mhurhangee/patent-ind-claim-en huggingface dataset:
An acoustic array system comprising: a sound field controller including at least one signal processor configured to process an audio signal to provide a first processed signal associated with a first acoustic radiation pattern and to provide a second processed signal associated with a second acoustic radiation pattern; and two or more acoustic transducer arrays daisy-chained, each including at least one signal processor and a plurality of acoustic transducers , the acoustic transducer array configured to receive the first and second processed signals from the sound field controller , produce a first driver signal for each of the acoustic transducers based upon the first processed signal, produce a second driver signal for each of the acoustic transducers based upon the second processed signal, and combine the first and second driver signals for each of the plurality of acoustic transducers to produce a plurality of combined driver signals, one for each of the acoustic transducers , and provide at least one combined driver signal to each of the acoustic transducers , each of the acoustic transducer arrays is configured to communicate with each other via daisy-chain connections ; and the first acoustic transducer array is configured to communicate with the sound field controller . a sound field controller including at least one signal processor configured to process an audio signal to provide a first processed signal associated with a first acoustic radiation pattern and to provide a second processed signal associated with a second acoustic radiation pattern; and two or more acoustic transducer arrays daisy-chained, each including at least one signal processor and a plurality of acoustic transducers , the acoustic transducer array configured to receive the first and second processed signals from the sound field controller , produce a first driver signal for each of the acoustic transducers based upon the first processed signal, produce a second driver signal for each of the acoustic transducers based upon the second processed signal, and combine the first and second driver signals for each of the plurality of acoustic transducers to produce a plurality of combined driver signals, one for each of the acoustic transducers , and provide at least one combined driver signal to each of the acoustic transducers , each of the acoustic transducer arrays is configured to communicate with each other via daisy-chain connections ; and the first acoustic transducer array is configured to communicate with the sound field controller .
A vehicle seat with at least one adjusting device for the longitudinal adjustment of a vehicle seat (F), wherein the adjusting device comprising the following: - at least one rail for defining a longitudinal seat axis (L) along which a seat base (G) of the vehicle seat (F) is adjustable, and for supporting at least one adjusting unit (2.1, 2.2) of the adjusting device , and - at least one shiftably guided adjusting unit (2.1, 2.2) adjustable by means of a spindle and a spindle nut meshing therewith, to which the seat base (G) is to be fixed in order to be adjustable along the longitudinal seat axis (L), and - a spindle holding member which is fixed to the rail and on which a portion of the spindle is held, characterized in that at least one adjusting unit (2.1, 2.2) is shiftably mounted on the at least one rail via at least two supporting elements (22, 25; 23, 24) and the spindle is supported on the at least two supporting elements (22, 25; 23, 24) and extending through between the at least two supporting elements (22, 25; 23, 24). - at least one rail for defining a longitudinal seat axis (L) along which a seat base (G) of the vehicle seat (F) is adjustable, and for supporting at least one adjusting unit (2.1, 2.2) of the adjusting device , and - at least one shiftably guided adjusting unit (2.1, 2.2) adjustable by means of a spindle and a spindle nut meshing therewith, to which the seat base (G) is to be fixed in order to be adjustable along the longitudinal seat axis (L), and - a spindle holding member which is fixed to the rail and on which a portion of the spindle is held,
A polymer blend comprising: (a) a terpolymer comprising ethylene, alkyl acrylate, and glycidyl methacrylate, having an alkyl acrylate content of 5 to 30 weight percent based on the weight of the terpolymer and having a glycidyl methacrylate content of 1 to 10 weight percent based on the weight of the terpolymer, wherein the amount of terpolymer (a) comprises 10 to 50 weight percent of the blend based on the total weight of the blend, and wherein the alkyl acrylate is methyl acrylate or butyl acrylate; and (b) a copolymer comprising ethylene and at least one of methyl acrylate and ethyl acrylate having an acrylate content of 5 to 30 weight percent based on the weight of the copolymer, wherein the amount of copolymer (b) comprises 50 to 90 weight percent of the blend based on the total weight of the blend, wherein the amount of terpolymer (a) and copolymer (b) is at least 80 weight percent of the blend based on the total weight of the blend. (a) a terpolymer comprising ethylene, alkyl acrylate, and glycidyl methacrylate, having an alkyl acrylate content of 5 to 30 weight percent based on the weight of the terpolymer and having a glycidyl methacrylate content of 1 to 10 weight percent based on the weight of the terpolymer, wherein the amount of terpolymer (a) comprises 10 to 50 weight percent of the blend based on the total weight of the blend, and wherein the alkyl acrylate is methyl acrylate or butyl acrylate; and (b) a copolymer comprising ethylene and at least one of methyl acrylate and ethyl acrylate having an acrylate content of 5 to 30 weight percent based on the weight of the copolymer, wherein the amount of copolymer (b) comprises 50 to 90 weight percent of the blend based on the total weight of the blend,
