mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by an encoder of a base station system of a wireless communication network, for handling a bit stream for transmission over a transmission link between a remote unit and a base unit of the base station system, the remote unit being arranged to transmit wireless signals to and receive from mobile stations , the bit stream comprising a first OFDM symbol and a second OFDM symbol, each OFDM symbol comprising a number of consecutive IQ samples, the method comprising: for a first number of the IQ samples, situated at a boundary between the first and the second OFDM symbol, transmitting , over the transmission link to a decoder of the base station system, the first number of IQ samples having a representation spanning a first amplitude range, for a second number of IQ samples of the second OFDM symbol, following the first number of IQ samples, converting , using a predictive filter, individual of the second number of IQ samples to IQ prediction errors, where the IQ prediction errors have a representation spanning a second amplitude range that is smaller than the first amplitude range, and transmitting the IQ prediction errors over the transmission link to the decoder. for a first number of the IQ samples, situated at a boundary between the first and the second OFDM symbol, transmitting , over the transmission link to a decoder of the base station system, the first number of IQ samples having a representation spanning a first amplitude range, for a second number of IQ samples of the second OFDM symbol, following the first number of IQ samples, converting , using a predictive filter, individual of the second number of IQ samples to IQ prediction errors, where the IQ prediction errors have a representation spanning a second amplitude range that is smaller than the first amplitude range, and transmitting the IQ prediction errors over the transmission link to the decoder.
An audio processing method , comprising: receiving frames of digitized microphone audio data ; extracting a feature vector from each frame of the digitized microphone audio data, the feature vector comprising a power value for each frequency band of a plurality of frequency bands; forming a feature history data structure, the feature history data structure comprising a plurality of feature vectors; producing a normalized feature set comprising a normalized feature data structure by determining normalized power values for a plurality of frequency bands of each feature vector of the feature history data structure; and performing a signal recognition or modification process based, at least in part, on the normalized feature set, characterized in that the normalized feature set further comprises a set of cepstral coefficients descriptive of an overall average spectral shape of the normalized feature data structure. receiving frames of digitized microphone audio data ; extracting a feature vector from each frame of the digitized microphone audio data, the feature vector comprising a power value for each frequency band of a plurality of frequency bands; forming a feature history data structure, the feature history data structure comprising a plurality of feature vectors; producing a normalized feature set comprising a normalized feature data structure by determining normalized power values for a plurality of frequency bands of each feature vector of the feature history data structure; and performing a signal recognition or modification process based, at least in part, on the normalized feature set, characterized in that the normalized feature set further comprises a set of cepstral coefficients descriptive of an overall average spectral shape of the normalized feature data structure.
A composition comprising a plurality of particles, wherein said particles comprise: a. 10 to 60 w.t.% polyethylene glycol, wherein the polyethylene glycol has a weight average molecular weight from 4000 to 12000; b. 0.1 to 50 w.t. % polysaccharide; c. 0.1 to 50 w.t.% ethoxylated non-ionic surfactant having a general formula: R 1 O(R 2 O) x H R 1 = a saturated fatty alcohol or polypropylene glycol. R 2 = C 2 H 4 or mixture of C 2 H 4 and C 3 H 6 units x = 8 to 120 and having a melting point I, as measured using the German Institute for Standardisation test method DIN51801-2, between 40 and 60°C; and d. 0.1 to 30 w.t. % perfume materials a. 10 to 60 w.t.% polyethylene glycol, wherein the polyethylene glycol has a weight average molecular weight from 4000 to 12000; b. 0.1 to 50 w.t. % polysaccharide; c. 0.1 to 50 w.t.% ethoxylated non-ionic surfactant having a general formula: R 1 O(R 2 O) x H R 1 = a saturated fatty alcohol or polypropylene glycol. R 2 = C 2 H 4 or mixture of C 2 H 4 and C 3 H 6 units x = 8 to 120 and having a melting point I, as measured using the German Institute for Standardisation test method DIN51801-2, between 40 and 60°C; and R 1 = a saturated fatty alcohol or polypropylene glycol. R 2 = C 2 H 4 or mixture of C 2 H 4 and C 3 H 6 units x = 8 to 120 d. 0.1 to 30 w.t. % perfume materials
A composition comprising a glycopeptide antibiotic and an excipient selected from N-acetyl-D-Alanine or N-acetyl-Glycine for use as a medicament, wherein the composition is a liquid composition.
