mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a charging regulator for an electrical storage device, in particular a battery of a vehicle on-board power supply, which can be supplied with electrical energy by means of an electric machine that can be coupled to an internal combustion engine in a direct or geared manner and comprises a rotor and a stator with at least one phase winding (U, V, W) that generates phase signals (U U, U V, U W, I U, I V, I W), wherein the phase signals are detected in order to ascertain the rotational speed or the rotary angle position, wherein at least one value of a phase voltage (W Uu, W Ud, W Vu, W VD, W Wu, W Wd), which occurs in each case at least once per revolution of the rotor and is triggered by at least one rising edge (FI Uu, FI Vu, FI Wu) of the phase signal (Uu, Uv, Uw, I U, I V, I W) or by a falling edge (FI Ud, FI Vd, FI Wd) of the phase signal (U U, U V, U W, I U, I V, I W), is detected, wherein, once a first setpoint value (U soll1) of the operating voltage (U s) of the electrical storage device has been reached or exceeded, the charging regulator is controlled such that, following the occurrence of the at least one value (W Uu, W Ud, W Vu, W Vd, W Wu, W Wd) at the next rising edge (FI Uu, FI Vu, FI Wu), a current flow from the electric machine into the electrical storage device is suppressed or enabled, characterized in that the current flow is suppressed after the at least one value of the phase voltage (W Uu, W Ud, W Vu, W Vd, W Wu, W Wd) has occurred until at least one further value of the phase voltage (W Uu, W Ud, W Vu, W Vd, W Wu, W Wd), which is triggered by a subsequent rising edge (FI Uu, FI Vu, FI Wu) of the phase signal (Uu, U V, U W, I U, I V, I W) or by a falling edge (FI Ud, FI Vd, FI Wd) of the phase signal (U U, U V, U W, I U, I V, I W), is identified.
A decoder for generating a time domain audio signal by waveform decoding, the decoder comprising: - means for receiving an encoded data stream; - means for generating a first subband signal by decoding data values of the encoded data stream, the first subband signal corresponding to a critically sampled subband domain signal representation of the time domain audio signal; - conversion means for generating a second subband signal from the first subband signal or a processed version thereof by subband processing, the second subband signal corresponding to a non-critically sampled complex subband domain representation of the time domain audio signal; a parametric decoder for parametrically decoding parametric data using the second subband signal; and - a synthesis filter bank for generating the time domain audio signal from the second subband signal. - means for receiving an encoded data stream; - means for generating a first subband signal by decoding data values of the encoded data stream, the first subband signal corresponding to a critically sampled subband domain signal representation of the time domain audio signal; - conversion means for generating a second subband signal from the first subband signal or a processed version thereof by subband processing, the second subband signal corresponding to a non-critically sampled complex subband domain representation of the time domain audio signal; a parametric decoder for parametrically decoding parametric data using the second subband signal; and - a synthesis filter bank for generating the time domain audio signal from the second subband signal.
A method for analyzing the performance of a query optimizer of a customer computer (102_1), wherein the query optimizer translates a database query into a query plan to be executed on data stored in a database, the method comprising: identifying, by a collection module at the customer computer (102_1), an event trigger, wherein the event trigger comprises an occurrence of a query optimizer crash, the submission of a specified query to the customer computer (102_1), or a request for a reproduction object; interrogating, by the collection module, software components of the query optimizer to populate a reproduction object characterizing operational parameters of the customer computer (102_1) at the time of the event trigger, the operational parameters comprising an input query, a query plan object, database schema information, database statistics and physical system data; transporting the reproduction object from the customer computer (102_1) to a test computer (104_1), wherein the test computer (104_1) comprises a query optimizer of a same or comparable software version as the query optimizer of the customer computer (102_1); and analyzing, by an analysis module of the test computer (104_1), the reproduction object to characterize the performance of the query optimizer, comprising: reading the reproduction object; and replaying an optimization process associated with the reproduction object using the query optimizer of the same or comparable software version as the query optimizer of the customer computer (102_1). identifying, by a collection module at the customer computer (102_1), an event trigger, wherein the event trigger comprises an occurrence of a query optimizer crash, the submission of a specified query to the customer computer (102_1), or a request for a reproduction object; interrogating, by the collection module, software components of the query optimizer to populate a reproduction object characterizing operational parameters of the customer computer (102_1) at the time of the event trigger, the operational parameters comprising an input query, a query plan object, database schema information, database statistics and physical system data; transporting the reproduction object from the customer computer (102_1) to a test computer (104_1), wherein the test computer (104_1) comprises a query optimizer of a same or comparable software version as the query optimizer of the customer computer (102_1); and analyzing, by an analysis module of the test computer (104_1), the reproduction object to characterize the performance of the query optimizer, comprising: reading the reproduction object; and replaying an optimization process associated with the reproduction object using the query optimizer of the same or comparable software version as the query optimizer of the customer computer (102_1). reading the reproduction object; and replaying an optimization process associated with the reproduction object using the query optimizer of the same or comparable software version as the query optimizer of the customer computer (102_1).
