mhurhangee/patent-ind-claim-en huggingface dataset:
A rotor blade for a gas turbine engine , comprising: an attachment ; an airfoil extending from the attachment to a tip , wherein the airfoil has a stagger angle (φ; 64; 66; 82; 96) that changes as the airfoil extends between the attachment and the tip, the airfoil further comprising a base region disposed adjacent to the attachment, a tip region , and a transition region located between the base region and the tip region; wherein a rate of the change of the stagger angle (66; 82) in the transition region is greater than a rate of the change of the stagger angle (64; 66) in the base region; wherein the rate of the change of the stagger angle (66; 82) in the transition region is greater than a rate of change of the stagger angle (82; 96) in the tip region; and wherein the airfoil has a chord (48; 68; 70; 84; 98) that increases as the airfoil extends from the base region to the tip; characterised in that a squealer pocket is located in a surface of the tip, the squealer pocket being surrounded by a wall located between the squealer pocket and a leading edge , trailing edge , pressure side and suction side of the airfoil, wherein a first surface of the wall has a convex configuration with respect to the pressure side of the airfoil as it extends from a leading edge to a trailing edge of the airfoil; and wherein the squealer pocket comprises a plurality of cooling openings. an attachment ; an airfoil extending from the attachment to a tip , wherein the airfoil has a stagger angle (φ; 64; 66; 82; 96) that changes as the airfoil extends between the attachment and the tip, the airfoil further comprising a base region disposed adjacent to the attachment, a tip region , and a transition region located between the base region and the tip region; wherein a rate of the change of the stagger angle (66; 82) in the transition region is greater than a rate of the change of the stagger angle (64; 66) in the base region; wherein the rate of the change of the stagger angle (66; 82) in the transition region is greater than a rate of change of the stagger angle (82; 96) in the tip region; and wherein the airfoil has a chord (48; 68; 70; 84; 98) that increases as the airfoil extends from the base region to the tip; characterised in that a squealer pocket is located in a surface of the tip, the squealer pocket being surrounded by a wall located between the squealer pocket and a leading edge , trailing edge , pressure side and suction side of the airfoil, wherein a first surface of the wall has a convex configuration with respect to the pressure side of the airfoil as it extends from a leading edge to a trailing edge of the airfoil; and wherein the squealer pocket comprises a plurality of cooling openings.
A motion detection method comprising: receiving , at a first wireless communication device , a first set of signals based on wireless signals transmitted through a space on a first wireless communication channel from a second wireless communication device ; by operation of the first wireless communication device: computing a value of a signal quality metric based on the first set of signals; and selecting a second wireless communication channel based on a determination that the value of the signal quality metric does not meet a quality criterion for a motion detection process; sending, from the first wireless communication device to the second wireless communication device , a message indicating the second wireless communication channel; receiving, at the first wireless communication device , a second set of signals based on wireless signals transmitted through the space on the second wireless communication channel from the second wireless communication device ; and by operation of the first wireless communication device , executing the motion detection process to detect motion of an object in the space based on changes detected in the second set of signals. receiving , at a first wireless communication device , a first set of signals based on wireless signals transmitted through a space on a first wireless communication channel from a second wireless communication device ; by operation of the first wireless communication device: computing a value of a signal quality metric based on the first set of signals; and selecting a second wireless communication channel based on a determination that the value of the signal quality metric does not meet a quality criterion for a motion detection process; computing a value of a signal quality metric based on the first set of signals; and selecting a second wireless communication channel based on a determination that the value of the signal quality metric does not meet a quality criterion for a motion detection process; sending, from the first wireless communication device to the second wireless communication device , a message indicating the second wireless communication channel; receiving, at the first wireless communication device , a second set of signals based on wireless signals transmitted through the space on the second wireless communication channel from the second wireless communication device ; and by operation of the first wireless communication device , executing the motion detection process to detect motion of an object in the space based on changes detected in the second set of signals.