A database migration method performed by a second server, comprising: copying (S101) metadata from a first server of a database, the metadata including identification information of synthetic data; receiving (S102) a service instruction sent by a client after the copying the metadata from the first server of the database; determining (S103), based on the service instruction, whether the synthetic data needs to be retrieved from the first server of the database; in response to it is determined that the synthetic data needs to be retrieved from the first server of the database, sending a copy request, including the identification information of the synthetic data, to the first server of the database; and in response to the copy request being accepted by the first server, copying (S104) the synthetic data from the first server of the database based on the identification information of the synthetic data. copying (S101) metadata from a first server of a database, the metadata including identification information of synthetic data; receiving (S102) a service instruction sent by a client after the copying the metadata from the first server of the database; determining (S103), based on the service instruction, whether the synthetic data needs to be retrieved from the first server of the database; in response to it is determined that the synthetic data needs to be retrieved from the first server of the database, sending a copy request, including the identification information of the synthetic data, to the first server of the database; and in response to the copy request being accepted by the first server, copying (S104) the synthetic data from the first server of the database based on the identification information of the synthetic data.
An organic light emitting display apparatus comprising: a substrate configured to include an active area (AA) and a pad area (PA); an anode electrode disposed in the active area (AA) of the substrate ; an organic emission layer disposed on the anode electrode ; a cathode electrode disposed on the organic emission layer ; an auxiliary electrode connected to the cathode electrode , wherein the auxiliary electrode and the anode electrode are disposed on the same layer; a signal pad disposed in the pad area (PA) of the substrate ; and a pad electrode connected to the signal pad through a contact hole (CH4) to cover a top of the signal pad , wherein a top of the pad electrode is lower in oxidation rate than the top of the signal pad characterized in that the anode electrode comprises a first anode electrode and a second anode electrode disposed to cover a top and a side surface of the first anode electrode , wherein the first anode electrode comprises a first lower anode electrode and a first upper anode electrode , and the second anode electrode comprises a second lower anode electrode , a second center anode electrode , and a second upper anode electrode and the pad electrode is formed of the same material as a material of the first lower anode electrode . a substrate configured to include an active area (AA) and a pad area (PA); an anode electrode disposed in the active area (AA) of the substrate ; an organic emission layer disposed on the anode electrode ; a cathode electrode disposed on the organic emission layer ; an auxiliary electrode connected to the cathode electrode , wherein the auxiliary electrode and the anode electrode are disposed on the same layer; a signal pad disposed in the pad area (PA) of the substrate ; and a pad electrode connected to the signal pad through a contact hole (CH4) to cover a top of the signal pad , wherein a top of the pad electrode is lower in oxidation rate than the top of the signal pad characterized in that the anode electrode comprises a first anode electrode and a second anode electrode disposed to cover a top and a side surface of the first anode electrode , wherein the first anode electrode comprises a first lower anode electrode and a first upper anode electrode , and the second anode electrode comprises a second lower anode electrode , a second center anode electrode , and a second upper anode electrode and the pad electrode is formed of the same material as a material of the first lower anode electrode .
A method for controlling a hydraulic system for a hydraulic working machine having working equipment, the hydraulic system comprising a hydraulic actuator driving the working equipment, a variable displacement hydraulic pump feeding pressure oil to actuate the hydraulic actuator , a directional control valve controlling a flow of pressure oil to be fed from the variable displacement hydraulic pump to the hydraulic actuator , a control device switchingly operating the directional control valve , a pilot pump feeding a pilot pressure to switch the directional control valve , a variable solenoid relief valve arranged between the directional control valve and the hydraulic actuator to specify a maximum circuit pressure, and a relief pressure control system provided with a pressure sensor detecting a circuit pressure, a pressure adjuster for performing an adjustment such that a circuit pressure to be outputted from the pressure sensor becomes equal to a pressure required by the hydraulic actuator , a controller outputting, responsive to an adjustment signal outputted from the pressure adjuster, a control signal to control a relief pressure of the variable solenoid relief valve , a display unit displaying, responsive to display signals outputted from the controller , a relationship between the circuit pressure outputted from the pressure sensor and the pressure required by the hydraulic actuator , and a start instruction unit instructing a start of control of the variable solenoid relief valve , wherein: a stop valve is arranged in a section of a main line , which communicates the directional control valve and the hydraulic actuator with each other, to open or close the section, said section being located between a position on the main line , where the variable solenoid relief valve is connected to the main line , and the hydraulic actuator , characterized in that the main line is closed by the stop valve upon adjustment of the relief pressure of the variable solenoid relief valve . a stop valve is arranged in a section of a main line , which communicates the directional control valve and the hydraulic actuator with each other, to open or close the section, said section being located between a position on the main line , where the variable solenoid relief valve is connected to the main line , and the hydraulic actuator , characterized in that the main line is closed by the stop valve upon adjustment of the relief pressure of the variable solenoid relief valve .
