mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine , comprising: a shaft having a first air compressor coupled thereto; a combustor positioned to receive compressed air from the first air compressor ; and a power source (122, 216, 302, 402, 502,) coupled to the shaft , wherein the power source is powered by a working fluid other than the compressed air, wherein the working fluid is carbon dioxide and the power source comprises: a second compressor coupled to the shaft ; a turbine coupled to the shaft ; and a first closed circuit that directs the working fluid from a heat exchanger , through the second compressor , through the combustor , to the turbine , and to the heat exchanger , providing power from the turbine to the shaft . a shaft having a first air compressor coupled thereto; a combustor positioned to receive compressed air from the first air compressor ; and a power source (122, 216, 302, 402, 502,) coupled to the shaft , wherein the power source is powered by a working fluid other than the compressed air, wherein the working fluid is carbon dioxide and the power source comprises: a second compressor coupled to the shaft ; a turbine coupled to the shaft ; and a first closed circuit that directs the working fluid from a heat a second compressor coupled to the shaft ; a turbine coupled to the shaft ; and a first closed circuit that directs the working fluid from a heat exchanger , through the second compressor , through the combustor , to the turbine , and to the heat exchanger , providing power from the turbine to the shaft .
A crystal form A of a compound of formula (II), wherein the X-ray powder diffraction pattern thereof comprises characteristic diffraction peaks at the following 2θ angles, measured at a wavelength λ = 1.54056Ǻ: 4.99 ± 0.20°, 9.54 ± 0.20°, and 10.45±0.20°,
A method implemented by a controller for allocating scalable media content among a list of cache devices, the method comprising: obtaining the list of cache devices; obtaining content availability associated with a content source; obtaining a user viewing preference or user viewing history, and device characteristics for each cache device of the list of cache devices; determining, based on the user viewing preference or user viewing history, that a content object available at the content source is relevant to at least one cache device of the list of cache devices; determining, based on scalability information associated with the content object, that the content object comprises a base layer and an enhancement layer that depends on the base layer for decoding; mapping, based at least on the scalability information associated with the content object and the device characteristics for each cache device of the list of cache devices, the base layer of the content object to a first cache device of the list of cache devices, and the enhancement layer of the content object to a second cache device of the list of cache devices; and sending instructions to the first cache device to cache the base layer of the content object and to the second cache device to cache the enhancement layer of the content object. obtaining the list of cache devices; obtaining content availability associated with a content source; obtaining a user viewing preference or user viewing history, and device characteristics for each cache device of the list of cache devices; a user viewing preference or user viewing history, and device characteristics for each cache device of the list of cache devices; determining, based on the user viewing preference or user viewing history, that a content object available at the content source is relevant to at least one cache device of the list of cache devices; determining, based on scalability information associated with the content object, that the content object comprises a base layer and an enhancement layer that depends on the base layer for decoding; mapping, based at least on the scalability information associated with the content object and the device characteristics for each cache device of the list of cache devices, the base layer of the content object to a first cache device of the list of cache devices, and the enhancement layer of the content object to a second cache device of the list of cache devices; and the base layer of the content object to a first cache device of the list of cache devices, and the enhancement layer of the content object to a second cache device of the list of cache devices; and sending instructions to the first cache device to cache the base layer of the content object and to the second cache device to cache the enhancement layer of the content object.
A method at a network node in a communications network configured to manage messages from at least one Machine Type Communication, MTC, device manager intended for an MTC device , comprising: receiving (S101) the messages from the at least one MTC device manager; removing (S101C) outdated information included in the received messages, wherein the received messages include a timing indicator to indicate a lifetime of one or more pieces of information included in the messages, and the outdated information comprises information for which the lifetime has expired; merging (S102) the received messages with the outdated information removed into at least one MTC device message; and sending (S103) the at least one MTC device message to the MTC device. receiving (S101) the messages from the at least one MTC device manager; removing (S101C) outdated information included in the received messages, wherein the received messages include a timing indicator to indicate a lifetime of one or more pieces of information included in the messages, and the outdated information comprises information for which the lifetime has expired; merging (S102) the received messages with the outdated information removed into at least one MTC device message; and sending (S103) the at least one MTC device message to the MTC device.