A Jak1 and/or Jak2 inhibitor selected from the group consisting of: AG490 with the CAS No. 133550-30-8; CYT387 with the CAS No. 1056634-68-4; SB1518 with the CAS No. 937272-79-2; TG101348 with the CAS No. 936091-26-8; BMS-911543 with the CAS No. 1271022-90-2; WP-1034 with the CAS No. 857064- 42-7; CEP-701 with the CAS No. 111358-88-4; INCB 018424 with the CAS No. 941678-49-5; and LY3009104 with the CAS No. 1187594-09-7 for use in a method of treatment of a hair-loss disorder selected from the group consisting of alopecia areata and androgenetic alopecia in a mammalian subject in need thereof.
A floating electric power-generation group, comprising: a floating hub that is anchored to a plurality of subsea foundations by a plurality of anchor lines ; and at least two floating power producer units that are distributed around a substantially circular array that is centred on the hub , and are connected electrically and mechanically to the hub ; wherein the power producer units are each moored by a plurality of mooring lines , at least one of those mooring lines extending in a radially-inward direction toward the hub to effect mechanical connection to the hub and at least one other of those mooring lines extending in a radially-outward direction away from the hub toward one of the subsea foundations to effect mechanical connection to the subsea foundation . a floating hub that is anchored to a plurality of subsea foundations by a plurality of anchor lines ; and at least two floating power producer units that are distributed around a substantially circular array that is centred on the hub , and are connected electrically and mechanically to the hub ; wherein the power producer units are each moored by a plurality of mooring lines , at least one of those mooring lines extending in a radially-inward direction toward the hub to effect mechanical connection to the hub and at least one other of those mooring lines extending in a radially-outward direction away from the hub toward one of the subsea foundations to effect mechanical connection to the subsea foundation .
A computer-implemented method when executed on data processing hardware causes the data processing hardware to perform operations comprising: receiving a sequence of acoustic frames extracted from audio data corresponding to an utterance ; during a first pass , processing, using a multilingual speech recognition model , the sequence of acoustic frames to generate N candidate hypotheses for the utterance ; during a second pass , for each candidate hypothesis of the N candidate hypotheses : generating, using a neural oracle search (NOS) model , a respective un-normalized likelihood score based on the sequence of acoustic frames and the corresponding candidate hypothesis ; generating, using an external language model , a respective external language model score ; generating a standalone score that models prior statistics of the corresponding candidate hypothesis generated during the first pass ; and generating a respective overall score for the candidate hypothesis based on the un-normalized likelihood score , the external language model score , and the standalone score ; and selecting the candidate hypothesis having the highest respective overall score from among the N candidate hypotheses as a final transcription of the utterance . receiving a sequence of acoustic frames extracted from audio data corresponding to an utterance ; during a first pass , processing, using a multilingual speech recognition model , the sequence of acoustic frames to generate N candidate hypotheses for the utterance ; during a second pass , for each candidate hypothesis of the N candidate hypotheses : generating, using a neural oracle search (NOS) model , a respective un-normalized likelihood score based on the sequence of acoustic frames and the corresponding candidate hypothesis ; generating, using an external language model , a respective external language model score ; generating a standalone score that models prior statistics of the corresponding candidate hypothesis generated during the first pass ; and generating a respective overall score for the candidate hypothesis based on the un-normalized likelihood score , the external language model score , and the standalone score ; and generating, using a neural oracle search (NOS) model , a respective un-normalized likelihood score based on the sequence of acoustic frames and the corresponding candidate hypothesis ; generating, using an external language model , a respective external language model score ; generating a standalone score that models prior statistics of the corresponding candidate hypothesis generated during the first pass ; and generating a respective overall score for the candidate hypothesis based on the un-normalized likelihood score , the external language model score , and the standalone score ; and selecting the candidate hypothesis having the highest respective overall score from among the N candidate hypotheses as a final transcription of the utterance .
