mhurhangee/patent-ind-claim-en huggingface dataset:
A method for scheduling a downlink transmission, the method comprising: receiving, by a user equipment, UE, higher-layer signaling from a base station, the higher-layer signaling indicating locations of resources pre-reserved for synchronization channel and broadcast channel; receiving, by the UE, downlink control information, DCI, from the base station, the DCI indicating a location of a transmission within a slot, the location of the transmission including a start position of the transmission and a length of the transmission, wherein the transmission may start at any symbol of the slot; and receiving, by the UE, from the base station, the transmission in accordance with the location indicated by the DCI and the locations of the resources pre-reserved for synchronization channel and broadcast channel, indicated by the higher-layer signaling; wherein a demodulation reference signal, DMRS, is received on at least the first symbol or the second symbol of the slot. receiving, by a user equipment, UE, higher-layer signaling from a base station, the higher-layer signaling indicating locations of resources pre-reserved for synchronization channel and broadcast channel; receiving, by the UE, downlink control information, DCI, from the base station, the DCI indicating a location of a transmission within a slot, the location of the transmission including a start position of the transmission and a length of the transmission, wherein the transmission may start at any symbol of the slot; and receiving, by the UE, from the base station, the transmission in accordance with the location indicated by the DCI and the locations of the resources pre-reserved for synchronization channel and broadcast channel, indicated by the higher-layer signaling; wherein a demodulation reference signal, DMRS, is received on at least the first symbol or the second symbol of the slot.
A method of enhancing distorted signal having a speech and noise component, with a processing device having memory with stored training information ( T ), comprising a step of distorted signal frame r acquisition, a step of computing orthogonal transform over frame r to obtain distorted signal magnitude spectrum d and distorted signal phase spectrum, a step of removing noise in spectrum domain according to a noise and speech model to obtain clear amplitude spectrum d̂ sk of the frame, and a step of synthetizing clear speech signal ŝ p frame with inverse transformation of the clear amplitude spectrum d̂ sk from spectrum domain to time domain, characterized in that the training information T comprises dictionaries of compact spectra prototypes of speech s i 1 and noise n i 2 , speech gains c S i 3 and noise gains c N i 4 forming together composite states i = ( i 1 , i 2 , i 3 , i 4 ), and probabilities of speech P S l and noise P N l state history wherein dictionaries of compact spectra prototypes comprise compact spectra prototypes of a first dimension P 1 and of a second dimension P 2 where second dimension P 2 is higher or equal to the first dimension P 1 , and in that the step of removing noise includes com putation of a first compact spectrum d 1 of the first dimension P 1 from magnitude spectrum d, computation of a second compact spectrum d 2 of the second dimension P 2 from magnitude spectrum d, preselection from training information T a set of composite states matching the first compact spectrum d 1 evaluation of composite states likelihoods and transition probabilities with a'priori knowledge model using the second compact spectra d 2 over the set of preselected states, computing a'posteriori probabilities of the composite states using forward and backward probabilities calculated on a base of the likelihoods of the preselected composite states and on a base of the transition probabilities corresponding to at least three frames, estimation of a noise compact spectrum d̂ 2n based on the second compact spectrum d 2 , training information T and a'posteriori probabilities, estimation of a speech compact spectrum d̂ 2s based on the second compact spectrum d 2 , the training information T and the a'posteriori probabilities, recovering a speech magnitude spectrum d̂ sk based on the estimated noise compact spectrum, the estimated speech compact spectrum d̂ 2s , the estimated speech compact spectrum d̂ 2n , and distorted signal magnitude spectrum d 2 .
An apparatus for removing a surface oxide of a metal material and feeding the metal material to a melting furnace , comprising: a housing including a material dropping chamber for feeding and discharging the metal material and a material etching chamber for performing a plasma etching process; and a pretreatment casing configured to reciprocate between the material dropping chamber and the material etching chamber in the housing, wherein the pretreatment casing is configured to receive the metal material from the material dropping chamber to store the metal material, move to the material etching chamber to plasma-etch a surface oxide layer of the stored metal material, and then return to the material dropping chamber to drop the etched metal material into the melting furnace . a housing including a material dropping chamber for feeding and discharging the metal material and a material etching chamber for performing a plasma etching process; and a pretreatment casing configured to reciprocate between the material dropping chamber and the material etching chamber in the housing, wherein the pretreatment casing is configured to receive the metal material from the material dropping chamber to store the metal material, move to the material etching chamber to plasma-etch a surface oxide layer of the stored metal material, and then return to the material dropping chamber to drop the etched metal material into the melting furnace .