A method of transmitting a broadcasting signal in a broadcasting signal transmitting apparatus, the method comprising: generating (S220) a base frame including a base layer stream; generating (S230) an enhancement frame including an enhancement layer stream; performing (S240) hierarchical modulation on the base frame and the enhancement frame; and transmitting (S250) a broadcasting signal including the base frame and enhancement frame which are hierarchically modulated, wherein the base frame includes hierarchical modulation information used in the hierarchical modulation, wherein the hierarchical modulation information includes a hierarchical modulation index which is a value used to discriminate the enhancement layer signal from the base layer signal and indicates the positions of the enhancement layer signals in the modulation constellation diagram, and wherein the base layer stream includes a base layer video stream, and the enhancement layer stream includes an enhancement layer video stream that is paired with the base layer video stream. generating (S220) a base frame including a base layer stream; generating (S230) an enhancement frame including an enhancement layer stream; performing (S240) hierarchical modulation on the base frame and the enhancement frame; and transmitting (S250) a broadcasting signal including the base frame and enhancement frame which are hierarchically modulated, wherein the base frame includes hierarchical modulation information used in the hierarchical modulation, wherein the hierarchical modulation information includes a hierarchical modulation index which is a value used to discriminate the enhancement layer signal from the base layer signal and indicates the positions of the enhancement layer signals in the modulation constellation diagram, and wherein the base layer stream includes a base layer video stream, and the enhancement layer stream includes an enhancement layer video stream that is paired with the base layer video stream.
Structure for receiving at least one container for the collection of waste that is dropped off voluntarily, said structure comprising a front surface provided with at least one filling opening , the front surface extending to the foot of the structure , characterized in that the structure comprises a raised floor located at the base of the front surface , the floor comprising at least one main portion and one end portion configured to adopt two positions, a first position in which the main portion and the end portion form a plane and a second position in which the main portion and the end portion form a non-straight angle, preferably a right angle.
Electromagnetic flowmeter comprising: a flowtube configured to carry a flowing conductive fluid, the flowtube having a flowtube wall comprising a conductive material, the flowtube wall having an inner surface surrounding a fluid flow path for the conductive fluid; a non-conductive liner positioned to electrically insulate the flowtube wall from the conductive fluid, the flowtube and non-conductive liner defining an electrode mounting hole ; an electrode extending through the electrode mounting hole , the electrode and the non-conductive liner forming a fluidic seal between the electrode mounting hole and the fluid flow path , a non-conductive spacer disposed around at least a portion of the electrode in the electrode mounting hole between the electrode and the flowtube wall , wherein the non-conductive spacer comprises a cylindrically-shaped sleeve, wherein at least a portion of the electrode is arranged in fluid communication with the flowtube within the electrode mounting hole , characterised in that the non-conductive spacer has at least one fluidic path extending between the electrode and the flowtube wall so the conductive fluid can establish an electrical connection between the electrode and the flowtube wall in the event the conductive fluid leaks into the fluidic path , wherein the fluidic path is a transverse hole in the cylindrically-shaped sleeve. a flowtube configured to carry a flowing conductive fluid, the flowtube having a flowtube wall comprising a conductive material, the flowtube wall having an inner surface surrounding a fluid flow path for the conductive fluid; a non-conductive liner positioned to electrically insulate the flowtube wall from the conductive fluid, the flowtube and non-conductive liner defining an electrode mounting hole ; an electrode extending through the electrode mounting hole , the electrode and the non-conductive liner forming a fluidic seal between the electrode mounting hole and the fluid flow path , a non-conductive spacer disposed around at least a portion of the electrode in the electrode mounting hole between the electrode and the flowtube wall , wherein the non-conductive spacer comprises a cylindrically-shaped sleeve, wherein at least a portion of the electrode is arranged in fluid communication with the flowtube within the electrode mounting hole , characterised in that the non-conductive spacer has at least one fluidic path extending between the electrode and the flowtube wall so the conductive fluid can establish an electrical connection between the electrode and the flowtube wall in the event the conductive fluid leaks into the fluidic path , wherein the fluidic path is a transverse hole in the cylindrically-shaped sleeve.
