mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication performed by a user equipment, UE, the method comprising: identifying at least one communication resource from a plurality of communication resources for transmitting a positioning report that is based on measurement of downlink signals by the UE, wherein the plurality of communication resources for transmitting the positioning report have different priorities; and transmitting the positioning report via the at least one communication resource, wherein the at least one communication resource comprises at least one of: i) a medium-access-control control element, MAC-CE, logical channel ID, or ii) a signaling radio bearer, SRB. identifying at least one communication resource from a plurality of communication resources for transmitting a positioning report that is based on measurement of downlink signals by the UE, wherein the plurality of communication resources for transmitting the positioning report have different priorities; and transmitting the positioning report via the at least one communication resource, wherein the at least one communication resource comprises at least one of: i) a medium-access-control control element, MAC-CE, logical channel ID, or ii) a signaling radio bearer, SRB.
A method of testing vendor supplied parts data to identify fabricated or false data entries, the method comprising: receiving test data indicative of a component received from a vendor, the test data comprising at least one of tensile strength, a diameter, position and yield strength, and storing the test data in a non-volatile memory device ; characterized by processing the test data in a processor to create a plurality of explanatory variables of the test data, wherein said test data is processed in a unit less manner such that the explanatory variables are based upon number data of the test data, and not units of the test data, and wherein the explanatory variables identify attributes of the number data of the test data; performing multivariate data analysis on the plurality of explanatory variables, where the multivariate data analysis includes an iterative cluster based outlier detection procedure; and generating a confidence indicator value indicative of the likelihood that the test data includes at least one fabricated or false data entry, where the performing multivariate data analysis using the plurality of explanatory variables comprises performing K-means clustering and identifying cluster outliers to generate the confidence indicator. receiving test data indicative of a component received from a vendor, the test data comprising at least one of tensile strength, a diameter, position and yield strength, and storing the test data in a non-volatile memory device ; characterized by processing the test data in a processor to create a plurality of explanatory variables of the test data, wherein said test data is processed in a unit less manner such that the explanatory variables are based upon number data of the test data, and not units of the test data, and wherein the explanatory variables identify attributes of the number data of the test data; performing multivariate data analysis on the plurality of explanatory variables, where the multivariate data analysis includes an iterative cluster based outlier detection procedure; and generating a confidence indicator value indicative of the likelihood that the test data includes at least one fabricated or false data entry, where the performing multivariate data analysis using the plurality of explanatory variables comprises performing K-means clustering and identifying cluster outliers to generate the confidence indicator.
Method for the implementation and use of cryptographic material (KM) in at least one system component (SK) of an information technology system (IT-S) for carrying out at least one operation, wherein a state of the system component (SK) described by at least one variable (VAR) is checked at least at a first point in time, the cryptographic material (KM) is supplemented with additional data, the additional data describing possible states of system components (SK), and the cryptographic material (KM) is used by the system component (SK) if the additional data of the cryptographic material (KM) comprise at least the state that the system component (SK) has at the first point in time, characterized in that the additional data are formed by at least one condition (BED, BED KM *, BED KM Prov , BED KM Type(skid) , Type(skid), Prov ), at least one role (ROLE KM *) and/or at least one target component identity (ZKIDENT KM ); and at least one condition (BED, BED KM *, BED KM Prov , BED KM Type(skid) , BED KM Type(skid), Prov ) is defined in a machine-processable definition language, wherein an executable language interpretable by an interpreter is used.