A continuous method of forming a layered pack of glass fibers, the method comprising: forming glass fibers from molten glass; forming binderless webs from the glass fibers; forming a layered pack of the glass fibers from the binderless webs by lapping a binderless web in the machine direction or by cross-lapping a binderless web at ninety degrees to the machine direction; and mechanically entangling the glass fibers in the layered pack; wherein the glass fibers have a diameter in a range of 2.28 microns to 8.89 microns; and wherein the glass fibers have a length in a range of 25.4 millimeters to 127 millimeters. forming glass fibers from molten glass; forming binderless webs from the glass fibers; forming a layered pack of the glass fibers from the binderless webs by lapping a binderless web in the machine direction or by cross-lapping a binderless web at ninety degrees to the machine direction; and mechanically entangling the glass fibers in the layered pack; wherein the glass fibers have a diameter in a range of 2.28 microns to 8.89 microns; and wherein the glass fibers have a length in a range of 25.4 millimeters to 127 millimeters.
Oscillating piston pump device with at least one compression chamber housing comprising at least one fluid channel , the fluid channel having at least one elbow , and with a piston unit configured to convey in an operating state a fluid in at least one stroke direction , the piston unit comprising a piston that has a piston base body and a piston projection , and the piston being in at least one operating state arranged at least partly in the compression chamber housing , characterised in that the oscillating piston pump device comprises a pump housing , the pump housing having a fluid inlet and a fluid outlet , the compression chamber housing being arranged at the pump housing , in particular at the fluid outlet , the piston projection having a projection recess , the projection recess being configured for an outlet of a fluid. comprising at least one fluid channel , the fluid channel having at least one elbow , and with a piston unit configured to convey in an operating state a fluid in at least one stroke direction , the piston unit comprising a piston that has a piston base body and a piston projection , and the piston being in at least one operating state arranged at least partly in the compression chamber housing , characterised in that the oscillating piston pump device comprises a pump housing , the pump housing having a fluid inlet and a fluid outlet , the compression chamber housing being arranged at the pump housing , in particular at the fluid outlet , the piston projection having a projection recess , the projection recess being configured for an outlet of a fluid.
A system for reliably broadcasting a transmission in a wireless network over a plurality of timeslots, comprising: a source node ; and a plurality of relay nodes (111, 112,... 117), wherein at least one of the plurality of relay nodes is N hops from the source node, wherein the source node is configured to broadcast the transmission in a first timeslot of the plurality of timeslots with a time-to-live, TTL, field set to M and a hop count field set to 1 , wherein M is greater than or equal to N, wherein the source node is further configured to evaluate a trade-off between power consumption and communication reliability, and re-broadcast the transmission in a second timeslot subsequent to the first timeslot based on the evaluation and as long as the hop count field is less than or equal to the TTL field, wherein the hop count field of the transmission is incremented prior to the source node re-broadcasting the transmission, wherein each of the plurality of relay nodes (111, 112,...117) is configured to receive the transmission in at least one of the plurality of timeslots, and re-broadcast the transmission in a relay timeslot that is subsequent to the at least one of the plurality timeslots as long as the hop count field is less than or equal to the TTL field, and wherein the hop count field of the received transmission is incremented prior to each of the plurality of relay nodes (111, 112,...117) re- broadcasting the transmission. a source node ; and a plurality of relay nodes (111, 112,... 117), wherein at least one of the plurality of relay nodes is N hops from the source node, wherein the source node is configured to broadcast the transmission in a first timeslot of the plurality of timeslots with a time-to-live, TTL, field set to M and a hop count field set to 1 , wherein M is greater than or equal to N, wherein the source node is further configured to evaluate a trade-off between power consumption and communication reliability, and re-broadcast the transmission in a second timeslot subsequent to the first timeslot based on the evaluation and as long as the hop count field is less than or equal to the TTL field, wherein the hop count field of the transmission is incremented prior to the source node re-broadcasting the transmission, wherein each of the plurality of relay nodes (111, 112,...117) is configured to receive the transmission in at least one of the plurality of timeslots, and re-broadcast the transmission in a relay timeslot that is subsequent to the at least one of the plurality timeslots as long as the hop count field is less than or equal to the TTL field, and wherein the hop count field of the received transmission is incremented prior to each of the plurality of relay nodes (111, 112,...117) re- broadcasting the transmission.
