mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a corrective lens for the management of an axial length growth of an eye of a subject, the eye having a pupil, the corrective lens comprising: - a central region having a first power; - a transition region surrounding the central region; - a peripheral region surrounding the transition region, the peripheral region having a second power, corresponding to a power added to the power of the central region and wherein a net power is the addition of the first power and the second power; wherein the second power is being chosen so as to achieve a target net power determined to be efficient to control axial length elongation; wherein a surface area of each one of the central and peripheral regions is chosen as a function of the surface area of the pupil of the eye of the subject; wherein the central and peripheral regions are adapted to treat at least one of myopia and astigmatism; wherein the corrective lens is one of a contact lens and an intraocular lens; characterized in that the transition region has a width at most equal to 1.5 mm and a steep power slope between the power generated in the central region and that generated in the peripheral region, the transition region thus not generating a power that is optically usable by the eye of the subject; wherein the surface area of the pupil of the eye of the subject is determined by measure of the surface area of the pupil in photopic condition, when the subject is looking at distance with uncovered eyes; wherein a surface area of the central region together with the transition region is comprised between about 20% and about 40% of the surface area of the pupil of the eye. - a central region having a first power; - a transition region surrounding the central region; - a peripheral region surrounding the transition region, the peripheral region having a second power, corresponding to a power added to the power of the central region and wherein a net power is the addition of the first power and the second power; wherein the second power is being chosen so as to achieve a target net power determined to be efficient to control axial length elongation; wherein a surface area of each one of the central and peripheral regions is chosen as a function of the surface area of the pupil of the eye of the subject; wherein the central and peripheral regions are adapted to treat at least one of myopia and astigmatism; wherein the corrective lens is one of a contact lens and an intraocular lens; characterized in that the transition region has a width at most equal to 1.5 mm and a steep power slope between the power generated in the central region and that generated in the peripheral region, the transition region thus not generating a power that is optically usable by the eye of the subject; wherein the surface area of the pupil of the eye of the subject is determined by measure of the surface area of the pupil in photopic condition, when the subject is looking at distance with uncovered eyes; wherein a surface area of the central region together with the transition region is comprised between about 20% and about 40% of the surface area of the pupil of the eye.
A power conversion system, comprising: a plurality of power conversion devices whose alternating-current side output paths are connected and that operate in parallel, wherein each of the plurality of power conversion devices includes: a bridge circuit capable of converting input direct-current voltage and outputting alternating-current voltage; a filter circuit that attenuates a high-frequency component of the alternating-current voltage output by the bridge circuit ; and a clamping circuit disposed between the bridge circuit and the filter circuit , and capable of short-circuiting an output side of the bridge circuit , among the plurality of power conversion devices , the bridge circuit and the clamping circuit included in at least one power conversion device are configured to operate in a first mode in which the alternating-current voltage is output to the filter circuit at three or more voltage levels, and the bridge circuit and the clamping circuit included in each remaining power conversion device operate in a second mode in which the alternating-current voltage is output to the filter circuit at two voltage levels, and the clamping circuit includes two switching elements (Q5, Q6) connected in series and oriented in opposite directions. a plurality of power conversion devices whose alternating-current side output paths are connected and that operate in parallel, wherein each of the plurality of power conversion devices includes: a bridge circuit capable of converting input direct-current voltage and outputting alternating-current voltage; a filter circuit that attenuates a high-frequency component of the alternating-current voltage output by the bridge circuit ; and a clamping circuit disposed between the bridge circuit and the filter circuit , and capable of short-circuiting an output side of the bridge circuit , a bridge circuit capable of converting input direct-current voltage and outputting alternating-current voltage; a filter circuit that attenuates a high-frequency component of the alternating-current voltage output by the bridge circuit ; and a clamping circuit disposed between the bridge circuit and the filter circuit , and capable of short-circuiting an output side of the bridge circuit , among the plurality of power conversion devices , the bridge circuit and the clamping circuit included in at least one power conversion device are configured to operate in a first mode in which the alternating-current voltage is output to the filter circuit at three or more voltage levels, and the bridge circuit and the clamping circuit included in each remaining power conversion device operate in a second mode in which the alternating-current voltage is output to the filter circuit at two voltage levels, and the clamping circuit includes two switching elements (Q5, Q6) connected in series and oriented in opposite directions.