An electrode for secondary battery comprising: an electrode current collector in which a plurality of through-holes are formed; a first electrode mixture layer including an electrode active material, a binder, a conductive material, and a thickener on at least one surface of the electrode current collector; and a second electrode mixture layer including an electrode active material, a binder, and a conductive material on the first electrode mixture layer, wherein the second electrode mixture layer comprises a thickener in a weight less than a weight of the thickener included in the first electrode mixture layer. an electrode current collector in which a plurality of through-holes are formed; a first electrode mixture layer including an electrode active material, a binder, a conductive material, and a thickener on at least one surface of the electrode current collector; and a second electrode mixture layer including an electrode active material, a binder, and a conductive material on the first electrode mixture layer, wherein the second electrode mixture layer comprises a thickener in a weight less than a weight of the thickener included in the first electrode mixture layer.
A dry vacuum pump comprising a pump housing defining a plurality of suction chambers , rotor elements arranged in the suction chambers for conveying a pump medium from a high-vacuum-side inlet to an outlet , wherein at least one rotor element is arranged in each suction chamber , a rotor shaft connected with the rotor elements , and bearings supporting the rotor shaft , wherein a high-vacuum-side bearing is arranged in a recess , wherein a sealing device is arranged between the high-vacuum-side bearing and at least one suction chamber adjacent the high-vacuum-side bearing , characterized in that a first duct connects the recess with a region of the dry vacuum pump in which a higher pressure prevails than in the at least one suction chamber adjacent the high-vacuum-side bearing .
Universal hydraulic connection system comprising a control mixer , an interchangeable inlet connector , an interchangeable outlet connector , a support , wherein the control mixer is connected to a hydraulic network through the interchangeable inlet connector and the interchangeable outlet connector and to the support , and a quick connection device adapted to allow movably connecting said control mixer to said support keeping the hydraulic connection of said control mixer with respect to an hydraulic network, characterized in that said quick connection device is composed of a grooved profile of said interchangeable inlet connector , of a grooved profile of said interchangeable outlet connector and of a shaped guide of said support to allow sliding and blocking said control mixer with respect to said support , said shaped guide being adapted to house therein either said grooved profile of said interchangeable inlet connector or said grooved profile of said interchangeable outlet connector .
A method for classifying white blood cells (WBCs) in a biological sample on a substrate, the method comprising: acquiring, by an image acquisition device, one or more images of the substrate; extracting a plurality of features of the white blood cells in the biological sample from the one or more images; and performing a plurality of classifications for each white blood cell, each classification based on a corresponding feature vector composed of one or more of the extracted features of the respective white blood cell, each classification including either maintaining a previous classification of the white blood cell or changing a previous classification of the white blood cell, wherein at least one of the classifications includes a linear discriminant analysis (LDA) classification and at least one of the classifications includes a Bayesian classification. acquiring, by an image acquisition device, one or more images of the substrate; extracting a plurality of features of the white blood cells in the biological sample from the one or more images; and performing a plurality of classifications for each white blood cell, each classification based on a corresponding feature vector composed of one or more of the extracted features of the respective white blood cell, each classification including either maintaining a previous classification of the white blood cell or changing a previous classification of the white blood cell, wherein at least one of the classifications includes a linear discriminant analysis (LDA) classification and at least one of the classifications includes a Bayesian classification.
A genetically engineered rodent comprising in its genome a modified endogenous DR6 locus (i) comprising a deletion of the entire DR6 coding region, or a portion thereof, and (ii) comprising a nucleic acid sequence encoding a functional DR6 signal peptide operably fused to a transmembrane domain, wherein the transmembrane protein is operably fused to a reporter protein, wherein the nucleic acid sequence is operably linked to an endogenous DR6 transcriptional regulatory sequence, wherein any polypeptide encoded by the endogenous DR6 locus lacks a functional DR6 cytoplasmic domain, and wherein the rodent develops: (a) dysfunction of a motor neuron and/or (b) diminished nociception compared to control rodents.
