mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: receiving, at a processor , a first query comprising computer-executable instructions to receive data from at least one data stream source ; selecting a first computing entity of a plurality of computing entities on the basis of both: a measure of load balancing between the plurality of computing entities; and a measure of communications traffic cost between the at least one data stream source and the selected computing entity; wherein the measure of communications traffic cost measures the change in traffic cost at one of the computing entities as a result of a proposed addition of the first query to that computing entity; sending control instructions to the first computing entity to trigger the computing entity to install the first query; receiving, at the processor, a second query; rebalancing the first query and the second query among the plurality of computing entities by determining a second computing entity different from the first computing entity based at least in part on both load balancing and network traffic cost, wherein said rebalancing comprises offline query allocation, and wherein said offline query allocation comprises allocation of queries based on knowledge of the query type; and sending control instructions to the second computing entity to trigger the second computing entity to install the first query. receiving, at a processor , a first query comprising computer-executable instructions to receive data from at least one data stream source ; selecting a first computing entity of a plurality of computing entities on the basis of both: a measure of load balancing between the plurality of computing entities; and a measure of communications traffic cost between the at least one data stream source and the selected computing entity; wherein the measure of communications traffic cost measures the change in traffic cost at one of the computing entities as a result of a proposed addition of the first query to that computing entity; sending control instructions to the first computing entity to trigger the computing entity to install the first query; receiving, at the processor, a second query; rebalancing the first query and the second query among the plurality of computing entities by determining a second computing entity different from the first computing entity based at least in part on both load balancing and network traffic cost, wherein said rebalancing comprises offline query allocation, and wherein said offline query allocation comprises allocation of queries based on knowledge of the query type; and sending control instructions to the second computing entity to trigger the second computing entity to install the first query.
Method for manufacturing a transparent trim part for a motor vehicle, comprising the following steps: a. Providing a thin-walled and three-dimensional trim part base body having a visible side (V) corresponding to its intended purpose and an inner side (R) opposite the visible side (V), wherein the trim part base body is able to be penetrated by light radiation at least in individual regions on account of its material, b. Arranging light sources on the inner side (R) of the trim part base body behind the regions through which radiation can pass, wherein the step of providing light sources is carried out by providing a film contoured corresponding to the inner contour of the three-dimensionally shaped trim part base body , which film is connected to the inner side (R) of the trim part base body , characterised in that electrical conductor tracks and, as light sources , a plurality of light-emitting diodes are arranged on the film , which light-emitting diodes are able to be supplied with current via the conductor tracks , wherein the light-emitting diodes arranged on the film are positioned behind the regions of the trim part base body through which radiation can pass, so that the light which can be emitted by the light-emitting diodes passes through the regions of the trim part base body through which radiation can pass to the outside to the visible side (V). a. Providing a thin-walled and three-dimensional trim part base body having a visible side (V) corresponding to its intended purpose and an inner side (R) opposite the visible side (V), wherein the trim part base body is able to be penetrated by light radiation at least in individual regions on account of its material, b. Arranging light sources on the inner side (R) of the trim part base body behind the regions through which radiation can pass, wherein the step of providing light sources is carried out by providing a film contoured corresponding to the inner contour of the three-dimensionally shaped trim part base body , which film is connected to the inner side (R) of the trim part base body , characterised in that electrical conductor tracks and, as light sources , a plurality of light-emitting diodes are arranged on the film , which light-emitting diodes are able to be supplied with current via the conductor tracks , wherein the light-emitting diodes arranged on the film are positioned behind the regions of the trim part base body through which radiation can pass, so that the light which can be emitted by the light-emitting diodes passes through the regions of the trim part base body through which radiation can pass to the outside to the visible side (V).