A computer-implemented method comprising: receiving, by a computing device , audio data corresponding to an utterance; determining that the audio data includes an utterance of a predefined hotword spoken by a first speaker , a command that follows the hotword , and further audio data that does not include the utterance of the predefined hotword and any command that follows the hotword; analyzing the further audio data , wherein the analyzing comprises: identifying a first portion of the further audio data , 182, 185) that includes speech from the first speaker ; and identifying a second portion of the further audio data that includes speech from a second, different speaker ; and based on determining that the audio data includes an utterance of the predefined hotword spoken by the first speaker , transmitting the first portion of the further audio data that includes speech from the first speaker and suppressing transmission of the second portion of the further audio data that includes speech from the second, different speaker . receiving, by a computing device , audio data corresponding to an utterance; determining that the audio data includes an utterance of a predefined hotword spoken by a first speaker , a command that follows the hotword , and further audio data that does not include the utterance of the predefined hotword and any command that follows the hotword; analyzing the further audio data , wherein the analyzing comprises: identifying a first portion of the further audio data , 182, 185) that includes speech from the first speaker ; and identifying a second portion of the further audio data that includes speech from a second, different speaker ; and identifying a first portion of the further audio data , 182, 185) that includes speech from the first speaker ; and identifying a second portion of the further audio data that includes speech from a second, different speaker ; and based on determining that the audio data includes an utterance of the predefined hotword spoken by the first speaker , transmitting the first portion of the further audio data that includes speech from the first speaker and suppressing transmission of the second portion of the further audio data that includes speech from the second, different speaker .
A progressive former having a bolster and a ram reciprocal towards and away from the bolster , a plurality of workstations evenly spaced across the bolster and ram including aligned tool and die piece holders on the bolster and ram , cylindrical die cases in the tool and die holders on the bolster and cylindrical tool cases in the tool and die holders on the ram , the tool and die cases at the workstations being coaxial, a sideways forming mechanism at one of said workstations , the mechanism including a cam and a cam follower radially outward of the axially projected area of the associated tool and die cases , the cam follower being arranged to be activated by forward motion of the ram towards the bolster , the mechanism including a tool for forming a blank by applying a sideways force on the blank and arranged to pierce opposite sides of a hollow cylindrical wall of the blank to form holes in the wall by shearing out slugs.
A chalcogenide glass material containing, in terms of % by mole, 40 to 95% Te and having an antireflection film formed thereon, wherein the antireflection film comprises a low-refractive index layer and a high-refractive index layer stacked alternately one on top of another in a total of two or more layers, and the material of the outermost layer of the antireflection film is at least one material selected from the group consisting of a metal oxide, hydrogenated carbon, diamond-like carbon. wherein the antireflection film comprises a low-refractive index layer and a high-refractive index layer stacked alternately one on top of another in a total of two or more layers, and the material of the outermost layer of the antireflection film is at least one material selected from the group consisting of a metal oxide, hydrogenated carbon, diamond-like carbon.
An information processing apparatus comprising: an analysis unit that analyzes, as at least input information, an image in which vegetation corresponding to a target of management is captured; and a determination unit that determines work contents to be performed for the vegetation, according to an analysis result output from the analysis unit; wherein the analysis unit outputs, as the analysis result, a vegetation index associated with grass that is the vegetation; characterised in that the vegetation index includes a grass damage ratio that is calculated, for each of divisional regions that are plural divisions of a grass surface, as a ratio of an integrated value of periods in which a detection target stays in the corresponding divisional region to a total period of a moving image in which the grass surface is captured. an analysis unit that analyzes, as at least input information, an image in which vegetation corresponding to a target of management is captured; and a determination unit that determines work contents to be performed for the vegetation, according to an analysis result output from the analysis unit;
A lockout device for a gearbox , comprising: a housing comprising a hole therethrough and configured to be fixedly coupled to the gearbox ; a shaft detachably coupled to the housing and configured to pass through the hole, the shaft comprising a plurality of teeth at one end and a receiving slot on a distal end, the plurality of teeth configured to engage a portion of a drive train within the gearbox and transmit rotation from the shaft to the drive train; an inner collar configured to sit around the shaft and at least partially between the shaft and the housing, characterized by the inner collar comprising a plurality of threadless holes; and an outer collar configured to sit around the shaft and at least partially between the inner collar and the housing, the outer collar comprising a plurality of threaded holes configured to receive a plurality of bolts passing through the plurality of threadless holes, wherein rotation of the plurality of bolts can adjust the relative position of the inner collar and the outer collar, wherein as the inner collar and the outer collar are pulled closer together the inner collar is pushed against the shaft and restricts a displacement of the shaft within the hole. a housing comprising a hole therethrough and configured to be fixedly coupled to the gearbox ; a shaft detachably coupled to the housing and configured to pass through the hole, the shaft comprising a plurality of teeth at one end and a receiving slot on a distal end, the plurality of teeth configured to engage a portion of a drive train within the gearbox and transmit rotation from the shaft to the drive train; an inner collar configured to sit around the shaft and at least partially between the shaft and the housing, characterized by the inner collar comprising a plurality of threadless holes; and an outer collar configured to sit around the shaft and at least partially between the inner collar and the housing, the outer collar comprising a plurality of threaded holes configured to receive a plurality of bolts passing through the plurality of threadless holes, wherein rotation of the plurality of bolts can adjust the relative position of the inner collar and the outer collar, wherein as the inner collar and the outer collar are pulled closer together the inner collar is pushed against the shaft and restricts a displacement of the shaft within the hole.
