mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing method for augmented reality, comprising: acquiring (S110) a target image in response to an image acquiring instruction triggered by a user, wherein the target image comprises a target object; acquiring (S120) an augmented reality model of the target object, and outputting (S120) the augmented reality model in combination with the target object, wherein the augmented reality model comprises a plurality of model units, each model unit is a cube unit, and a plurality of cube units are spliced to form the augmented reality model; acquiring (S130) target audio data selected by the user, and determining (S130) an audio feature with temporal regularity according to the target audio data; driving (S140) the augmented reality model according to the audio feature and a playing progress of the target audio data when outputting the target audio data; wherein driving (S140) the augmented reality model according to the audio feature and the playing progress of the target audio data comprises: driving the model units in the augmented reality model according to the audio feature and the playing progress of the target audio data. acquiring (S110) a target image in response to an image acquiring instruction triggered by a user, wherein the target image comprises a target object; acquiring (S120) an augmented reality model of the target object, and outputting (S120) the augmented reality model in combination with the target object, wherein the augmented reality model comprises a plurality of model units, each model unit is a cube unit, and a plurality of cube units are spliced to form the augmented reality model; acquiring (S130) target audio data selected by the user, and determining (S130) an audio feature with temporal regularity according to the target audio data; driving (S140) the augmented reality model according to the audio feature and a playing progress of the target audio data when outputting the target audio data; wherein driving (S140) the augmented reality model according to the audio feature and the playing progress of the target audio data comprises: driving the model units in the augmented reality model according to the audio feature and the playing progress of the target audio data.
An electronic device, comprising a display module and an optical component, wherein the display module has a light-transmissive hole, the light-transmissive hole is disposed opposite to the optical component, and the display module comprises a light-transmissive cover plate, a first substrate , a second substrate , and a first support column , wherein the second substrate is located between the first substrate and the light-transmissive cover plate, and the second substrate has a first region (B) and a second region (C), wherein the second region (C) is a region, corresponding to a field-of-view range of the optical component, on the second substrate ; wherein the first region (B) is located in the second region (C), and the first region (B) is a region, corresponding to a photosensitive region of the optical component, on the second substrate ; and the first support column is disposed between the first substrate and the second substrate , and at least part of the first support column is located in a third region, wherein the third region is a region other than the first region (B) in the second region (C), and the first support column is not located in the first region (B) to avoid the photosensitive region. the second substrate is located between the first substrate and the light-transmissive cover plate, and the second substrate has a first region (B) and a second region (C), wherein the second region (C) is a region, corresponding to a field-of-view range of the optical component, on the second substrate ; wherein the first region (B) is located in the second region (C), and the first region (B) is a region, corresponding to a photosensitive region of the optical component, on the second substrate ; and the first support column is disposed between the first substrate and the second substrate , and at least part of the first support column is located in a third region, wherein the third region is a region other than the first region (B) in the second region (C), and the first support column is not located in the first region (B) to avoid the photosensitive region.
A method for X-ray detection using a charge-integrating X-ray detector comprising a photodetector array having a plurality of pixels each of which converts incident radiation into accumulated charge during an X-ray exposure, the method comprising the steps of: a) reading out the accumulated charge from each pixel; b) determining an X-ray charge value from the read out accumulated charge; c) replacing the X-ray charge value with a quantized charge value representative of an estimated photon count; and d) repeating, in a non-destructive readout mode, steps a) to c) at a plurality of readout times during an integration time period to generate a corresponding plurality of recorded charge values, each readout time marking an end of one of a plurality of integration time intervals defining the integration time period. a) reading out the accumulated charge from each pixel; b) determining an X-ray charge value from the read out accumulated charge; c) replacing the X-ray charge value with a quantized charge value representative of an estimated photon count; and d) repeating, in a non-destructive readout mode, steps a) to c) at a plurality of readout times during an integration time period to generate a corresponding plurality of recorded charge values, each readout time marking an end of one of a plurality of integration time intervals defining the integration time period.