A vibration signal generation system for generating a vibration signal from a sound signal, the vibration signal generation system comprising: frequency shift means (31, S61-S63) for converting sound pressure information indicated by a sound signal and belonging to a frequency range above an upper limit that enables at least a user to perceive a vibration, into sound pressure information belonging to a frequency range less than or equal to the upper limit, by generating an envelope waveform obtained by taking an envelope of sound pressure in waveform data of the sound signal and converting the sound pressure information belonging to the frequency range above the upper limit into the sound pressure information less than or equal to the upper limit, a low-pass filter (31, S64) configured to, in the converted sound pressure information, diminish a component at a frequency higher than a cutoff frequency set to be less than or equal to a frequency corresponding to the upper limit; and vibration signal generation means (31, S65) for generating a vibration signal using the sound pressure information after the conversion and the low pass filtering by the frequency shift means. frequency shift means (31, S61-S63) for converting sound pressure information indicated by a sound signal and belonging to a frequency range above an upper limit that enables at least a user to perceive a vibration, into sound pressure information belonging to a frequency range less than or equal to the upper limit, by generating an envelope waveform obtained by taking an envelope of sound pressure in waveform data of the sound signal and converting the sound pressure information belonging to the frequency range above the upper limit into the sound pressure information less than or equal to the upper limit, a low-pass filter (31, S64) configured to, in the converted sound pressure information, diminish a component at a frequency higher than a cutoff frequency set to be less than or equal to a frequency corresponding to the upper limit; and vibration signal generation means (31, S65) for generating a vibration signal using the sound pressure information after the conversion and the low pass filtering by the frequency shift means.
Catheter device, in particular for an ablation device comprising: an expandable basket comprising filaments , the expandable basket includes a ring at its distal end and wherein the filaments are coupled to the ring ; a set of electrodes positioned on the expandable basket , the set of electrodes electrically coupled to a pulse generator and configured to provide a pulsed electric field from electric pulses generated by the pulse generator , characterized in that the catheter includes an outer elongated shaft and an inner elongated shaft and wherein the expandable basket is coupled to the inner elongated shaft by a locking mechanism, wherein the locking mechanism includes a first protrusion and a second protrusion formed on the inner elongated shaft and the ring is positioned between the first protrusion and the second protrusion . an expandable basket comprising filaments , the expandable basket includes a ring at its distal end and wherein the filaments are coupled to the ring ; a set of electrodes positioned on the expandable basket , the set of electrodes electrically coupled to a pulse generator and configured to provide a pulsed electric field from electric pulses generated by the pulse generator , characterized in that the catheter includes an outer elongated shaft and an inner elongated shaft and wherein the expandable basket is coupled to the inner elongated shaft by a locking mechanism, wherein the locking mechanism includes a first protrusion and a second protrusion formed on the inner elongated shaft and the ring is positioned between the first protrusion and the second protrusion .
A computer-implemented method for generating, from a sequence of characters in a particular natural language, a mel-scale spectrogram of a verbal utterance of the sequence of characters in the particular natural language using a text-to-speech conversion system which comprises a sequence to sequence recurrent neural network , wherein the sequence to sequence recurrent neural network comprises an encoder neural network and an attention-based decoder recurrent neural network , the method comprising: receiving, at the encoder neural network, the sequence of characters in the particular natural language; processing, using the encoder neural network, the sequence of characters to generate a respective encoded representation of each of the characters in the sequence; receiving, at the attention-based decoder recurrent neural network, a sequence of decoder inputs; for each decoder input in the sequence of decoder inputs, processing, using the attention-based decoder neural network, the decoder input and the encoded representations to generate multiple frames of the mel-scale spectrogram; and generating a waveform from the mel-scale spectrogram of the verbal utterance of the sequence of characters in the particular natural language. receiving, at the encoder neural network, the sequence of characters in the particular natural language; processing, using the encoder neural network, the sequence of characters to generate a respective encoded representation of each of the characters in the sequence; receiving, at the attention-based decoder recurrent neural network, a sequence of decoder inputs; for each decoder input in the sequence of decoder inputs, processing, using the attention-based decoder neural network, the decoder input and the encoded representations to generate multiple frames of the mel-scale spectrogram; and generating a waveform from the mel-scale spectrogram of the verbal utterance of the sequence of characters in the particular natural language.