An actuation control system (200; 300), comprising: a turbine case ; a plurality of actuators disposed circumferentially about the turbine case , wherein each actuator comprises a control wire having a shape memory alloy (SMA) wire extending in a circumferential direction through the actuator , the control wire being configured to cause the SMA wire to contract circumferentially in response to receiving an electrical current, wherein the contraction of the SMA wire controls the actuation of the actuator ; and a plurality of blade outer air seal (BOAS) segments disposed circumferentially about the turbine case , each BOAS segment being in operable communication with a respective actuator from the plurality of actuators , wherein each BOAS segment is configured to move from a first radial position to a second radial position in response to an actuation from the respective actuator , the actuation control system (200; 300) further comprising a power supply having a controller , wherein the power supply is optionally configured to transmit the electrical current to the control wire in response to the controller determining a tip clearance actuation event. a turbine case ; a plurality of actuators disposed circumferentially about the turbine case , wherein each actuator comprises a control wire having a shape memory alloy (SMA) wire extending in a circumferential direction through the actuator , the control wire being configured to cause the SMA wire to contract circumferentially in response to receiving an electrical current, wherein the contraction of the SMA wire controls the actuation of the actuator ; and a plurality of blade outer air seal (BOAS) segments disposed circumferentially about the turbine case , each BOAS segment being in operable communication with a respective actuator from the plurality of actuators , wherein each BOAS segment is configured to move from a first radial position to a second radial position in response to an actuation from the respective actuator , the actuation control system (200; 300) further comprising a power supply having a controller , wherein the power supply is optionally configured to transmit the electrical current to the control wire in response to the controller determining a tip clearance actuation event.
A process for producing ethylbenzene, the process comprising: (a1) supplying benzene and an alkylating agent comprising at least 40 wt% ethylene to an alkylation reaction zone; (b1) adding at least one C 3+ olefin to the alkylation reaction zone in an amount of at least 200 ppm by weight of the ethylene supplied to the alkylation reaction zone; and (c1) contacting the benzene, ethylene and C 3+ olefin with an alkylation catalyst in the alkylation reaction zone under alkylation conditions effective to alkylate at least part of the benzene and produce an alkylation effluent comprising ethylbenzene, polyethylated benzene and at least one mono-C 3+ alkyl benzene; (d1) separating the alkylation effluent into at least a first product fraction comprising ethylbenzene and a second fraction comprising polyethylated benzene and said at least one mono-C 3+ alkyl benzene; and (e1) contacting at least part of the second fraction with benzene in the presence of a transalkylation catalyst under transalkylation conditions effective to convert at least part of the polyethylated benzene to ethylbenzene and produce a transalkylation effluent. (a1) supplying benzene and an alkylating agent comprising at least 40 wt% ethylene to an alkylation reaction zone; (b1) adding at least one C 3+ olefin to the alkylation reaction zone in an amount of at least 200 ppm by weight of the ethylene supplied to the alkylation reaction zone; and (c1) contacting the benzene, ethylene and C 3+ olefin with an alkylation catalyst in the alkylation reaction zone under alkylation conditions effective to alkylate at least part of the benzene and produce an alkylation effluent comprising ethylbenzene, polyethylated benzene and at least one mono-C 3+ alkyl benzene; (d1) separating the alkylation effluent into at least a first product fraction comprising ethylbenzene and a second fraction comprising polyethylated benzene and said at least one mono-C 3+ alkyl benzene; and (e1) contacting at least part of the second fraction with benzene in the presence of a transalkylation catalyst under transalkylation conditions effective to convert at least part of the polyethylated benzene to ethylbenzene and produce a transalkylation effluent.
A glass plate module to be attached at a position adjacent to a door of a vehicle that can be opened and closed, a part of the door being configured to be arranged in a door arrangement portion of the vehicle, the glass plate module comprising: a glass plate ; a window assembly that is fixed to a peripheral edge of the glass plate ; and a molding portion that includes a tubular molding portion main body provided with a through hole extending along the window assembly and that is fixed to the window assembly , wherein the molding portion main body is configured to protrude from the door arrangement portion toward the vehicle exterior side, and to come into contact with a portion of the closed door and to be flattened when the door is closed, the glass plate module being characterised in that a cutout portion that extends along the window assembly is formed in an inner wall surface of the through hole of the molding portion main body . a glass plate ; a window assembly that is fixed to a peripheral edge of the glass plate ; and a molding portion that includes a tubular molding portion main body provided with a through hole extending along the window assembly and that is fixed to the window assembly , wherein the molding portion main body is configured to protrude from the door arrangement portion toward the vehicle exterior side, and to come into contact with a portion of the closed door and to be flattened when the door is closed, the glass plate module being characterised in that a cutout portion that extends along the window assembly is formed in an inner wall surface of the through hole of the molding portion main body .