An optical sensor for detecting objects in a detection area , having at least one transmitter emitting transmitted light beams , at least one receiver receiving received light beams and an evaluation unit for evaluating received signals generated in the receiver , an object detection signal being generated in the evaluation unit if an object is detected within an activated protective field , wherein switching means are provided by means of which a protective field can be activated from a number of protective fields with different protective field configurations and dimensions, wherein different protective field configurations are defined by different properties of objects to be detected and/or by different control variables, so that the function of the optical sensor is changed by an activation of different protective fields, and in that the optical sensor is arranged on a vehicle, characterised in that the speed and/or direction of travel of the vehicle is determined on the basis of sensor signals generated with the optical sensor, automatic protective field switching being effected by means of the switching means as a function of the speed and/or direction of travel of the vehicle. wherein switching means are provided by means of which a protective field can be activated from a number of protective fields with different protective field configurations and dimensions, wherein different protective field configurations are defined by different properties of objects to be detected and/or by different control variables, so that the function of the optical sensor is changed by an activation of different protective fields, and in that the optical sensor is arranged on a vehicle, characterised in that the speed and/or direction of travel of the vehicle is determined on the basis of sensor signals generated with the optical sensor, automatic protective field switching being effected by means of the switching means as a function of the speed and/or direction of travel of the vehicle.
A hinge assembly for use in a household appliance comprising a main body , a door and an eccentric abutment which is fixed to the door , the hinge assembly comprising a hinge which is configured to pivotably support the door about the pivotal axis (z), an eccentric stop which is configured to directly contact the eccentric abutment so as to block pivotal movement of the door at the corresponding angular position, an adjustment mechanism which is configured to selectively allow fixing of the eccentric stop to one of a plurality of angular positions with respect to the pivotal axis (z) of the hinge , and a rotatable support which holds the eccentric stop , wherein the support can be manually rotated in the closing direction (A) of the door so as to adjust the angular position of the eccentric stop , characterized in that the adjustment mechanism further comprises a ratchet which is linked to the rotatable support , wherein the ratchet comprises one fixed toothed face gear and the rotatable support comprises an integral toothed face gear which is configured to coaxially mesh with the fixed toothed face gear about the pivotal axis (z) such that the teeth of the support ride over the teeth of the fixed gear in the closing direction (A) of the door and engage with the teeth of the fixed gear in the opening direction (A') of the door , wherein the teeth are located in correspondence to the plurality of angular positions of the eccentric stop .
A coenzyme Q10 solubilizing composition in which coenzyme Q10 is encapsulated in a micelle comprising glycyrrhizic acid or a salt thereof, a bile acid or a salt thereof, and an unsaturated fatty acid, wherein the unsaturated fatty acid is eicosapentaenoic acid (EPA) or docosahexaenoic acid (DHA).
An arrangement for optically measuring the surface, of a glossy target object , comprising: - a diffusive, semi-transparent illumination structure defining a hollow, -surface shape configured to surround the target object at least partially, the surface being further provided with at least two, pinhole-like apertures , - a number of light sources optically coupled to the illumination structure for illuminating the target object via the surface of the illumination structure, - at least two imaging devices , each configured to image the target object via an aperture of said at least two apertures, and - a control entity configured to instruct said number of light sources to form a sequence of predetermined illumination patterns on the surface of the illumination structure to illuminate the target object with said patterns projected via said surface, to instruct the at least two imaging devices, each configured to image the target object via a dedicated pinhole-type opening, to obtain an image of the target object relative to each illumination pattern, and to derive, through the utilization of said patterns utilized and images obtained, a predetermined surface-related property of the target object. - a diffusive, semi-transparent illumination structure defining a hollow, -surface shape configured to surround the target object at least partially, the surface being further provided with at least two, pinhole-like apertures , - a number of light sources optically coupled to the illumination structure for illuminating the target object via the surface of the illumination structure, - at least two imaging devices , each configured to image the target object via an aperture of said at least two apertures, and - a control entity configured to instruct said number of light sources to form a sequence of predetermined illumination patterns on the surface of the illumination structure to illuminate the target object with said patterns projected via said surface, to instruct the at least two imaging devices, each configured to image the target object via a dedicated pinhole-type opening, to obtain an image of the target object relative to each illumination pattern, and to derive, through the utilization of said patterns utilized and images obtained, a predetermined surface-related property of the target object.