Method for creating a luggage bag, said method comprising the following operations: a) creating a one-piece casing having an inner surface and an outer surface, the casing being flexible, the casing having a housing and a flap, the flap being designed for placement in a folded-in position in which the casing has an interior volume and a slit extending between the housing and the flap, the slit being one continuous slit, the casing being entirely created by knitting, using at least one structural yarn (22, 23), and b) attaching a sealing device on the housing and the flap, at the slit. a) creating a one-piece casing having an inner surface and an outer surface, the casing being flexible, the casing having a housing and a flap, the flap being designed for placement in a folded-in position in which the casing has an interior volume and a slit extending between the housing and the flap, the slit being one continuous slit, the casing being entirely created by knitting, using at least one structural yarn (22, 23), and b) attaching a sealing device on the housing and the flap, at the slit.
Method for producing a nickel-based alloy, by - producing an electrode by VIM, VOF or VLF, - subjecting the electrode to a heat treatment in an oven in a temperature range between 500 and 1300°C for a period from 10 to 336 hours in order to reduce stresses and overaging, wherein heat treatment takes place in the temperature range from 1000°C to 1300°C for at least 10 hours and not more than 48 hours, - cooling the electrode in air or in the oven to a temperature between room temperature and lower than 900°C, - subsequently remelting the cooled electrode by ESR at a remelt rate from 3.0 to 10 kg/minute to form an ESR block, - cooling the ESR block in air or in the oven to a temperature between room temperature and lower than 900°C, - remelting the ESR block again by VAR at a remelting rate from 3.0 to 10 kg/minute and with a fluctuation margin of the remelting rate of less than 15%, better still 10%, ideally 5%, - subjecting the remelted VAR block to a heat treatment in the temperature range between 500 and 1250°C for a period from 10 to 336 hours, - then bringing the VAR block to the desired product shape and dimension by hot and/or cold forming. - producing an electrode by VIM, VOF or VLF, - subjecting the electrode to a heat treatment in an oven in a temperature range between 500 and 1300°C for a period from 10 to 336 hours in order to reduce stresses and overaging, wherein heat treatment takes place in the temperature range from 1000°C to 1300°C for at least 10 hours and not more than 48 hours, - cooling the electrode in air or in the oven to a temperature between room temperature and lower than 900°C, - subsequently remelting the cooled electrode by ESR at a remelt rate from 3.0 to 10 kg/minute to form an ESR block, - cooling the ESR block in air or in the oven to a temperature between room temperature and lower than 900°C, - remelting the ESR block again by VAR at a remelting rate from 3.0 to 10 kg/minute and with a fluctuation margin of the remelting rate of less than 15%, better still 10%, ideally 5%, - subjecting the remelted VAR block to a heat treatment in the temperature range between 500 and 1250°C for a period from 10 to 336 hours, - then bringing the VAR block to the desired product shape and dimension by hot and/or cold forming.
An antisense oligodeoxyribonucleotide targeting miR-328 in retinal pigment epithelium cells, wherein the deoxyribonucleotide sequence of the oligodeoxyribonucleotide is SEQ ID NO: 3 or SEQ ID NO: 4.
A bracket manifold (250, 350, 450) for attachment to a component of a torque link assembly of a landing gear assembly, comprising: a mounting plate (366, 466) having a central portion and a first wing portion extending from the central portion toward a first distal end of the bracket manifold, and a second wing portion extending from the central portion toward a second distal end of the bracket manifold; a first manifold section integrated monolithically into at least one of the central portion and the first wing portion of the mounting plate, the first manifold section configured to fluidly couple a first upstream hydraulic hose to a downstream hydraulic hose; a mounting shelf (3 88) integrated monolithically into at least one of the central portion and the second wing portion wherein the mounting shelf is configured to receive an electrical conduit; an attachment plate configured to attach the bracket manifold to the component of the torque link assembly of the landing gear assembly; the bracket manifold further comprising: a first side wall and a second side wall integrated monolithically into the attachment plate and into the mounting plate and configured to space the attachment plate from the mounting plate. a mounting plate (366, 466) having a central portion and a first wing portion extending from the central portion toward a first distal end of the bracket manifold, and a second wing portion extending from the central portion toward a second distal end of the bracket manifold; a first manifold section integrated monolithically into at least one of the central portion and the first wing portion of the mounting plate, the first manifold section configured to fluidly couple a first upstream hydraulic hose to a downstream hydraulic hose; a mounting shelf (3 88) integrated monolithically into at least one of the central portion and the second wing portion wherein the mounting shelf is configured to receive an electrical conduit; an attachment plate configured to attach the bracket manifold to the component of the torque link assembly of the landing gear assembly; the bracket manifold further comprising: a first side wall and a second side wall integrated monolithically into the attachment plate and into the mounting plate and configured to space the attachment plate from the mounting plate.