A laser radar device (1; 2) comprising: a modulated light generator configured to generate modulated laser light using frequency modulation based on a control parameter; an optical splitter configured to split the modulated laser light into transmission light and local light; an optical system for transmission and reception configured to transmit the transmission light into an external space and receive, as received light, the transmission light reflected by a target existing in the external space; an optical combiner configured to combine the received light and the local light to generate interference light; a photodetector configured to detect the interference light and output an electrical signal; a demodulation circuit configured to demodulate the electrical signal output from the photodetector ; characterized by a frequency-to-voltage converter configured to convert the electrical signal output from the photodetector into a voltage signal having a signal voltage corresponding to a frequency of the electrical signal; a characteristic calculator (32; 32A) configured to measure, as a characteristic value of the voltage signal, a slope indicating a relationship between a frequency sweep time of the frequency modulation and the signal voltage; an evaluator configured to evaluate whether the characteristic value is within an acceptable range corresponding to a demodulation band of the demodulation circuit ; and a parameter setting unit configured to change the control parameter when the evaluator evaluates that the characteristic value is not within the acceptable range. a modulated light generator configured to generate modulated laser light using frequency modulation based on a control parameter; an optical splitter configured to split the modulated laser light into transmission light and local light; an optical system for transmission and reception configured to transmit the transmission light into an external space and receive, as received light, the transmission light reflected by a target existing in the external space; an optical combiner configured to combine the received light and the local light to generate interference light; a photodetector configured to detect the interference light and output an electrical signal; a demodulation circuit configured to demodulate the electrical signal output from the photodetector ; characterized by a frequency-to-voltage converter configured to convert the electrical signal output from the photodetector into a voltage signal having a signal voltage corresponding to a frequency of the electrical signal; a characteristic calculator (32; 32A) configured to measure, as a characteristic value of the voltage signal, a slope indicating a relationship between a frequency sweep time of the frequency modulation and the signal voltage; an evaluator configured to evaluate whether the characteristic value is within an acceptable range corresponding to a demodulation band of the demodulation circuit ; and a parameter setting unit configured to change the control parameter when the evaluator evaluates that the characteristic value is not within the acceptable range.
A method of producing bathroom or kitchen hardware shells, such as a faucet shell, comprising: providing a bar having an outer diameter and a length; heating the bar to a first temperature for a first time; extruding the heated bar to form a hollow blank having a substantially uniform wall thickness; forming a semi-finished blank by closing one end of the hollow blank; bending the semi-finished blank to have an angle between first and second parts of the semi-finished blank; placing the bent semi-finished blank in a bathroom hardware shell shaping die, wherein the bathroom hardware shell shaping die is heated to a second temperature; forming a shell by injecting a gas onto or into the bent semi-finished blank, after closing the bathroom hardware shell shaping die, through a gas inlet in the bathroom hardware shell shaping die at a pressure for a second time, which causes the bent semi-finished blank to fit a cavity of the bathroom hardware shell shaping die; removing the shell from the bathroom hardware shell shaping die and forming a water passage hole, such as a water faucet hole, therein; and plating an outer surface of the shell with a coating. providing a bar having an outer diameter and a length; heating the bar to a first temperature for a first time; extruding the heated bar to form a hollow blank having a substantially uniform wall thickness; forming a semi-finished blank by closing one end of the hollow blank; bending the semi-finished blank to have an angle between first and second parts of the semi-finished blank; placing the bent semi-finished blank in a bathroom hardware shell shaping die, wherein the bathroom hardware shell shaping die is heated to a second temperature; forming a shell by injecting a gas onto or into the bent semi-finished blank, after closing the bathroom hardware shell shaping die, through a gas inlet in the bathroom hardware shell shaping die at a pressure for a second time, which causes the bent semi-finished blank to fit a cavity of the bathroom hardware shell shaping die; removing the shell from the bathroom hardware shell shaping die and forming a water passage hole, such as a water faucet hole, therein; and plating an outer surface of the shell with a coating.