A frequency spectrum allocation method, the method comprising: receiving , by a frequency spectrum allocation apparatus, first system throughputs, reported by servers of different operators and determined by the servers on each frequency spectrum reference unit, wherein for the first system throughput, reported by each server and determined by the server on each frequency spectrum reference unit, the first system throughput is determined by integrating, second system throughputs, reported by respective served base stations of the server and determined by the base stations on the frequency spectrum reference unit, and an available frequency spectrum is divided into a number of frequency spectrum reference units; and for each frequency spectrum reference unit, allocating , by the frequency spectrum allocation apparatus, the frequency spectrum reference unit to an operator with a largest value of the first system throughput according to the first system throughputs reported by the servers of the respective operators on the frequency spectrum reference unit. receiving , by a frequency spectrum allocation apparatus, first system throughputs, reported by servers of different operators and determined by the servers on each frequency spectrum reference unit, wherein for the first system throughput, reported by each server and determined by the server on each frequency spectrum reference unit, the first system throughput is determined by integrating, second system throughputs, reported by respective served base stations of the server and determined by the base stations on the frequency spectrum reference unit, and an available frequency spectrum is divided into a number of frequency spectrum reference units; and for each frequency spectrum reference unit, allocating , by the frequency spectrum allocation apparatus, the frequency spectrum reference unit to an operator with a largest value of the first system throughput according to the first system throughputs reported by the servers of the respective operators on the frequency spectrum reference unit.
A terminal device (101; 1100), comprising: at least one processor ; and at least one memory including computer program codes; the at least one memory and the computer program codes are configured to, with the at least one processor, cause the terminal device to: transmit, a subscription for an analytics with an analytics identity to a Unified Data Management, UDM, receive a subscribed analytics identity from the UDM, according to the subscription for the analytics, transmit a request comprising the analytics identity to a Session Management Function, SMF, or an Application Function, AF, and receive analytics result data from the SMF or the AF, according to the analytics identity after authorization of the request. at least one processor ; and at least one memory including computer program codes; the at least one memory and the computer program codes are configured to, with the at least one processor, cause the terminal device to: transmit, a subscription for an analytics with an analytics identity to a Unified Data Management, UDM, receive a subscribed analytics identity from the UDM, according to the subscription for the analytics, transmit a request comprising the analytics identity to a Session Management Function, SMF, or an Application Function, AF, and receive analytics result data from the SMF or the AF, according to the analytics identity after authorization of the request. transmit, a subscription for an analytics with an analytics identity to a Unified Data Management, UDM, receive a subscribed analytics identity from the UDM, according to the subscription for the analytics, transmit a request comprising the analytics identity to a Session Management Function, SMF, or an Application Function, AF, and receive analytics result data from the SMF or the AF, according to the analytics identity after authorization of the request.
Prosthesis intended to be conveyed to an implantation site with the aid of a trocar, comprising: - at least one flexible biocompatible textile having a shape defining a longitudinal axis A, and - at least one reinforcing element for said textile, said reinforcing element comprising at least one semi-rigid elongate structure having a rigidity that allows it to keep a textile spread out in the absence of any stress and to be gripped by instruments conventionally used in laparoscopic surgery, said semi-rigid elongate structure being connected to said textile, said structure being substantially parallel to said longitudinal axis A and having a distal end provided with at least one fastening element distinct from said textile and capable of cooperating with a part of a tool that is able to pass through said trocar, in order to temporarily couple said prosthesis to said tool, characterized in that said structure comprises at least one rod segment extending parallel to the longitudinal axis A and additionally comprises one or more oblique rod segments configured to promote the folding of the textile along one or more longitudinal folds when the textile is subjected to a radial pressure in the direction of its longitudinal axis A,and the reinforcing element is moulded over the textile. - at least one flexible biocompatible textile having a shape defining a longitudinal axis A, and - at least one reinforcing element for said textile, said structure comprises at least one rod segment extending parallel to the longitudinal axis A and additionally comprises one or more oblique rod segments configured to promote the folding of the textile along one or more longitudinal folds when the textile is subjected to a radial pressure in the direction of its longitudinal axis A,and the reinforcing element is moulded over the textile.
An apparatus comprising: a plurality of monochromatic emitter arrays wherein each of the plurality of monochromatic emitter arrays has a plurality of emitters disposed in a two-dimensional configuration and adapted to emit a monochromatic image of a corresponding color; a waveguide configuration including: a top surface , a bottom surface disposed opposite the top surface, a coupling area adapted to receive the monochromatic images; and a decoupling area adapted to project a plurality of instances of a polychromatic image comprising a combination of the monochromatic images toward an eyebox through the bottom surface; and an actuator system adapted to produce lateral shifting of the plurality of instances of the polychromatic image between at least two positions relative to the waveguide configuration. a plurality of monochromatic emitter arrays wherein each of the plurality of monochromatic emitter arrays has a plurality of emitters disposed in a two-dimensional configuration and adapted to emit a monochromatic image of a corresponding color; a waveguide configuration including: a top surface , a bottom surface disposed opposite the top surface, a coupling area adapted to receive the monochromatic images; and a decoupling area adapted to project a plurality of instances of a polychromatic image comprising a combination of the monochromatic images toward an eyebox through the bottom surface; and an actuator system adapted to produce lateral shifting of the plurality of instances of the polychromatic image between at least two positions relative to the waveguide configuration. a top surface , a bottom surface disposed opposite the top surface, a coupling area adapted to receive the monochromatic images; and a decoupling area adapted to project a plurality of instances of a polychromatic image comprising a combination of the monochromatic images toward an eyebox through the bottom surface; and an actuator system adapted to produce lateral shifting of the plurality of instances of the polychromatic image between at least two positions relative to the waveguide configuration.
