mhurhangee/ep-ind-claims huggingface dataset:
A lighting device comprising: a light source (100A, 100B) including a plurality of light emitting elements; a conversion unit configured to convert light emitted by the light source (100A, 100B); a reflection unit configured to reflect light which passes through the conversion unit; and a half mirror member disposed above the reflection unit and configured to transmit a portion of light and reflect the remaining portion of the light, wherein the conversion unit includes an optical pattern configured to selectively transmit the light emitted by the light source (100A, 100B), wherein the light source (100A, 100b) is disposed at an edge of the reflection unit, and wherein a height of a central portion of the reflection unit is higher than that of the edge. a light source (100A, 100B) including a plurality of light emitting elements; a conversion unit configured to convert light emitted by the light source (100A, 100B); a reflection unit configured to reflect light which passes through the conversion unit; and a half mirror member disposed above the reflection unit and configured to transmit a portion of light and reflect the remaining portion of the light, wherein the conversion unit includes an optical pattern configured to selectively transmit the light emitted by the light source (100A, 100B), wherein the light source (100A, 100b) is disposed at an edge of the reflection unit, and wherein a height of a central portion of the reflection unit is higher than that of the edge.
A compound of formula: Q-Y-R 1 -R 2, wherein: Q is Y is SO 2; R 1 is divalent piperazinyl, which is optionally substituted with one or more substituents selected from the group consisting of halo, hydroxy, mercapto, alkoxy, alkylthio, nitro, cyano, amino, alkyl, hydroxyalkyl, haloalkyl, cyanoalkyl, aminoalkyl, alkylamino, dialkylamino, carboxy, carboxyalkyl, alkylcarbonyl, alkoxycarbonyl, aminocarbonyl, ureido, and formyl; R 2 is aryl or aryloxyalkyl, each of which is optionally substituted with one or more substituents selected from the group consisting of halo, hydroxy, mercapto, alkoxy, alkylthio, nitro, cyano, amino, alkyl, hydroxyalkyl, haloalkyl, cyanoalkyl, aminoalkyl, alkylamino, dialkylamino, carboxy, carboxyalkyl, alkylcarbonyl, alkoxycarbonyl, aminocarbonyl, ureido, and formyl; or a pharmaceutically acceptable salt thereof, for use in treating or preventing malaria in an animal. Q is Y is SO 2; R 1 is divalent piperazinyl, which is optionally substituted with one or more substituents selected from the group consisting of halo, hydroxy, mercapto, alkoxy, alkylthio, nitro, cyano, amino, alkyl, hydroxyalkyl, haloalkyl, cyanoalkyl, aminoalkyl, alkylamino, dialkylamino, carboxy, carboxyalkyl, alkylcarbonyl, alkoxycarbonyl, aminocarbonyl, ureido, and formyl; R 2 is aryl or aryloxyalkyl, each of which is optionally substituted with one or more substituents selected from the group consisting of halo, hydroxy, mercapto, alkoxy, alkylthio, nitro, cyano, amino, alkyl, hydroxyalkyl, haloalkyl, cyanoalkyl, aminoalkyl, alkylamino, dialkylamino, carboxy, carboxyalkyl, alkylcarbonyl, alkoxycarbonyl, aminocarbonyl, ureido, and formyl; or a pharmaceutically acceptable salt thereof, for use in treating or preventing malaria in an animal.
Procedure to commission and/or verify an ultrasonic flow measuring point using an operating unit, wherein the operating unit has at least a display unit and a camera, wherein the ultrasonic flow measuring point has a pipe designed to conduct a medium and at least one ultrasonic transducer (2, 3), wherein said procedure comprises the following steps: - Identification of the ultrasonic flow measuring point in relation to operating unit; - Determination of configurable parameters using the identity of the ultrasonic flow measuring point; - Capturing of geometric data of at least one part of the ultrasonic flow measuring point using the camera; - Analysis of the captured geometric data and derivation of at least one parameter value for at least one of the parameters to be configured on the basis of the analysis result and the identity; - Determination of at least an optimum mounting position using at least the derived parameter value; - Display of at least one optimum mounting position and/or at least the parameter value for at least a parameter to be configured using the display unit; and - Verification of the mounting position of an ultrasonic transducer with one of the optimum mounting positions and/or positioning of an ultrasonic transducer (2, 3) at one of the optimum mounting positions that have been determined. - Identification of the ultrasonic flow measuring point in relation to operating unit; - Determination of configurable parameters using the identity of the ultrasonic flow measuring point; - Capturing of geometric data of at least one part of the ultrasonic flow measuring point using the camera; - Analysis of the captured geometric data and derivation of at least one parameter value for at least one of the parameters to be configured on the basis of the analysis result and the identity; - Determination of at least an optimum mounting position using at least the derived parameter value; - Display of at least one optimum mounting position and/or at least the parameter value for at least a parameter to be configured using the display unit; and - Verification of the mounting position of an ultrasonic transducer with one of the optimum mounting positions and/or positioning of an ultrasonic transducer (2, 3) at one of the optimum mounting positions that have been determined.