A recombinant DNA vaccine for use in a method of eliciting an anti-tumor response in a subject having prostate cancer, wherein the method comprises: a. administering to the subject androgen deprivation therapy; and b. administering to the subject said recombinant DNA vaccine wherein the recombinant DNA vaccine comprises a polynucleotide operably linked to a transcriptional regulatory element wherein the polynucleotide encodes an androgen receptor or a fragment of the androgen receptor selected from the group consisting of (i) a mammalian androgen receptor, (ii) the ligand-binding domain of the androgen receptor, (iii) a fragment of the ligand-binding domain defined by SEQ ID NO:9, (iv) a fragment of the ligand-binding domain defined by SEQ ID NO:10, (v) a fragment of the ligand-binding domain defined by SEQ ID NO:11, and (vi) a fragment of the ligand-binding domain defined by SEQ ID NO:12, wherein the recombinant DNA vaccine is administered in an amount effective to elicit an increased anti-tumor response to the prostate cancer, wherein the combination treatment of ADT and the recombinant DNA vaccine inhibits, delays or reduces the growth of the prostate cancer. a. administering to the subject androgen deprivation therapy; and b. administering to the subject said recombinant DNA vaccine wherein the recombinant DNA vaccine comprises a polynucleotide operably linked to a transcriptional regulatory element wherein the polynucleotide encodes an androgen receptor or a fragment of the androgen receptor selected from the group consisting of (i) a mammalian androgen receptor, (ii) the ligand-binding domain of the androgen receptor, (iii) a fragment of the ligand-binding domain defined by SEQ ID NO:9, (iv) a fragment of the ligand-binding domain defined by SEQ ID NO:10, (v) a fragment of the ligand-binding domain defined by SEQ ID NO:11, and (vi) a fragment of the ligand-binding domain defined by SEQ ID NO:12,
A method of operating a wireless terminal to communicate with a base station, said wireless terminal including a single transmitter signal processing chain including a dwell boundary switching module for coupling said single transmitter chain to a plurality of antenna elements, said dwell boundary switching module for switching on dwell boundaries but not in between, said plurality of antenna elements including at least a first antenna element and a second antenna element each of which can be used independently, the method comprising: operating the dwell boundary switching module during a first period of time to switch between said first and second antenna elements at least some dwell boundaries which occur during said first period of time to thereby change the antenna element used to transmit signals from said single transmitter signal processing chain, a dwell being a second period of time within said first period of time during which said wireless terminal uses a single set of tones to transmit signals to said base station, a different set of tones being used in immediately consecutive dwells during said first period of time.
A method comprising: in response to receiving notification that data stored in a region of storage cells in a non-volatile memory system stores invalid data, marking the region as storing invalid data; the method characterized by controlling a time that the region of storage cells is in an erase state associated with subsequent overwriting of the invalid data in the storage cells with replacement data to be less than a predetermined time threshold value, wherein controlling the time includes: delaying an operation of erasing the invalid data in the storage cells in the region and replacing the invalid data with the replacement data, the delayed operation reducing the time to below the predetermined time threshold value. in response to receiving notification that data stored in a region of storage cells in a non-volatile memory system stores invalid data, marking the region as storing invalid data; the method characterized by controlling a time that the region of storage cells is in an erase state associated with subsequent overwriting of the invalid data in the storage cells with replacement data to be less than a predetermined time threshold value, wherein controlling the time includes: delaying an operation of erasing the invalid data in the storage cells in the region and replacing the invalid data with the replacement data, the delayed operation reducing the time to below the predetermined time threshold value.
A method for managing enhanced physical downlink control channel, EPDCCH, resources used in a wireless communications network for transmitting scheduling assignments, the method comprising: - establishing a measure on load in the wireless communications network, and - controlling whether to assign one or more user terminals to use EPDCCH resources based on the established measure on load. - establishing a measure on load in the wireless communications network, and - controlling whether to assign one or more user terminals to use EPDCCH resources based on the established measure on load.