A method of controlling a vehicle engine comprising a) determining at least two engine operational parameters selected from the following parameters: i) CO2 output, ii) power output iii) NOx output; b) averaging the values of said two parameters during a driving window; c) selecting reference driving conditions, collecting a number of points relating the selected engine operational parameters to populate a map of points during reference driving conditions, establishing a nominal reference curve relating said two of the following engine parameters, the reference curve being a best fit of the populated map of points which links the selected engine operational parameters; d) comparing the result from step b) with said reference curve from step c) to determine a measure of how far the parameter averages obtained from step b) are from the reference curve from step c); e) adjusting control of one or more engine systems dependent on the result of step d). a) determining at least two engine operational parameters selected from the following parameters: i) CO2 output, ii) power output iii) NOx output; b) averaging the values of said two parameters during a driving window; c) selecting reference driving conditions, collecting a number of points relating the selected engine operational parameters to populate a map of points during reference driving conditions, establishing a nominal reference curve relating said two of the following engine parameters, the reference curve being a best fit of the populated map of points which links the selected engine operational parameters; d) comparing the result from step b) with said reference curve from step c) to determine a measure of how far the parameter averages obtained from step b) are from the reference curve from step c); e) adjusting control of one or more engine systems dependent on the result of step d).
A computer-implemented method for estimating sleep quality of a user, comprising: receiving measurement data measured by at least one sensor device during a time interval; determining a sleep start time and a sleep stop time in the measurement data; detecting from a subset of the measurement data, the subset measured between the sleep start time and the sleep stop time, one or more restless sleep signal patterns indicating a restless sleep interval longer than a first threshold duration and computing a number of the detected one or more restless sleep signal patterns; detecting , from the subset of the measurement data, one or more continuous sleep intervals not including any one of the one or more restless sleep signal patterns within a time interval longer than a second threshold duration and computing a total length of the one or more continuous sleep intervals; computing a ratio of the total length of the detected one or more continuous sleep intervals to a duration from the sleep start time to the sleep stop time, and computing a sleep quality metric on the basis of the computed ratio and the number of the detected one or more restless sleep signal patterns, the sleep quality metric indicating a quality of the user's sleep during the time interval; and outputting the sleep quality metric. receiving measurement data measured by at least one sensor device during a time interval; determining a sleep start time and a sleep stop time in the measurement data; detecting from a subset of the measurement data, the subset measured between the sleep start time and the sleep stop time, one or more restless sleep signal patterns indicating a restless sleep interval longer than a first threshold duration and computing a number of the detected one or more restless sleep signal patterns; detecting , from the subset of the measurement data, one or more continuous sleep intervals not including any one of the one or more restless sleep signal patterns within a time interval longer than a second threshold duration and computing a total length of the one or more continuous sleep intervals; computing a ratio of the total length of the detected one or more continuous sleep intervals to a duration from the sleep start time to the sleep stop time, and computing a sleep quality metric on the basis of the computed ratio and the number of the detected one or more restless sleep signal patterns, the sleep quality metric indicating a quality of the user's sleep during the time interval; and outputting the sleep quality metric.
A method, comprising: at a provisioning server connected to a WiFi network : receiving registration data from a client station via the WiFi network , wherein the client station is a non-cellular client station; transmitting activation data to a telephony service provider, the activation data including the registration data, the activation data being used to generate telephony data for the client station at the telephony service provider, the telephony data including access data to utilize a telephony network of the telephony service provider; and transmitting the telephony data to the client station via the WiFi network , wherein the telephony data and the activation data verify the client station as an authenticated device to utilize the telephony network .
A multicast data transmission method, comprising: determining (S108), by a first bit-forwarding ingress router, BFIR, in a first bit index explicit replication, BIER, domain, a bitstring and a bit index forwarding table identifier, BIFT-id, that correspond to multicast data in a second BIER domain, wherein the BIFT-id is determined based on at least a subset identifier, SI, to which a bit-forwarding router identifier, BFR-id, of a first bit-forwarding egress router, BFER, belongs and a bitstring length supported by the first BFER, the bitstring is determined based on at least the BFR-id of the first BFER, and the first BFER is a BFER in the second BIER domain that is used to receive the multicast data; encapsulating, by the first BFIR, the multicast data into a BIER data packet, wherein a BIER header of the BIER data packet comprises the BIFT-id and the bitstring that correspond to the multicast data in the second BIER domain; and labeling, by the first BFIR, the BIER data packet, wherein the label is a label corresponding to a prefix of a second BFIR in the second BIER domain, and sending the labeled BIER data packet to the second BFIR. determining (S108), by a first bit-forwarding ingress router, BFIR, in a first bit index explicit replication, BIER, domain, a bitstring and a bit index forwarding table identifier, BIFT-id, that correspond to multicast data in a second BIER domain, wherein the BIFT-id is determined based on at least a subset identifier, SI, to which a bit-forwarding router identifier, BFR-id, of a first bit-forwarding egress router, BFER, belongs and a bitstring length supported by the first BFER, the bitstring is determined based on at least the BFR-id of the first BFER, and the first BFER is a BFER in the second BIER domain that is used to receive the multicast data; encapsulating, by the first BFIR, the multicast data into a BIER data packet, wherein a BIER header of the BIER data packet comprises the BIFT-id and the bitstring that correspond to the multicast data in the second BIER domain; and labeling, by the first BFIR, the BIER data packet, wherein the label is a label corresponding to a prefix of a second BFIR in the second BIER domain, and sending the labeled BIER data packet to the second BFIR.