System for feeding with powder (P), comprising: - a device for conveying with metering, suitable for conveying one or more materials in the form of granules, according to a given mean throughput; - an injection device fed with powder by the conveying device, the injection device being in the form of a casing delimited by a hollow cylinder extended by a truncated cone comprising an outlet orifice ; - a circuit for circulation of gas (G) inside the casing, the gas circuit being closed on itself in order to reinject, inside the casing, the gas recovered at the outlet of the latter, the circuit being suitable for generating a gas cyclone inside the casing at least over a part of the cylinder height, so that the cyclone generated entrains the powder particles towards the bottom of the casing in order for them to be discharged by gravity via the outlet orifice. - a device for conveying with metering, suitable for conveying one or more materials in the form of granules, according to a given mean throughput; - an injection device fed with powder by the conveying device, the injection device being in the form of a casing delimited by a hollow cylinder extended by a truncated cone comprising an outlet orifice ; - a circuit for circulation of gas (G) inside the casing, the gas circuit being closed on itself in order to reinject, inside the casing, the gas recovered at the outlet of the latter, the circuit being suitable for generating a gas cyclone inside the casing at least over a part of the cylinder height, so that the cyclone generated entrains the powder particles towards the bottom of the casing in order for them to be discharged by gravity via the outlet orifice.
A method for wireless communication by a user equipment, UE , comprising: receiving configuration signaling configuring the UE with a first active transmission configuration indication state indicating a quasi co-location assumption corresponding to a first beam for a control resource set and a shared data channel; performing a random access channel procedure to select a second beam from a plurality of different beams; updating the quasi co-location assumption for the control resource set to correspond to the second beam based at least in part on the UE supporting a single active transmission configuration indication state; and monitoring the control resource set, the shared data channel, or both, using the second beam. receiving configuration signaling configuring the UE with a first active transmission configuration indication state indicating a quasi co-location assumption corresponding to a first beam for a control resource set and a shared data channel; performing a random access channel procedure to select a second beam from a plurality of different beams; updating the quasi co-location assumption for the control resource set to correspond to the second beam based at least in part on the UE supporting a single active transmission configuration indication state; and monitoring the control resource set, the shared data channel, or both, using the second beam.
Spring compressor having a loading device which can be inserted axially into a coil spring to be loaded, and having a first and a second loading plate which can be coupled to the loading device at a distance from each other, the second loading plate having an opening for receiving the loading device , wherein a pressure piece is displaceable along the loading device by the effect of an actuator in order to adjust the distance between the loading plates , wherein a dome-shaped contact surface is formed between the pressure piece and the second loading plate for force transmission as well as an anti-rotation means for preventing the pressure piece from rotating relative to the loading plate , the anti-rotation means having projections and pockets for the projections , characterised in that the projections and the pockets interrupt the dome-shaped contact surface in circumferential direction and divide it into contact surface regions which are separate from each other, the dome-shaped contact surface regions being larger overall in circumferential direction than the circumferential region in which the projections and the pockets are arranged.