A method for configuring managed object, MO, models for a cell hosted by a first radio base station, wherein the cell is served by a plurality of transmission and receiving points, each transmission and receiving point covering a subarea of the cell, and wherein the cell is modelled by an instance of a first MO in a first MO model, and a set of equipment of each of said plurality of transmission and receiving points is modelled by an instance of a second MO in the first MO model, the method comprising: - adding to the first MO model an instance of a third MO for each subarea, each instance of the third MO comprising attributes defining the usage of the transmission and receiving point covering the subarea, - defining relationships between the instance of the first MO and each instance of the third MOs, and when an added instance of the third MO is modelling a subarea covered by a transmission and receiving point managed by the first radio base station, - defining a relationship between the added instance of the third MO and the instance of the second MO modelling the set of equipment of the transmission and receiving point covering the corresponding subarea. - adding to the first MO model an instance of a third MO for each subarea, each instance of the third MO comprising attributes defining the usage of the transmission and receiving point covering the subarea, - defining relationships between the instance of the first MO and each instance of the third MOs, and when an added instance of the third MO is modelling a subarea covered by a transmission and receiving point managed by the first radio base station, - defining a relationship between the added instance of the third MO and the instance of the second MO modelling the set of equipment of the transmission and receiving point covering the corresponding subarea.
A driver for providing variable power to at least one LED array (20, 120, 220), which driver (10, 100, 200) can be coupled through a phase-modulating dimmer (30, 130,230) to a mains AC power supply (40,140,240), the driver (10,100,200) comprising: - a rectifying unit (50, 150, 250) adapted to convert an AC power from the mains AC power supply (40,140,240) into a DC power output; - a switching power unit (60, 160,260) receiving the DC power output from the rectifying unit (50, 150, 250) and adapted to provide an output current to the LED array (20, 120, 220); and - a control unit (70, 170, 270) adapted to determine the output current to the LED array (20, 120, 220), wherein the control unit (70, 170, 270) comprises a first sampling sub-unit (71, 171, 271) adapted to sense a dim reference signal representing phase modulating information of the AC power when the phase angle of the AC power is cut by the dimmer, and wherein the first sampling sub-unit (71, 171,271) is adapted to cause the dim reference signal to be in a low frequency range in such a way that the dim reference signal is approximately a flat voltage signal, characterized in that the control unit (70, 170, 270) further comprises a second sampling sub-unit adapted (72, 172, 272) to sense a feedback signal and cause the feedback signal to be in a low frequency range such that it represents an average value of the output current to the LED array (20, 120,220) over a mains period, and wherein the control unit (70, 170, 270) is adapted to determine the output current to the LED array (20, 120, 220) in response to a comparison between the dim reference signal from the first sampling-sub unit (71, 171,271) and the feedback signal from the second sub-sampling circuit (72, 172 272). - a rectifying unit (50, 150, 250) adapted to convert an AC power from the mains AC power supply (40,140,240) into a DC power output; - a switching power unit (60, 160,260) receiving the DC power output from the rectifying unit (50, 150, 250) and adapted to provide an output current to the LED array (20, 120, 220); and - a control unit (70, 170, 270) adapted to determine the output current to the LED array (20, 120, 220), wherein the control unit (70, 170, 270) comprises a first sampling sub-unit (71, 171, 271) adapted to sense a dim reference signal representing phase modulating information of the AC power when the phase angle of the AC power is cut by the dimmer, and wherein the first sampling sub-unit (71, 171,271) is adapted to cause the dim reference signal to be in a low frequency range in such a way that the dim reference signal is approximately a flat voltage signal,
A method of generating and transmitting a reference signal and data in a user equipment, UE, participating in Device-to-Device, D2D, communication, D2D UE, the method comprising: generating a sequence related to a first band, wherein a size of the first band is 1/N of a full bandwidth, wherein N is a natural number larger than 1, and wherein the full bandwidth is related to a bandwidth usable for D2D or New Radio Access Technology, New RAT; generating a first Demodulation Reference Signal, DMRS, sequence related to the full bandwidth by repeating the generated sequence based on frequency resources within the first band sequentially and repeatedly by an amount of the full bandwidth; generating a truncated first DMRS sequence by truncating the first DMRS sequence, wherein the truncated first DMRS sequence is related to a second band allocated for the data; and transmitting the truncated DMRS sequence and the data through the second band, wherein a second DMRS sequence related to the full bandwidth is also identically generated by another D2D UE receiving the data, and a truncated second DMRS sequence, generated by truncating the second DMRS sequence, is used for correlation with the truncated first DMRS. generating a sequence related to a first band, wherein a size of the first band is 1/N of a full bandwidth, wherein N is a natural number larger than 1, and wherein the full bandwidth is related to a bandwidth usable for D2D or New Radio Access Technology, New RAT; generating a first Demodulation Reference Signal, DMRS, sequence related to the full bandwidth by repeating the generated sequence based on frequency resources within the first band sequentially and repeatedly by an amount of the full bandwidth; generating a truncated first DMRS sequence by truncating the first DMRS sequence, wherein the truncated first DMRS sequence is related to a second band allocated for the data; and transmitting the truncated DMRS sequence and the data through the second band, wherein a second DMRS sequence related to the full bandwidth is also identically generated by another D2D UE receiving the data, and a truncated second DMRS sequence, generated by truncating the second DMRS sequence, is used for correlation with the truncated first DMRS.