A power semiconductor device, comprising: an aluminum nitride single crystalline substrate, wherein the dislocation density of the substrate is less than 10 5 cm -2 and the Full Width Half Maximum (FWHM) of the double axis rocking curve for the and crystallographic planes is less than 200 arcsec; and a power semiconductor structure comprising a plurality of epitaxial doped Al x Ga 1-x N layers overlying the aluminum nitride single crystalline substrate; wherein the power semiconductor structure is in the form of a Schottky diode comprising a relatively lightly doped N-type drift region comprising one or more epitaxial Al x Ga 1-x N layers adjacent to a relatively heavily doped N+ region comprising one or more epitaxial Al x Ga 1-x N layers; wherein at least one layer of doped Al x Ga 1-x N has a value for x greater than 0.7; wherein the dislocation density of each epitaxial layer is essentially identical to the dislocation density of the substrate; and wherein the device is characterized by a breakdown field of at least 5 MV/cm. an aluminum nitride single crystalline substrate, wherein the dislocation density of the substrate is less than 10 5 cm -2 and the Full Width Half Maximum (FWHM) of the double axis rocking curve for the and crystallographic planes is less than 200 arcsec; and a power semiconductor structure comprising a plurality of epitaxial doped Al x Ga 1-x N layers overlying the aluminum nitride single crystalline substrate;
A traffic monitoring method, comprising: acquiring (S201, S301, S401, S501) vehicle state information collected by a terminal device, wherein the terminal device is at least one of an unmanned vehicle and an unmanned aerial vehicle, and the vehicle state information comprises at least one of the following: a vehicle image collected by the unmanned vehicle and a vehicle image collected by the unmanned aerial vehicle; acquiring (S502) characteristic information of a target vehicle, wherein the target vehicle comprises a vehicle on road with a specific number plate and/or a specific appearance characteristic that need to be focused on, and the characteristic information of the target vehicle comprises at least one of the following: number plate information and appearance characteristic information; detecting characteristic information of a first vehicle on a road according to a first vehicle image collected by the unmanned vehicle and/or the unmanned aerial vehicle; determining the first vehicle as the target vehicle if the characteristic information of the first vehicle matches the characteristic information of the target vehicle, to identify a target vehicle on road event; acquiring (S504) map data from a map server; and determining (S504) a driving trajectory of the target vehicle according to a location at where the target vehicle appears and the map data. acquiring (S201, S301, S401, S501) vehicle state information collected by a terminal device, wherein the terminal device is at least one of an unmanned vehicle and an unmanned aerial vehicle, and the vehicle state information comprises at least one of the following: a vehicle image collected by the unmanned vehicle and a vehicle image collected by the unmanned aerial vehicle; acquiring (S502) characteristic information of a target vehicle, wherein the target vehicle comprises a vehicle on road with a specific number plate and/or a specific appearance characteristic that need to be focused on, and the characteristic information of the target vehicle comprises at least one of the following: number plate information and appearance characteristic information; detecting characteristic information of a first vehicle on a road according to a first vehicle image collected by the unmanned vehicle and/or the unmanned aerial vehicle; determining the first vehicle as the target vehicle if the characteristic information of the first vehicle matches the characteristic information of the target vehicle, to identify a target vehicle on road event; acquiring (S504) map data from a map server; and determining (S504) a driving trajectory of the target vehicle according to a location at where the target vehicle appears and the map data.
A vehicle comprising: one or more wheels positioned at a bottom side of the vehicle; a first light detection and ranging device, LIDAR, positioned at a top side of the vehicle opposite to the bottom side, wherein the first LIDAR is configured to scan an environment around the vehicle based on rotation of the first LIDAR about an axis, and wherein the first LIDAR has a first resolution; a second LIDAR configured to scan a field-of-view, FOV, of the environment that extends away from the vehicle along a viewing direction of the second LIDAR, wherein the second LIDAR has a second resolution; and a controller configured to operate the vehicle based on the scans of the environment by the first LIDAR and the second LIDAR, wherein the controller is configured to adjust the viewing direction of the second LIDAR based on data received from the first LIDAR, wherein the controller is configured to determine a region of interest in the environment based on the data received from the first LIDAR and wherein the viewing direction of the second LIDAR is adjusted such that the second LIDAR scans the region of interest; wherein: (i) the second resolution is greater than the first resolution, (ii) a range of the second LIDAR is greater than a range of the first LIDAR, and/or (iii) the second LIDAR has a lower refresh rate than the first LIDAR. one or more wheels positioned at a bottom side of the vehicle; a first light detection and ranging device, LIDAR, positioned at a top side of the vehicle opposite to the bottom side, wherein the first LIDAR is configured to scan an environment around the vehicle based on rotation of the first LIDAR about an axis, and wherein the first LIDAR has a first resolution; a second LIDAR configured to scan a field-of-view, FOV, of the environment that extends away from the vehicle along a viewing direction of the second LIDAR, wherein the second LIDAR has a second resolution; and a controller configured to operate the vehicle based on the scans of the environment by the first LIDAR and the second LIDAR, wherein the controller is configured to adjust the viewing direction of the second LIDAR based on data received from the first LIDAR, wherein the controller is configured to determine a region of interest in the environment based on the data received from the first LIDAR and wherein the viewing direction of the second LIDAR is adjusted such that the second LIDAR scans the region of interest; wherein: (i) the second resolution is greater than the first resolution, (ii) a range of the second LIDAR is greater than a range of the first LIDAR, and/or (iii) the second LIDAR has a lower refresh rate than the first LIDAR.