A welding system , comprising: - a welding torch , - a power source configured to generate welding power and deliver the welding power to a welding torch , wherein the welding torch is coupled to a negative output terminal of the power source ; - a welding wire feeder configured to advance a metal cored electrode into the welding torch at a rate of advancement; and - control circuitry configured to implement an electrode negative pulse welding regime characterized in that the control circuitry is further configured to implement a linear current-closed loop controlled ramp to a desired peak transition , and a current-closed loop peak phase and a generally parabolic current-closed loop stabilization phase following the peak phase , and a current-closed loop return phase following the stabilization phase to a background power level, wherein the stabilization phase comprises a down ramp of current defined by a current-per-unit-time squared relationship, wherein an arc re-establishment routine is implemented in the event of a short circuit following the stabilization phase . - a welding torch , - a power source configured to generate welding power and deliver the welding power to a welding torch , wherein the welding torch is coupled to a negative output terminal of the power source ; - a welding wire feeder configured to advance a metal cored electrode into the welding torch at a rate of advancement; and - control circuitry configured to implement an electrode negative pulse welding regime
An array substrate , comprising a pixel unit, wherein the pixel unit comprises: a first data line and a second data line that extend substantially along a first direction (D1) and are parallel to each other; a first gate line and a second gate line that extend substantially along a second direction (D2) and are parallel to each other, wherein the second direction (D2) is intersected with the first direction (D1); and at least two sub-pixels that are sequentially arranged parallel to the first direction (D1), wherein the first gate line and the second gate line are disposed at two sides of the at least two sub-pixels in the first direction (D1), respectively, wherein a number of the at least two sub-pixels is three, and the first gate line and the second gate line are disposed at two sides of three sub-pixels in the first direction (D1), respectively, wherein the three sub-pixels comprise a first sub-pixel adjacent to the first gate line , a third sub-pixel adjacent to the second gate line , and a second sub-pixel located between the first sub-pixel and the second sub-pixel , the three sub-pixels are in a region defined by the first gate line , the second gate line , the first data line and the second data line ; the first sub-pixel is electrically connected to the first gate line and the first data line , the third sub-pixel is electrically connected to the second gate line and the first data line , and the second sub-pixel is electrically connected to the first gate line and the second data line , or is electrically connected to the second gate line and the second data line . a first data line and a second data line that extend substantially along a first direction (D1) and are parallel to each other; a first gate line and a second gate line that extend substantially along a second direction (D2) and are parallel to each other, wherein the second direction (D2) is intersected with the first direction (D1); and at least two sub-pixels that are sequentially arranged parallel to the first direction (D1), wherein the first gate line and the second gate line are disposed at two sides of the at least two sub-pixels in the first direction (D1), respectively, wherein a number of the at least two sub-pixels is three, and the first gate line and the second gate line are disposed at two sides of three sub-pixels in the first direction (D1), respectively, wherein the three sub-pixels comprise a first sub-pixel adjacent to the first gate line , a third sub-pixel adjacent to the second gate line , and a second sub-pixel located between the first sub-pixel and the second sub-pixel , the three sub-pixels are in a region defined by the first gate line , the second gate line , the first data line and the second data line ; the first sub-pixel is electrically connected to the first gate line and the first data line , the third sub-pixel is electrically connected to the second gate line and the first data line , and the second sub-pixel is electrically connected to the first gate line and the second data line , or is electrically connected to the second gate line and the second data line .
A dynamically controllable shade comprising: a first conductive layer provided, directly or indirectly, on a major surface of a substrate; and a shutter including at least one polymer substrate, first and second conductive coatings, and first and second dielectric layers, wherein the at least one polymer substrate is extendible to a shutter closed position and retractable to a shutter open position; wherein the first and/or second conductive coatings is/are electrically connectable to a power source that is controllable to set up: (a) a first electric potential difference to create first electrostatic forces to drive the at least one polymer substrate to the shutter closed position, characterized in that the power source is controllable to set up: (b) a second electric potential difference to create second electrostatic forces to encourage the at least one polymer substrate to at least partially retract. a first conductive layer provided, directly or indirectly, on a major surface of a substrate; and a shutter including at least one polymer substrate, first and second conductive coatings, and first and second dielectric layers, wherein the at least one polymer substrate is extendible to a shutter closed position and retractable to a shutter open position; wherein the first and/or second conductive coatings is/are electrically connectable to a power source that is controllable to set up: (a) a first electric potential difference to create first electrostatic forces to drive the at least one polymer substrate to the shutter closed position, characterized in that (a) a first electric potential difference to create first electrostatic forces to drive the at least one polymer substrate to the shutter closed position, the power source is controllable to set up: (b) a second electric potential difference to create second electrostatic forces to encourage the at least one polymer substrate to at least partially retract.