A method comprising: illuminating a biological growth plate with a first electromagnetic radiation that is within the visible spectrum; using an imaging device to generate one or more first images of the biological growth plate illuminated with the first electromagnetic radiation; illuminating the biological growth medium with a second electromagnetic radiation having a wavelength between 700 and 1000 nanometers; using an imaging device to generate one or more second images of the biological growth plate illuminated with the second electromagnetic radiation; normalizing spectral reflectance values in the one or more first images based on the one or more second images; identifying microorganism colonies based on the normalized spectral reflectance values; and counting the identified microorganism colonies. illuminating a biological growth plate with a first electromagnetic radiation that is within the visible spectrum; using an imaging device to generate one or more first images of the biological growth plate illuminated with the first electromagnetic radiation; illuminating the biological growth medium with a second electromagnetic radiation having a wavelength between 700 and 1000 nanometers; using an imaging device to generate one or more second images of the biological growth plate illuminated with the second electromagnetic radiation; normalizing spectral reflectance values in the one or more first images based on the one or more second images; identifying microorganism colonies based on the normalized spectral reflectance values; and counting the identified microorganism colonies.
A method for producing a core and/or moulding sand for foundry purposes, according to which a granular mineral base moulding material is mixed with at least one inorganic binding agent and additionally an inorganic aerated additive, characterized in that sodium silicate is used as binding agent and expandable graphite is used as aerated additive, wherein the expandable graphite has a rate of expansion of at most 350 cm 3 /g.
A method of charging a battery, the method comprising: determining an internal state of the battery based on an electrochemical model to which an aging parameter of the battery is applied; determining an aging rate coefficient based on the internal state and the aging parameter; predicting an aging rate of the battery based on modeling a change in the aging rate coefficient according to aging of the battery; comparing the predicted aging rate and a target aging rate; and charging the battery based on one of a current charging limit condition and a new charging limit condition, in response to the comparison. determining an internal state of the battery based on an electrochemical model to which an aging parameter of the battery is applied; determining an aging rate coefficient based on the internal state and the aging parameter; predicting an aging rate of the battery based on modeling a change in the aging rate coefficient according to aging of the battery; comparing the predicted aging rate and a target aging rate; and charging the battery based on one of a current charging limit condition and a new charging limit condition, in response to the comparison.
A Physical Uplink Control Channel (PUCCH) radio resource allocation method, comprising: a radio resource manager grouping code-division resources, and combining time-division resources, frequency-division resources and the grouped code-division resources into a plurality of PUCCH resources according to an optimization order; the radio resource manager arranging the plurality of PUCCH resources according to a generation order of the plurality of PUCCH resources to form a resource pool, and employing an allocation pointer to point to a first PUCCH resource in the resource pool; and when a terminal needs to be allocated with a PUCCH resource, the radio resource manager allocating to the terminal the PUCCH resource to which the allocation pointer currently points, and moving the allocation pointer to point to a next PUCCH resource. a radio resource manager grouping code-division resources, and combining time-division resources, frequency-division resources and the grouped code-division resources into a plurality of PUCCH resources according to an optimization order; the radio resource manager arranging the plurality of PUCCH resources according to a generation order of the plurality of PUCCH resources to form a resource pool, and employing an allocation pointer to point to a first PUCCH resource in the resource pool; and when a terminal needs to be allocated with a PUCCH resource, the radio resource manager allocating to the terminal the PUCCH resource to which the allocation pointer currently points, and moving the allocation pointer to point to a next PUCCH resource.