A combined inverter, comprising: at least two separate box bodies connected detachably, wherein the combined inverter comprises an inverter unit, a filtering unit, a control unit, a converging unit, a booster unit, a communication unit, and a switch fitting, which are respectively placed in the at least two separate box bodies , at least one electrical connection terminal is configured to be arranged outside each of the at least two separate box bodies , and the electrical connection terminal of one of the at least two separate box bodies is configured to be capable of being connected to the electrical connection terminal of another of the at least two separate box bodies , and a connector , wherein the at least two separate box bodies are configured to be connected detachably via the connector , wherein the connector is configured to be provided with a clamping plate extended in a direction, the at least two separate box bodies are configured to be provided with clamping grooves respectively, the box bodies are configured to be arranged side by side when the clamping grooves are clamped with the clamping plate .
A compound of Formula IIa′′′ or Formula IIc′′′: which may be optionally substituted with groups independently selected from deuterium, -NH 2 , amino {such as-NH(C 1 -C 5 ), -N(C 1 -C 5 ) 2 , -NHPh, -NHBn, -NHpyridyl, -NHheterocycle(C 4 -C 6 ), -NHcarbocycle(C 4 -C 6 ), heterocycle(C 4 -C 6 ), carbocycle(C 4 -C 6 ), halogen, -CN, -OH, -CF 3 , alkyl(C 1 -C 6 ), thioalkyl(C 1 -C 6 ), alkenyl(C 1 -C 6 ), and alkoxy(C 1 -C 6 ); or a stereoisomer, tautomer, pharmaceutically acceptable salt, or hydrate thereof, wherein Z , if present, is selected from hydrogen, deuterium, -NH 2 , amino, alkyl(C 1 -C 6 ), thioalkyl(C 1 -C 6 ), alkenyl(C 1 -C 6 ), and alkoxy(C 1 -C 6 ); D 1 is X is selected from -CH 2 - and -CH(CH 3 )-; and R 4 is a phenyl ring optionally substituted with groups independently selected from deuterium, alkyl(C 1 -C 4 ), alkoxy(C 1 -C 4 ), halogen, -CF 3 , CN, and -thioalkyl(C 1 -C 4 ), wherein each alkyl, alkoxy, and thioalkyl may be optionally substituted with F, Cl, or Br. which may be optionally substituted with groups independently selected from deuterium, -NH 2 , amino {such as-NH(C 1 -C 5 ), -N(C 1 -C 5 ) 2 , -NHPh, -NHBn, -NHpyridyl, -NHheterocycle(C 4 -C 6 ), -NHcarbocycle(C 4 -C 6 ), heterocycle(C 4 -C 6 ), carbocycle(C 4 -C 6 ), halogen, -CN, -OH, -CF 3 , alkyl(C 1 -C 6 ), thioalkyl(C 1 -C 6 ), alkenyl(C 1 -C 6 ), and alkoxy(C 1 -C 6 ); or a stereoisomer, tautomer, pharmaceutically acceptable salt, or hydrate thereof, wherein Z , if present, is selected from hydrogen, deuterium, -NH 2 , amino, alkyl(C 1 -C 6 ), thioalkyl(C 1 -C 6 ), alkenyl(C 1 -C 6 ), and alkoxy(C 1 -C 6 ); D 1 is X is selected from -CH 2 - and -CH(CH 3 )-; and R 4 is a phenyl ring optionally substituted with groups independently selected from deuterium, alkyl(C 1 -C 4 ), alkoxy(C 1 -C 4 ), halogen, -CF 3 , CN, and -thioalkyl(C 1 -C 4 ), wherein each alkyl, alkoxy, and thioalkyl may be optionally substituted with F, Cl, or Br.