A terminal apparatus for communicating with a base station apparatus via a cell, the terminal apparatus comprising: a reception unit configured to receive first system information broadcasted by using a first subcarrier spacing, the first system information including information of a second subcarrier spacing, and receive second system information broadcasted by using the second subcarrier spacing, the second system information including information of a third subcarrier spacing; and a transmission unit configured to transmit a random access preamble by using the third subcarrier spacing. a reception unit configured to receive first system information broadcasted by using a first subcarrier spacing, the first system information including information of a second subcarrier spacing, and receive second system information broadcasted by using the second subcarrier spacing, the second system information including information of a third subcarrier spacing; and receive first system information broadcasted by using a first subcarrier spacing, the first system information including information of a second subcarrier spacing, and receive second system information broadcasted by using the second subcarrier spacing, the second system information including information of a third subcarrier spacing; and a transmission unit configured to transmit a random access preamble by using the third subcarrier spacing.
A single stranded oligonucleotide having a sequence 5'-X-Y-Z, wherein X is any nucleotide, Y is a nucleotide sequence of 6 nucleotides in length that is not a seed sequence of a human microRNA, and Z is a nucleotide sequence of 1-23 nucleotides in length, wherein the single stranded oligonucleotide is complementary with at least 8 consecutive nucleotides of a PRC2-associated region of a MECP2 gene, wherein the single stranded oligonucleotide activates or enhances expression of MECP2 by relieving or preventing PRC2 mediated repression of MECP2, wherein the single stranded oligonucleotide does not activate the RNAse H pathway, wherein the PRC2-associated region has a sequence set forth in SEQ ID NOs: 5-118, and wherein at least one nucleotide of the oligonucleotide comprises a 2' O-methyl and/or the oligonucleotide comprises phosphorothioate internucleotide linkages between at least two nucleotides.
Conveyor device (200; 300) for conveyor installations for conveying containers, pallets and the like or bulk materials, comprising - a drum tube (202; 302), which extends along a longitudinal axis (204; 304) and has a first end (206; 306) and a second end (208; 308) opposite the first end, and - an electric drive unit , which is designed to exert a conveying torque from a first shaft onto the drum tube, - a drive cartridge , having o a cartridge tube , which is fixed torque-resistantly and coaxially in the drum tube (202; 302), and o a cover , which is rotatably mounted on the first shaft and covers one end of the cartridge tube, wherein the electric drive unit is arranged within the cartridge tube and the cartridge tube is fixed coaxially within the drum tube, characterized in that a torque-resistant connection between the cartridge tube and drum tube (202; 302) has or is formed by an interference fit between the external diameter of the cartridge tube and the internal diameter of the drum tube (202; 302). - a drum tube (202; 302), which extends along a longitudinal axis (204; 304) and has a first end (206; 306) and a second end (208; 308) opposite the first end, and - an electric drive unit , which is designed to exert a conveying torque from a first shaft onto the drum tube, - a drive cartridge , having o a cartridge tube , which is fixed torque-resistantly and coaxially in the drum tube (202; 302), and o a cover , which is rotatably mounted on the first shaft and covers one end of the cartridge tube, wherein the electric drive unit is arranged within the cartridge tube and the cartridge tube is fixed coaxially within the drum tube, o a cartridge tube , which is fixed torque-resistantly and coaxially in the drum tube (202; 302), and o a cover , which is rotatably mounted on the first shaft and covers one end of the cartridge tube,
A computer-implemented method, comprising a local computer system and a central system for: receiving multiple stereoscopic images captured by a stereoscopic camera that is affixed to a forklift, the stereoscopic camera including multiple image sensors that simultaneously capture the multiple stereoscopic images to therewith determine distance to objects portrayed in the multiple stereoscopic images by simulating human binocular vision, wherein the local computer system and/or central system are communicatively coupled to the stereoscopic camera; recognizing an object that is represented in the multiple stereoscopic images by object recognition techniques; identifying a representation of the recognized object in a spatial model maintained on the central system that identifies, for each of a plurality of objects in an environment, a corresponding location of the object in the environment; determining a recorded location of the recognized object in the environment, as indicated by the spatial model maintained on the central system; determining a relative position between the forklift and the recognized object, based on differences in positions of the recognized object in the multiple stereoscopic images simultaneously captured by the stereoscopic camera; and determining a location of the forklift in the environment using computer vision techniques, based on: (i) the recorded location of the recognized object in the environment, and (ii) the determined relative position between the forklift and the recognized object. receiving multiple stereoscopic images captured by a stereoscopic camera that is affixed to a forklift, the stereoscopic camera including multiple image sensors that simultaneously capture the multiple stereoscopic images to therewith determine distance to objects portrayed in the multiple stereoscopic images by simulating human binocular vision, wherein the local computer system and/or central system are communicatively coupled to the stereoscopic camera; recognizing an object that is represented in the multiple stereoscopic images by object recognition techniques; identifying a representation of the recognized object in a spatial model maintained on the central system that identifies, for each of a plurality of objects in an environment, a corresponding location of the object in the environment; determining a recorded location of the recognized object in the environment, as indicated by the spatial model maintained on the central system; determining a relative position between the forklift and the recognized object, based on differences in positions of the recognized object in the multiple stereoscopic images simultaneously captured by the stereoscopic camera; and determining a location of the forklift in the environment using computer vision techniques, based on: (i) the recorded location of the recognized object in the environment, and (ii) the determined relative position between the forklift and the recognized object. (i) the recorded location of the recognized object in the environment, and (ii) the determined relative position between the forklift and the recognized object.