A semiconductor device, comprising: a first integrated circuit, IC, die including a first column of cascade-coupled resource blocks configured to form a pipeline of resource blocks parallel to a first axis; a second IC die including a second column of cascade-coupled resource blocks configured to form a pipeline of resource blocks parallel to the first axis, wherein the second IC die is folded onto the first IC die along an axis perpendicular to the first axis and an active side of the second IC die having second integrated circuitry formed thereon is mounted to an active side of the first IC die having first integrated circuitry formed thereon such that the active side of the first IC die faces the active side of the second IC die to form a three-dimensional die stack essentially as a two-dimensional die folded onto itself along the axis perpendicular to the first axis; and a plurality of electrical connections between the active side of the first IC and the active side of the second IC, the plurality of electrical connections including at least one electrical connection between the pipeline of resource blocks in the first column of cascade-coupled resource blocks and the pipeline of resource blocks in the second column of cascade-coupled resource blocks . a first integrated circuit, IC, die including a first column of cascade-coupled resource blocks configured to form a pipeline of resource blocks parallel to a first axis; a second IC die including a second column of cascade-coupled resource blocks configured to form a pipeline of resource blocks parallel to the first axis, wherein the second IC die is folded onto the first IC die along an axis perpendicular to the first axis and an active side of the second IC die having second integrated circuitry formed thereon is mounted to an active side of the first IC die having first integrated circuitry formed thereon such that the active side of the first IC die faces the active side of the second IC die to form a three-dimensional die stack essentially as a two-dimensional die folded onto itself along the axis perpendicular to the first axis; and a plurality of electrical connections between the active side of the first IC and the active side of the second IC, the plurality of electrical connections including at least one electrical connection between the pipeline of resource blocks in the first column of cascade-coupled resource blocks and the pipeline of resource blocks in the second column of cascade-coupled resource blocks .
A blower comprising: a body having a length (L), as measured between front end and rear end of the blower in a direction of airflow through the blower , wherein the rear end is defined by an air inlet and the front end is defined by an airflow outlet tube , and wherein the air inlet is substantially coaxial with the airflow outlet tube , a fan including a plurality of blades configured to generate airflow through the blower , a handle , wherein the handle includes a gripping surface , where an operator may hold the blower during operation, and an opening associated with the gripping surface of the handle , a battery port configured to receive a battery (B), the battery port being disposed between the rear end of the blower and the handle of the blower , and a center of gravity, characterized in that the battery port is spaced apart from the fan by at least 0.25 length (L), as measured along the direction of airflow through the blower , the blades are spaced apart from the rear end of the blower by at least 0.4 length (L), the fan is disposed downstream of the handle , and is spaced apart from the handle by at least 0.08 length (L), as measured in the direction of airflow, and the center of gravity is located downstream of the handle . a body having a length (L), as measured between front end and rear end of the blower in a direction of airflow through the blower , wherein the rear end is defined by an air inlet and the front end is defined by an airflow outlet tube , and wherein the air inlet is substantially coaxial with the airflow outlet tube , a fan including a plurality of blades configured to generate airflow through the blower , a handle , wherein the handle includes a gripping surface , where an operator may hold the blower during operation, and an opening associated with the gripping surface of the handle , a battery port configured to receive a battery (B), the battery port being disposed between the rear end of the blower and the handle of the blower , and a center of gravity, characterized in that the battery port is spaced apart from the fan by at least 0.25 length (L), as measured along the direction of airflow through the blower , the blades are spaced apart from the rear end of the blower by at least 0.4 length (L), the fan is disposed downstream of the handle , and is spaced apart from the handle by at least 0.08 length (L), as measured in the direction of airflow, and the center of gravity is located downstream of the handle .