A method performed by a management unit (120; 710) managing data consumption requests from a consumer for data hosted by a content provider (140; 720) within at least one database , wherein the management unit is communicatively coupled with the consumer and the content provider via a network, the method comprising: receiving data consumption requests for the data stored in the at least one database; monitoring a response performance associated with responding to the data consumption requests for the data hosted by the content provider; determining that a predetermined performance threshold of the monitored response performance is exceeded; generating an application programming interface, API, call indicating that the predetermined performance threshold is exceeded, wherein the API call includes at least one of an indication of a current number of replicas of the data, a response time associated with the triggering of a mandatory scaling threshold, or an average response time; transmitting the API call to the content provider; and receiving an API response to the API call from the content provider, wherein the API response indicates whether a scaling of resources for hosting the data was performed and identifies locations of additional databases allocated by the content provider, wherein the API response includes an indication of at least one of a new number of replicas of the data, a location of a new data source associated with the data, or a status of a scaling procedure, and wherein processing of the data consumption requests is then modified according to the scaling of resources. receiving data consumption requests for the data stored in the at least one database; monitoring a response performance associated with responding to the data consumption requests for the data hosted by the content provider; determining that a predetermined performance threshold of the monitored response performance is exceeded; generating an application programming interface, API, call indicating that the predetermined performance threshold is exceeded, wherein the API call includes at least one of an indication of a current number of replicas of the data, a response time associated with the triggering of a mandatory scaling threshold, or an average response time; transmitting the API call to the content provider; and receiving an API response to the API call from the content provider, wherein the API response indicates whether a scaling of resources for hosting the data was performed and identifies locations of additional databases allocated by the content provider, wherein the API response includes an indication of at least one of a new number of replicas of the data, a location of a new data source associated with the data, or a status of a scaling procedure, and wherein processing of the data consumption requests is then modified according to the scaling of resources.
A rotary milling cutter , comprising a core and a plurality of teeth extending from the core , wherein the core comprises a first core portion having a first end proximate a distal end of the cutter and a second core portion , a smallest diameter (DS2) of the second core portion being larger than a largest diameter (DL1) of the first core portion , wherein at least one of the first core portion and the second core portion has a cone angle (CA1 or CA2) and increases in diameter in a direction away from the distal end of the cutter , wherein a transition portion extends a non-zero axial distance between the first core portion and the second core portion , and comprises a single cone angle that is greater than the cone angle (CA1 or CA2) of the at least one of the first and second core portions (27 and 33), or a gradual, concave transition from the cone angle (CA1) at a second end of the first core portion to a conical or concave portion adjacent a first end of the second core portion , characterised in that the transition portion has an axial length (ALT) which is between 0.25 and 0.75 of the core diameter at the second end of the first core portion .
Infrastructure equipment for transmitting data to and receiving data from a mobile device on a communications network, the infrastructure equipment comprising: transmitter circuitry (602.1) configured to transmit the data to the mobile device; and controller circuitry (601.4) configured to control the transmitter circuitry (602.1) to transmit a first position reference signal in a first subframe and a second position reference signal in a second subframe, wherein the second position reference signal is a time adjusted version of the first position reference signal, the amount of time adjustment being determined by the sample time at which the mobile device samples the position reference signal. transmitter circuitry (602.1) configured to transmit the data to the mobile device; and controller circuitry (601.4) configured to control the transmitter circuitry (602.1) to transmit a first position reference signal in a first subframe and a second position reference signal in a second subframe, wherein the second position reference signal is a time adjusted version of the first position reference signal, the amount of time adjustment being determined by the sample time at which the mobile device samples the position reference signal.