An attraction loading system , comprising: a turntable configured to rotate about a vertical axis ; a ride vehicle configured to travel along a loading path disposed about a perimeter of the turntable , the loading path comprising a main portion and a secondary portion ; a first track switch disposed along the loading path at a first radial position relative to the vertical axis, configured to be disposed in a first position to direct the ride vehicle to the main portion of the loading path from an attraction path , and configured to be disposed in a second position to direct the ride vehicle to the main portion of the loading path from the secondary portion of the loading path ; and a second track switch disposed along the loading path at a second radial position relative to the vertical axis, configured to be disposed in a third position to direct the ride vehicle from the main portion of the loading path to the attraction path , and configured to be disposed in a fourth position to direct the ride vehicle from the main portion of the loading path to the secondary portion of the loading path , wherein the attraction loading system is configured to allow the ride vehicle to travel from the first track switch toward the second track switch along the main portion , and the attraction loading system is configured to allow the ride vehicle to travel from the second track switch to the first track switch along the secondary portion . a turntable configured to rotate about a vertical axis ; a ride vehicle configured to travel along a loading path disposed about a perimeter of the turntable , the loading path comprising a main portion and a secondary portion ; a first track switch disposed along the loading path at a first radial position relative to the vertical axis, configured to be disposed in a first position to direct the ride vehicle to the main portion of the loading path from an attraction path , and configured to be disposed in a second position to direct the ride vehicle to the main portion of the loading path from the secondary portion of the loading path ; and a second track switch disposed along the loading path at a second radial position relative to the vertical axis, configured to be disposed in a third position to direct the ride vehicle from the main portion of the loading path to the attraction path , and configured to be disposed in a fourth position to direct the ride vehicle from the main portion of the loading path to the secondary portion of the loading path , wherein the attraction loading system is configured to allow the ride vehicle to travel from the first track switch toward the second track switch along the main portion , and the attraction loading system is configured to allow the ride vehicle to travel from the second track switch to the first track switch along the secondary portion .
A method for cleaning a sample cell constituted by a cylindrical vessel or vial of a turbidimeter, comprising: introducing an assembly comprising a mechanical cleaning component and a tube providing either a high-pressure wash or a high-vacuum drain into an upper aperture of the sample cell, wherein upon introduction of the assembly into the sample cell a secondary flow path out of the sample cell is opened, whereby the secondary flow path is located at a bottom of the sample cell; engaging a functionality of the assembly to clean the sample cell; and removing retained or accumulated particulates from the sample cell via the secondary flow path. introducing an assembly comprising a mechanical cleaning component and a tube providing either a high-pressure wash or a high-vacuum drain into an upper aperture of the sample cell, wherein upon introduction of the assembly into the sample cell a secondary flow path out of the sample cell is opened, whereby the secondary flow path is located at a bottom of the sample cell; engaging a functionality of the assembly to clean the sample cell; and removing retained or accumulated particulates from the sample cell via the secondary flow path.