger, arranged for allowing transport of said pressurized fog fluid towards said heat exchanger; wherein said at least one fog vessel comprises a fitting arranged for refill of said at least one fog vessel, and said fog generator is arranged for transporting fog fluid from said fluid reservoir towards said at least one fog vessel. - a fluid reservoir, arranged for containing a volume of fog fluid; - a heat exchanger, arranged for vaporizing said fog fluid into fog; - a pump, in fluidal connection with said fluid reservoir and said heat exchanger, arranged for transporting said fog fluid towards said heat exchanger; - a controller unit, in communicative connection with said pump and said heat exchanger, arranged for driving said pump to transport said fog fluid towards said heat exchanger upon receipt of an anti-intrusion activation signal; said fog generator further comprising: - at least one fog vessel, in fluidal connection with said heat exchanger, arranged for containing a volume of pressurized fog fluid; - a valve, located between said at least one fog vessel and said heat exchanger, arranged for allowing transport of said pressurized fog fluid towards said heat exchanger;