Electrical shielding member for a network connector , wherein the electrical shielding member is made from bend and cut sheet metal, comprising: a receiving portion (no) for receiving a cable end of a shielded cable at least partially, wherein the receiving portion (no) is adapted to be in contact with a shielding of the cable , and wherein the receiving portion comprises: at least one coupling element , protruding outwardly from the receiving portion , wherein the coupling element is adapted to be coupled to a corresponding counter coupling element of a network connector housing ; and at least one engagement element , protruding inwardly into the receiving portion , wherein the engagement element is adapted to be engaged with the cable and/or a fastening ferrule of the cable, the electrical shielding member further comprising: at least one contact beam (130; 150), extending from the receiving portion (no), wherein the contact beam (130; 150) is adapted to be electrically connected to a counter electrical shielding member of a counter connector, characterized in that the coupling element is a coupling protrusion embossed in the receiving portion , and at least three sides of the coupling element are connected with the receiving portion . a receiving portion (no) for receiving a cable end of a shielded cable at least partially, wherein the receiving portion (no) is adapted to be in contact with a shielding of the cable , and wherein the receiving portion comprises: at least one coupling element , protruding outwardly from the receiving portion , wherein the coupling element is adapted to be coupled to a corresponding counter coupling element of a network connector housing ; and at least one engagement element , protruding inwardly into the receiving portion , wherein the engagement element is adapted to be engaged with the cable and/or a fastening ferrule of the cable, the electrical shielding member further comprising: at least one coupling element , protruding outwardly from the receiving portion , wherein the coupling element is adapted to be coupled to a corresponding counter coupling element of a network connector housing ; and at least one engagement element , protruding inwardly into the receiving portion , wherein the engagement element is adapted to be engaged with the cable and/or a fastening ferrule of the cable, the electrical shielding member further comprising: at least one contact beam (130; 150), extending from the receiving portion (no), wherein the contact beam (130; 150) is adapted to be electrically connected to a counter electrical shielding member of a counter connector, characterized in that the coupling element is a coupling protrusion embossed in the receiving portion , and at least three sides of the coupling element are connected with the receiving portion .
A method of controlling a wind turbine in a partial load operation mode based on a tip-speed ratio (TSR) tracking scheme which based on an estimated wind speed determines a power setpoint, the estimated wind speed being determined based on a power or torque balance between the aerodynamic power or torque of the rotor and the electrical power or torque of the generator, wherein the TSR tracking scheme ensures operation in accordance with an operating power coefficient, and wherein the operating power coefficient has been adjusted in an iterative adjustment process, the iterative adjustment process comprises: setting an updated power coefficient as a predetermined power coefficient multiplied by a degradation function; while operating the wind turbine at a selected TSR, obtain a measurement set comprising a series of measurements of at least a generator power, a rotor effective wind speed and a rotor speed; calculate the degradation function that represents the values of the measurement set; calculate a mean operating TSR of the measurement set, and set the degradation function equal to the calculated degradation function for the mean operating TSR; determine a continuous degradation function for a range of the mean operating TSR value(s), and set the operating power coefficient as the updated power coefficient using the continuous degradation function in the range of the mean operating TSR values; determine a difference between the selected TSR and the mean operating TSR; if the difference is above a preset difference, set the operating power coefficient as the updated power coefficient for the selected TSR, and perform another iteration. setting an updated power coefficient as a predetermined power coefficient multiplied by a degradation function; while operating the wind turbine at a selected TSR, obtain a measurement set comprising a series of measurements of at least a generator power, a rotor effective wind speed and a rotor speed; calculate the degradation function that represents the values of the measurement set; calculate a mean operating TSR of the measurement set, and set the degradation function equal to the calculated degradation function for the mean operating TSR; determine a continuous degradation function for a range of the mean operating TSR value(s), and set the operating power coefficient as the updated power coefficient using the continuous degradation function in the range of the mean operating TSR values; determine a difference between the selected TSR and the mean operating TSR; if the difference is above a preset difference, set the operating power coefficient as the updated power coefficient for the selected TSR, and perform another iteration.