A method for producing butadiene from n-butenes having the steps: A) providing a feed gas stream a comprising n-butenes; B) feeding the feed gas stream a comprising n-butenes and an oxygen-comprising gas into at least one oxidative dehydrogenation zone and oxidatively dehydrogenating n-butenes to butadiene, wherein a product gas stream b comprising butadiene, unreacted n-butenes, steam, oxygen, low-boiling hydrocarbons, high-boiling minor components, possibly carbon oxides and possibly inert gases is obtained; Ca) cooling the product gas stream b by contacting it with a refrigerant and condensing at least a part of the high-boiling minor components; Cb) compressing the remaining product gas stream b in at least one compression stage, wherein at least one aqueous condensate stream c1 and a gas stream c2 comprising butadiene, n-butenes, steam, oxygen, low-boiling hydrocarbons, possibly carbon oxides and possibly inert gases are obtained; Da) separating off non-condensable and low-boiling gas components comprising oxygen, low-boiling hydrocarbons, possibly carbon oxides and possibly inert gases as gas stream d2 from the gas stream c2 by absorbing the C 4 hydrocarbon-comprising butadiene and n-butenes in an absorbent, wherein an absorbent stream loaded with C 4 hydrocarbons and the gas stream d2 are obtained, and Db) subsequent desorption of the C 4 hydrocarbons from the loaded absorbent stream in a desorption column, wherein a C 4 product gas stream d1 is obtained, wherein a polymerization inhibitor is added in step Db) at the column head of the desorption column. A) providing a feed gas stream a comprising n-butenes; B) feeding the feed gas stream a comprising n-butenes and an oxygen-comprising gas into at least one oxidative dehydrogenation zone and oxidatively dehydrogenating n-butenes to butadiene, wherein a product gas stream b comprising butadiene, unreacted n-butenes, steam, oxygen, low-boiling hydrocarbons, high-boiling minor components, possibly carbon oxides and possibly inert gases is obtained; Ca) cooling the product gas stream b by contacting it with a refrigerant and condensing at least a part of the high-boiling minor components; Cb) compressing the remaining product gas stream b in at least one compression stage, wherein at least one aqueous condensate stream c1 and a gas stream c2 comprising butadiene, n-butenes, steam, oxygen, low-boiling hydrocarbons, possibly carbon oxides and possibly inert gases are obtained; Da) separating off non-condensable and low-boiling gas components comprising oxygen, low-boiling hydrocarbons, possibly carbon oxides and possibly inert gases as gas stream d2 from the gas stream c2 by absorbing the C 4 hydrocarbon-comprising butadiene and n-butenes in an absorbent, wherein an absorbent stream loaded with C 4 hydrocarbons and the gas stream d2 are obtained, and Db) subsequent desorption of the C 4 hydrocarbons from the loaded absorbent stream in a desorption column, wherein a C 4 product gas stream d1 is obtained,
A film for use as a topsheet, the film having a top surface and a bottom surface, the film comprising: a plurality of lands, each of the plurality of lands comprising a first plurality of micro-cells, and each of the first plurality of micro-cells comprising an open-ended tip at the top surface of the film, a first and second valley (622a, 622b) at the bottom surface of the film, and a first and second sidewall (624a, 624b) extending downward from the open-ended tip at the top surface of the film to the respective first and second valleys (622a, 622b) at the bottom surface of the film in a first z-direction; and a plurality of macro-depressions adjacent to at least one respective land of the plurality of lands, each of the plurality of macro-depressions comprising a second plurality of micro-cells therein, and each of the second plurality of micro-cells comprising an open-ended tip at the bottom surface of the film, a first and second valley (622a, 622b) at the top surface of the film, and a first and second sidewall (624a, 624b) extending upward from the open-ended tip at the bottom surface of the film to the respective first and second valleys at the top surface of the film in a second z-direction opposite the first z-direction. a plurality of lands, each of the plurality of lands comprising a first plurality of micro-cells, and each of the first plurality of micro-cells comprising an open-ended tip at the top surface of the film, a first and second valley (622a, 622b) at the bottom surface of the film, and a first and second sidewall (624a, 624b) extending downward from the open-ended tip at the top surface of the film to the respective first and second valleys (622a, 622b) at the bottom surface of the film in a first z-direction; and a plurality of macro-depressions adjacent to at least one respective land of the plurality of lands, each of the plurality of macro-depressions comprising a second plurality of micro-cells therein, and each of the second plurality of micro-cells comprising an open-ended tip at the bottom surface of the film, a first and second valley (622a, 622b) at the top surface of the film, and a first and second sidewall (624a, 624b) extending upward from the open-ended tip at the bottom surface of the film to the respective first and second valleys at the top surface of the film in a second z-direction opposite the first z-direction.
Peptide with the formula: where R1 means an amino acid residue of D-alanine, D-serine, D-threonine, D-methionine, D-leucine, D-asparagine or D-glutamine, whereas R2 means an amino acid residue of phenyloalanine or tryptophan for use as an analgesic drug in the treatment, by peripheral administration, of patients with a weakened blood-brain barrier occurring during disease states accompanied by inflammation, wherein said drug is used in an sub-threshold dose, wherein said sub-threshold dose is analgesic effective in said ill patients and do not induce the effect in healthy patients and it is lower than 1 mg/kg.