An electronic device (101; 200), comprising: a first camera device having a first characteristic; a second camera device having a second characteristic different from the first characteristic, wherein the second characteristic and the first characteristic include at least one of an angle of view, resolution, noise characteristic, and transmittance characteristic; a memory ; and a processor operatively connected to the first camera device , the second camera device , and the memory , wherein the memory is configured to store instructions which, when being executed, cause the processor to: receive a request for registration of face information through the first camera device ; acquire, based on the request, multiple first images through the first camera device ; perform filtering for each of the multiple first images to generate multiple second images reflecting the second characteristic of the second camera device ; generate multiple first templates , based on the multiple first images ; generate multiple second templates , based on the multiple second images ; and store the multiple first templates and the multiple second templates in the memory , thereby completing the registration of the face information. a first camera device having a first characteristic; a second camera device having a second characteristic different from the first characteristic, wherein the second characteristic and the first characteristic include at least one of an angle of view, resolution, noise characteristic, and transmittance characteristic; a memory ; and a processor operatively connected to the first camera device , the second camera device , and the memory , wherein the memory is configured to store instructions which, when being executed, cause the processor to: receive a request for registration of face information through the first camera device ; acquire, based on the request, multiple first images through the first camera device ; perform filtering for each of the multiple first images to generate multiple second images reflecting the second characteristic of the second camera device ; generate multiple first templates , based on the multiple first images ; generate multiple second templates , based on the multiple second images ; and store the multiple first templates and the multiple second templates in the memory , thereby completing the registration of the face information. receive a request for registration of face information through the first camera device ; acquire, based on the request, multiple first images through the first camera device ; perform filtering for each of the multiple first images to generate multiple second images reflecting the second characteristic of the second camera device ; generate multiple first templates , based on the multiple first images ; generate multiple second templates , based on the multiple second images ; and store the multiple first templates and the multiple second templates in the memory , thereby completing the registration of the face information.
An ultrasonic testing apparatus comprising an ultrasonic probe for testing an internal component of a large-diameter bearing, the probe having a rigid housing adapted to be inserted into a large-diameter bearing, the housing having a coupling surface , a cover surface opposite the coupling surface , and first and second side surfaces perpendicular to the coupling surface and the cover surface , wherein the first and second side surfaces have the same vertical extent (V) determining the height of the housing and extend transversely to one another, wherein a plurality of ultrasonic transducers for coupling ultrasonic waves into the component to be tested are mounted on the coupling surface , which ultrasonic transducers are arranged in at least one linear row and extend parallel to the lateral extent (L1) of the first side surfaces , wherein each ultrasonic transducer is contacted by contact wires extending within the housing , substantially in a plane parallel to the coupling surface and connected to cables coupled to one of the second side surfaces , characterized in that the ultrasonic transducers are cast within the housing by means of an acoustically damping and hardened suspension, and in that the coupling surface is formed by a layer of the damping and hardened suspension. wherein the first and second side surfaces have the same vertical extent (V) determining the height of the housing and extend transversely to one another, wherein a plurality of ultrasonic transducers for coupling ultrasonic waves into the component to be tested are mounted on the coupling surface , which ultrasonic transducers are arranged in at least one linear row and extend parallel to the lateral extent (L1) of the first side surfaces , wherein each ultrasonic transducer is contacted by contact wires extending within the housing , substantially in a plane parallel to the coupling surface and connected to cables coupled to one of the second side surfaces , characterized in that the ultrasonic transducers are cast within the housing by means of an acoustically damping and hardened suspension, and in that the coupling surface is formed by a layer of the damping and hardened suspension.