A wireless power transmitter for transmitting power to a plurality of magnetically coupled target resonators , the wireless power transmitter comprising: a source unit configured to generate power; an amplifier configured to amplify the power; a multi-band resonance unit including at least two source resonators, the at least two source resonators configured to transmit the amplified power through magnetic coupling to the plurality of target resonators ; wherein the amplifier is configured to amplify the power to a fundamental power of a fundamental band, and to transmit, to the multi-band resonance unit , the fundamental power and a harmonic power, generated during the amplification, that is associated with at least one harmonic band, the at least two source resonators of the multi-band resonance unit include a fundamental resonator that is configured to resonate based on a first resonance bandwidth and transmit the fundamental power to a first target resonator using a first resonance band, and at least one harmonic resonator that is configured to resonate based on a second resonance bandwidth and transmit the harmonic power to a second target resonator using a second resonance band which is different from the first resonance bandwidth; characterized in that the fundamental resonator and/or the harmonic resonator comprise a capacitor and a matcher of which the physical shape can be changed to adjust the impedance of the resonator. a source unit configured to generate power; an amplifier configured to amplify the power; a multi-band resonance unit including at least two source resonators, the at least two source resonators configured to transmit the amplified power through magnetic coupling to the plurality of target resonators ; wherein the amplifier is configured to amplify the power to a fundamental power of a fundamental band, and to transmit, to the multi-band resonance unit , the fundamental power and a harmonic power, generated during the amplification, that is associated with at least one harmonic band, the at least two source resonators of the multi-band resonance unit include a fundamental resonator that is configured to resonate based on a first resonance bandwidth and transmit the fundamental power to a first target resonator using a first resonance band, and at least one harmonic resonator that is configured to resonate based on a second resonance bandwidth and transmit the harmonic power to a second target resonator using a second resonance band which is different from the first resonance bandwidth; characterized in that the fundamental resonator and/or the harmonic resonator comprise a capacitor and a matcher of which the physical shape can be changed to adjust the impedance of the resonator.
An o-ring gripping end effector , comprising: a housing ; a movable stripping bar mechanically associated with the housing ; a plurality of modules at least partially within the housing , each of the modules comprising: a module head extending at least partially through the movable stripping bar distally from the housing , and comprising at least one retention groove configured to retain an o-ring and at least four jaw fingers that each provide a portion of the at least on retention groove ; at least two interleaved angular jaws , wherein each of the at least two jaws provides at least two of the at least four jaw fingers , and wherein an increase in angle between the at least two jaws effects an expansion of an area bounded by each of the at least four jaw fingers ; wherein the stripping bar is configured to move distally from the housing , and thereby strip an o-ring from the retention groove for placement. a housing ; a movable stripping bar mechanically associated with the housing ; a plurality of modules at least partially within the housing , each of the modules comprising: a module head extending at least partially through the movable stripping bar distally from the housing , and comprising at least one retention groove configured to retain an o-ring and at least four jaw fingers that each provide a portion of the at least on retention groove ; at least two interleaved angular jaws , wherein each of the at least two jaws provides at least two of the at least four jaw fingers , and wherein an increase in angle between the at least two jaws effects an expansion of an area bounded by each of the at least four jaw fingers ; a module head extending at least partially through the movable stripping bar distally from the housing , and comprising at least one retention groove configured to retain an o-ring and at least four jaw fingers that each provide a portion of the at least on retention groove ; at least two interleaved angular jaws , wherein each of the at least two jaws provides at least two of the at least four jaw fingers , and wherein an increase in angle between the at least two jaws effects an expansion of an area bounded by each of the at least four jaw fingers ; wherein the stripping bar is configured to move distally from the housing , and thereby strip an o-ring from the retention groove for placement.