An apparatus for the creation of products incorporating devices for radio frequency identification (RFID), said apparatus being configured to operate according to a continuous processing line which includes, in sequence: - a supply unit of a substrate material; - an add-chip unit , having means for the application of chips on the substrate material and first reading means of each chip arranged upstream of said application means ; - an aerial-making assembly comprising: ∘ an aerial-posing unit , configured to deposit a metal wire, preferably a copper wire, at each chip; ∘ an electrical-connection unit, configured for electrically connecting the metal wire and a respective chip therebetween; - second reading means of each chip; - a coupling unit , adapted to place a coating material on the substrate material; and - third reading means of each chip, operating in contactless mode. - a supply unit of a substrate material; - an add-chip unit , having means for the application of chips on the substrate material and first reading means of each chip arranged upstream of said application means ; - an aerial-making assembly comprising: ∘ an aerial-posing unit , configured to deposit a metal wire, preferably a copper wire, at each chip; ∘ an electrical-connection unit, configured for electrically connecting the metal wire and a respective chip therebetween; ∘ an aerial-posing unit , configured to deposit a metal wire, preferably a copper wire, at each chip; ∘ an electrical-connection unit, configured for electrically connecting the metal wire and a respective chip therebetween; - second reading means of each chip; - a coupling unit , adapted to place a coating material on the substrate material; and - third reading means of each chip, operating in contactless mode.
A method comprising: receiving, in a controller , a joint parameter for a joint between at least two composite structural components wherein the joint parameter is one of a number of fasteners , a pitch (P) between fastener rows (R1, R2), a fastener diameter (D) and an offset (a) between fastener columns (C1, C2, C3), and a ply stackup for each of the at least two composite structural components wherein the ply stackup comprises an initial number of plies and a fiber orientation of plies , wherein the method further comprises: iteratively processing with the controller, the joint parameter and the ply stackup and outputting an optimized joint parameter based on at least a convergence to a minimized value of an electromagnetic effective resistance of the joint and the at least two composite structural components; and changing, with the controller, a value of one or more of: the joint parameters, and the number of plies and the orientation of the fibers in the ply stackup, during the iterative processing to reach the convergence of the electromagnetic effective resistance. receiving, in a controller , a joint parameter for a joint between at least two composite structural components wherein the joint parameter is one of a number of fasteners , a pitch (P) between fastener rows (R1, R2), a fastener diameter (D) and an offset (a) between fastener columns (C1, C2, C3), and a ply stackup for each of the at least two composite structural components wherein the ply stackup comprises an initial number of plies and a fiber orientation of plies , wherein the method further comprises: iteratively processing with the controller, the joint parameter and the ply stackup and outputting an optimized joint parameter based on at least a convergence to a minimized value of an electromagnetic effective resistance of the joint and the at least two composite structural components; and a joint parameter for a joint between at least two composite structural components wherein the joint parameter is one of a number of fasteners , a pitch (P) between fastener rows (R1, R2), a fastener diameter (D) and an offset (a) between fastener columns (C1, C2, C3), and a ply stackup for each of the at least two composite structural components wherein the ply stackup comprises an initial number of plies and a fiber orientation of plies , wherein the method further comprises: iteratively processing with the controller, the joint parameter and the ply stackup and outputting an optimized joint parameter based on at least a convergence to a minimized value of an electromagnetic effective resistance of the joint and the at least two composite structural components; and changing, with the controller, a value of one or more of: the joint parameters, and the number of plies and the orientation of the fibers in the ply stackup, during the iterative processing to reach the convergence of the electromagnetic effective resistance.