Vinification tank equipped with a device for the injection of air or inert gas into the vinification tank , wherein the device for the injection of air or inert gas comprises: - a distribution circuit of air or inert gas , - at least three nozzles for the injection of compressed air or compressed inert gas supplied through the distribution circuit , said nozzles being mounted in said tank at a level (h) from the bottom of the tank not higher than one third of the total height of said tank , and said distribution circuit including a separate supply line for each nozzle, wherein: control valves of air or inert gas flow to each nozzle are present on the said distribution circuit , each of the control valves being present on the respective supply line of the distribution circuit ; and microprocessor means are configured to act on the control valves and are programmed to actuate said control valves independently of each other, characterized in that the microprocessor means are programmed to control air or inert gas delivery from each nozzle changing duration and frequency of the air or gas jet with time according to a specific predetermined modulation, and delivery sequence of all the nozzles actuating the nozzles one after another or in a partially overlapping manner, or at the same time, with equal or different durations and frequencies. - a distribution circuit of air or inert gas , - at least three nozzles for the injection of compressed air or compressed inert gas supplied through the distribution circuit , said nozzles being mounted in said tank at a level (h) from the bottom of the tank not higher than one third of the total height of said tank , and control valves of air or inert gas flow to each nozzle are present on the said distribution circuit , each of the control valves being present on the respective supply line of the distribution circuit ; and microprocessor means are configured to act on the control valves and are programmed to actuate said control valves independently of each other, characterized in that the microprocessor means are programmed to control air or inert gas delivery from each nozzle changing duration and frequency of the air or gas jet with time according to a specific predetermined modulation, and delivery sequence of all the nozzles actuating the nozzles one after another or in a partially overlapping manner, or at the same time, with equal or different durations and frequencies. air or inert gas delivery from each nozzle changing duration and frequency of the air or gas jet with time according to a specific predetermined modulation, and delivery sequence of all the nozzles actuating the nozzles one after another or in a partially overlapping manner, or at the same time, with equal or different durations and frequencies.
A system comprising: voltage sensing logic configured to determine a first source voltage V first source that corresponds to a first source ; and a controller configured to receive an indication of V first source from the voltage sensing logic, and further configured to: responsive to V first source > a first output voltage, V 1 , select a first source first voltage regulator to input V first source and to provide V 1 ; responsive to V first source > a second output voltage, V 2 , select a first source second voltage regulator to input V first source and to provide V 2 ; and responsive to V 1 < V first source ≤ V 2 , select a second source second voltage regulator to input a second source voltage V second source that corresponds to a second source , wherein V second source is substantially constant in time and V second source > V 2 , and to provide V 2 independent of the first source first voltage regulator and of the first source second voltage regulator. voltage sensing logic configured to determine a first source voltage V first source that corresponds to a first source ; and a controller configured to receive an indication of V first source from the voltage sensing logic, and further configured to: responsive to V first source > a first output voltage, V 1 , select a first source first voltage regulator to input V first source and to provide V 1 ; responsive to V first source > a second output voltage, V 2 , select a first source second voltage regulator to input V first source and to provide V 2 ; and responsive to V 1 < V first source ≤ V 2 , select a second source second voltage regulator to input a second source voltage V second source that corresponds to a second source , wherein V second source is substantially constant in time and V second source > V 2 , and to provide V 2 independent of the first source first voltage regulator and of the first source second voltage regulator. responsive to V first source > a first output voltage, V 1 , select a first source first voltage regulator to input V first source and to provide V 1 ; responsive to V first source > a second output voltage, V 2 , select a first source second voltage regulator to input V first source and to provide V 2 ; and responsive to V 1 < V first source ≤ V 2 , select a second source second voltage regulator to input a second source voltage V second source that corresponds to a second source , wherein V second source is substantially constant in time and V second source > V 2 , and to provide V 2 independent of the first source first voltage regulator and of the first source second voltage regulator.
An apparatus in a user equipment comprising: at least one controller configured to: receive and read a series of blocks on a first channel from a radio network node ; characterized in that the controller is further configured to: determine whether there is congestion based on whether the series of blocks comprises a flag indicating that there is congestion, wherein the flag is in at least one of an IMMEDIATE ASSIGNMENT message or an IMMEDIATE ASSIGNMENT REJECT message; and only when it has been determined that there is no congestion, initiate an access procedure by transmitting a channel request on a second channel. receive and read a series of blocks on a first channel from a radio network node ; characterized in that the controller is further configured to: determine whether there is congestion based on whether the series of blocks comprises a flag indicating that there is congestion, wherein the flag is in at least one of an IMMEDIATE ASSIGNMENT message or an IMMEDIATE ASSIGNMENT REJECT message; and only when it has been determined that there is no congestion, initiate an access procedure by transmitting a channel request on a second channel. determine whether there is congestion based on whether the series of blocks comprises a flag indicating that there is congestion, wherein the flag is in at least one of an IMMEDIATE ASSIGNMENT message or an IMMEDIATE ASSIGNMENT REJECT message; and only when it has been determined that there is no congestion, initiate an access procedure by transmitting a channel request on a second channel.