A polymer composition comprising a polyolefin (a) and an inorganic filler (b) wherein the polyolefin (a) is obtainable by a high pressure process which process comprises the steps: (i) compressing ethylene under pressure in a compressor, using a compressor lubricant for lubrication, (ii) polymerising ethylene in a polymerisation zone, (iii) separating the obtained polyolefin (a) from the unreacted products and recovering the separated polyolefin (a) in a recovery zone, wherein in step (i) the compressor lubricant comprises a non-mineral oil, wherein the polyolefin (a) is an unsaturated LDPE homopolymer, and comprises C=C groups in total amount of at least 0.2/1000 carbon atoms; and wherein the polymer comprises 10 to 250 ppm of the non-mineral oil. a polyolefin (a) and an inorganic filler (b) wherein the polyolefin (a) is obtainable by a high pressure process which process comprises the steps: (i) compressing ethylene under pressure in a compressor, using a compressor lubricant for lubrication, (ii) polymerising ethylene in a polymerisation zone, (iii) separating the obtained polyolefin (a) from the unreacted products and recovering the separated polyolefin (a) in a recovery zone, (i) compressing ethylene under pressure in a compressor, using a compressor lubricant for lubrication, (ii) polymerising ethylene in a polymerisation zone, (iii) separating the obtained polyolefin (a) from the unreacted products and recovering the separated polyolefin (a) in a recovery zone, wherein in step (i) the compressor lubricant comprises a non-mineral oil, wherein the polyolefin (a) is an unsaturated LDPE homopolymer, and comprises C=C groups in total amount of at least 0.2/1000 carbon atoms; and wherein the polymer comprises 10 to 250 ppm of the non-mineral oil.
A method for detecting a target nucleic acid in a sample, the method comprising: a) immobilizing a target nucleic acid to a discrete region of a solid support, said target nucleic acid comprising a first region and a second region and said discrete region of said solid support comprising a capture probe comprising a target binding region, hybridized to the first region of the nucleic acid to form a thermodynamically stable duplex and providing detectable labeled query probes able to repeatedly hybridize to and dissociate from said second region of said target nucleic acid with a kinetic rate of greater than 0.1 min -1 ; b) counting a plurality of time resolved signal intensity transition events detected within the discrete region, wherein said signal intensity transition events are generated by single events of query probe binding to and dissociation from the target nucleic acid occurring within a given time; and c) detecting the target nucleic acid in the sample when the number of time resolved signal intensity transition events in the discrete region of the solid support is greater than the number of time resolved signal intensity transition events detected in the absence of the target nucleic acid. a) immobilizing a target nucleic acid to a discrete region of a solid support, said target nucleic acid comprising a first region and a second region and said discrete region of said solid support comprising a capture probe comprising a target binding region, hybridized to the first region of the nucleic acid to form a thermodynamically stable duplex and providing detectable labeled query probes able to repeatedly hybridize to and dissociate from said second region of said target nucleic acid with a kinetic rate of greater than 0.1 min -1 ; b) counting a plurality of time resolved signal intensity transition events detected within the discrete region, wherein said signal intensity transition events are generated by single events of query probe binding to and dissociation from the target nucleic acid occurring within a given time; and c) detecting the target nucleic acid in the sample when the number of time resolved signal intensity transition events in the discrete region of the solid support is greater than the number of time resolved signal intensity transition events detected in the absence of the target nucleic acid.
A pneumatic tire comprising: a tread portion being provided with a shoulder block row comprising a plurality of circumferentially arranged shoulder blocks on at least one side of tread edges (Te); the shoulder blocks comprising a first shoulder block and a second shoulder block alternately arranged in a circumferential direction of the tire ; the first shoulder block comprising a first edge defining an axially outermost ground contact edge of its ground contact surface ; and the second shoulder block comprising a second edge defining an axially outermost ground contact edge of its ground contact surface , the second edge being located axially inwardly of the first edge ; characterized in that the first shoulder block is provided with a first lug groove extending axially inwardly from the first edge and terminating within the block ; and the first lug groove comprises an axial portion extending from the first edge along an axial direction of the tire and an inclined portion connected to the axial portion and having an angle (α1) of 10 to 15 degrees with respect to the axial direction of the tire. a tread portion being provided with a shoulder block row comprising a plurality of circumferentially arranged shoulder blocks on at least one side of tread edges (Te); the shoulder blocks comprising a first shoulder block and a second shoulder block alternately arranged in a circumferential direction of the tire ; the first shoulder block comprising a first edge defining an axially outermost ground contact edge of its ground contact surface ; and the second shoulder block comprising a second edge defining an axially outermost ground contact edge of its ground contact surface , the second edge being located axially inwardly of the first edge ; characterized in that the first shoulder block is provided with a first lug groove extending axially inwardly from the first edge and terminating within the block ; and the first lug groove comprises an axial portion extending from the first edge along an axial direction of the tire and an inclined portion connected to the axial portion and having an angle (α1) of 10 to 15 degrees with respect to the axial direction of the tire.