A partition for selectively dividing a space, the partition comprising: a panel including a first side and a second opposing side; a locking mechanism mounted in the panel , the locking mechanism including a first side and a second opposing side; a first actuator positioned on the first side of the panel and coupled to the first side of the locking mechanism ; characterized by a second actuator positioned on the second side of the panel and coupled to the second side of the locking mechanism ; a tri-lobe cam rotationally coupled to the first actuator , the tri-lobe cam including a center lobe positioned between a first outer lobe and a second outer lobe ; wherein the first outer lobe and the second outer lobe are sized and configured to limit the rotation of the tri-lobe cam and the first actuator to a range of approximately 90 degrees. a panel including a first side and a second opposing side; a locking mechanism mounted in the panel , the locking mechanism including a first side and a second opposing side; a first actuator positioned on the first side of the panel and coupled to the first side of the locking mechanism ; characterized by a second actuator positioned on the second side of the panel and coupled to the second side of the locking mechanism ; a tri-lobe cam rotationally coupled to the first actuator , the tri-lobe cam including a center lobe positioned between a first outer lobe and a second outer lobe ; wherein the first outer lobe and the second outer lobe are sized and configured to limit the rotation of the tri-lobe cam and the first actuator to a range of approximately 90 degrees.
A mobile air-conditioning apparatus containing a composition comprising HFC-1234yf and at least one compound selected from HFC-1234ze (trans), HFC-1234ze (cis), HFC-1243zf, HFC-32, and CO 2 .
An atherectomy catheter for cutting tissue having a laterally displaceable tip, the atherectomy catheter comprising: an elongate, flexible catheter body having a proximal end and a distal end and a longitudinal axis; an elongate and laterally displaceable distal tip assembly ; a rotatable annular cutting ring between the distal end of the catheter body and the distal tip assembly; a hollow tubular drive shaft extending along a length of the catheter body and connected directly to the annular cutting ring; an optical coherence tomography imaging element positioned within the hollow lumen of the drive shaft; and a distal tip control at the proximal end of the catheter that is configured to expose a cutting edge of the annular cutting ring by translating the drive shaft to laterally displace the distal tip assembly from a closed configuration in which the distal tip assembly is in-line with the catheter body, to an open configuration in which the distal tip assembly is laterally displaced from the catheter body. an elongate, flexible catheter body having a proximal end and a distal end and a longitudinal axis; an elongate and laterally displaceable distal tip assembly ; a rotatable annular cutting ring between the distal end of the catheter body and the distal tip assembly; a hollow tubular drive shaft extending along a length of the catheter body and connected directly to the annular cutting ring; an optical coherence tomography imaging element positioned within the hollow lumen of the drive shaft; and a distal tip control at the proximal end of the catheter that is configured to expose a cutting edge of the annular cutting ring by translating the drive shaft to laterally displace the distal tip assembly from a closed configuration in which the distal tip assembly is in-line with the catheter body, to an open configuration in which the distal tip assembly is laterally displaced from the catheter body.
An elevator system , comprising: an elevator car within an elevator shaft ; a landing within the elevator shaft , the landing having a landing door ; a landing door lock subject to inspection, the landing door lock having an indicator element thereon; the landing door lock including a first body and a second body , the first body and the second body arranged to lock the landing door , at least one of the first body or the second body including the indicator element ; one of the first body and the second body comprising a securing element , and the other of the first body and the second body comprising a locking element ; the locking element releasably engaging with the securing element to lock the landing door ; and an inspection system , configured to inspect and monitor the landing door lock , comprising a detector located on the elevator car and arranged to detect the presence of the indicator element in a detection region such that when the indicator element is detected within the detection region , a notification regarding a state of operation of the landing door lock is generated, characterized in that the indicator element is one of a colored paint, a textured surface, or a reflective surface on at least a portion of the locking element that interacts with the securing element , the indicator element being selected and arranged to be at least partially obscured or otherwise affected by the interaction and/or presence of the securing element relative to the indicator element and/or the locking element . an elevator car within an elevator shaft ; a landing within the elevator shaft , the landing having a landing door ; a landing door lock subject to inspection, the landing door lock having an indicator element thereon; the landing door lock including a first body and a second body , the first body and the second body arranged to lock the landing door , at least one of the first body or the second body including the indicator element ; one of the first body and the second body comprising a securing element , and the other of the first body and the second body comprising a locking element ; the locking element releasably engaging with the securing element to lock the landing door ; and an inspection system , configured to inspect and monitor the landing door lock , comprising a detector located on the elevator car and arranged to detect the presence of the indicator element in a detection region such that when the indicator element is detected within the detection region , a notification regarding a state of operation of the landing door lock is generated, characterized in that the indicator element is one of a colored paint, a textured surface, or a reflective surface on at least a portion of the locking element that interacts with the securing element , the indicator element being selected and arranged to be at least partially obscured or otherwise affected by the interaction and/or presence of the securing element relative to the indicator element and/or the locking element .