An external antenna, adapted to be connected externally to a communication host operating between a reception mode and a transmission mode, the external antenna comprising: a first antenna element, configured to receive a wireless signal when the communication host operates in the reception mode; a second antenna element, configured to transmit the wireless signal when the communication host operates in the transmission mode; a logic determination circuit, coupled to the communication host and configured to determine whether the communication host operates in the reception mode or the transmission mode and generate a determination result; and a switching circuit, coupled to the logic determination circuit and configured to selectively couple to the first antenna element or the second antenna element according to the determination result, wherein the first antenna element and the second antenna element are disposed at opposite ends of the external antenna in an extended direction, and wherein the first antenna element is disposed at an end of the external antenna away from the communication host, and the second antenna element is disposed at the other end of the external antenna near the communication host. a first antenna element, configured to receive a wireless signal when the communication host operates in the reception mode; a second antenna element, configured to transmit the wireless signal when the communication host operates in the transmission mode; a logic determination circuit, coupled to the communication host and configured to determine whether the communication host operates in the reception mode or the transmission mode and generate a determination result; and a switching circuit, coupled to the logic determination circuit and configured to selectively couple to the first antenna element or the second antenna element according to the determination result,
A load carrier for a forklift truck, comprising a front part, a rear part and a tilt device, wherein the front part is adapted to carry at least one fork and the rear part is adapted to be movably arranged on a mast of a forklift truck, wherein the front part is movably attached to the rear part, such that the front part can pivot in relation to the rear part around a pivot axis, and wherein the tilt device comprises a movable component arranged for pivoting the front part, wherein the tilt device further comprises at least one contact member arranged on the movable component, characterized in that the at least one contact member is movably mounted in relation to the movable component and wherein the at least one contact member comprises a flat contact surface.
A method for printing a three-dimensional object (100, 200, 300), the method comprising acts of: positioning the 3D object in a voxel grid; casting a plurality of rays through a model of the 3D object to be printed; for each ray, sorting a plurality of intersections with the 3D object by distance from a cast point of the respective ray; removing all of a plurality of duplicate points of the plurality of intersections; storing in/out state for each of the plurality of intersections; marking a plurality of voxels as safe voxels where wall thickness determined by the plurality of intersections meets or exceeds a minimum wall thickness; determining, for at least a portion of a representation of the 3D object, a ratio of unsafe voxels to a total number of voxels within the at least one portion of the representation of the 3D object; comparing the ratio to a threshold value; and determining that the portion of the representation of the 3D object will not print correctly responsive to the act of comparing. positioning the 3D object in a voxel grid; casting a plurality of rays through a model of the 3D object to be printed; for each ray, sorting a plurality of intersections with the 3D object by distance from a cast point of the respective ray; removing all of a plurality of duplicate points of the plurality of intersections; storing in/out state for each of the plurality of intersections; marking a plurality of voxels as safe voxels where wall thickness determined by the plurality of intersections meets or exceeds a minimum wall thickness; determining, for at least a portion of a representation of the 3D object, a ratio of unsafe voxels to a total number of voxels within the at least one portion of the representation of the 3D object; comparing the ratio to a threshold value; and determining that the portion of the representation of the 3D object will not print correctly responsive to the act of comparing.
A tire in which a groove extending in a tire circumferential direction is formed in a tread part, wherein a projection extending in a direction intersecting the tire circumferential direction is provided at a groove bottom of the groove, the projection includes: a first projection part extending from one groove wall forming the groove toward the other groove wall forming the groove, and terminating short of the other groove wall; and a second projection part extending from the other groove wall toward the one groove wall, and terminating short of the one groove wall, and a terminal part of the first projection part terminating short of the other groove wall is arranged closer to the other groove wall than a terminal part of the second projection part terminating short of the one groove wall making it possible to prevent a gap passing through the projection in the tire circumferential direction from being formed between the one groove wall and the other groove wall, and wherein an angle formed between an extending direction of the first projection part and the tire circumferential direction, and an angle formed between an extending direction of the second projection part and the tire circumferential direction are within a range of 10 to 60 degrees. a first projection part extending from one groove wall forming the groove toward the other groove wall forming the groove, and terminating short of the other groove wall; and a second projection part extending from the other groove wall toward the one groove wall, and terminating short of the one groove wall, and a terminal part of the first projection part terminating short of the other groove wall is arranged closer to the other groove wall than a terminal part of the second projection part terminating short of the one groove wall making it possible to prevent a gap passing through the projection in the tire circumferential direction from being formed between the one groove wall and the other groove wall, and wherein an angle formed between an extending direction of the first projection part and the tire circumferential direction, and an angle formed between an extending direction of the second projection part and the tire circumferential direction are within a range of 10 to 60 degrees.