mhurhangee/patent-ind-claim-en huggingface dataset:
An installation case for an X-ray generator comprising a case body and a collimator fixedly connected with the case body , the collimator being provided with a beam exit aperture and the case body being provided with a beam exit opening , wherein the installation case for a X-ray generator further comprises a layer or layers of shielding devices provided within the case body , the shielding device is made of a material that can shield X-rays, the collimator and the shielding device are integrally formed, or the collimator and the shielding device are two separate parts and are fixedly connected with each other; each layer of the shielding device is provided with a ray exit aperture , and the ray exit aperture , the beam exit aperture and the beam exit opening are coaxial; between the shielding device and the case body , there is a space which is defined between an outer surface of the shielding device and an inner wall of the case body and in which liquid can flow and parts can be installed; the shielding device is in a cylindrical or prismatic shape and comprises a cylindrical body , a first end cover and a second end cover , wherein the first end cover and the second end cover are fixedly connected with the two end openings of the cylindrical body , respectively, and at least one of the first end cover , the second end cover and the cylindrical body are provided with a fluid channel and a circuit channel , characterized in that at least one of the first end cover , the second end cover and the cylindrical body is in a dual-layer structure that is formed by superimposing an outer plate and an inner plate ; and a liquid flowing cavity is provided between the outer plate and the inner plate , and both of the outer plate and the inner plate are provided with a flow guiding orifice communicating with the liquid flowing cavity , and the fluid channel is constituted by the flow guiding orifices and the liquid flowing cavity , and the orthographic projection of the flow guiding orifice in the outer plate in the axial direction thereof and the flow guiding orifice provided in the inner plate are entirely staggered.
An electronic device , comprising: a housing having a base and having a lid that rotates relative to the base ; a rigid flex printed circuit having a first rigid printed circuit board portion (90-2) in the lid , a second rigid printed circuit board portion (90-4) in the base , and a flexible printed circuit portion (90-3) that extends between the first rigid printed circuit board portion (90-2) and the second rigid printed circuit board portion (90-4); a display in the lid ; and a display timing controller integrated circuit mounted on the second rigid printed circuit board portion (90-4) in the base ; characterized by: a single metal signal line layer that forms part of the first rigid printed circuit board portion (90-2), the second rigid printed circuit board portion (90-4), and the flexible printed circuit board portion (90-3), wherein the single metal signal line layer is in a neutral stress plane of the flexible printed circuit portion that extends between the first rigid printed circuit board portion and the second rigid printed circuit board portion. a housing having a base and having a lid that rotates relative to the base ; a rigid flex printed circuit having a first rigid printed circuit board portion (90-2) in the lid , a second rigid printed circuit board portion (90-4) in the base , and a flexible printed circuit portion (90-3) that extends between the first rigid printed circuit board portion (90-2) and the second rigid printed circuit board portion (90-4); a display in the lid ; and a display timing controller integrated circuit mounted on the second rigid printed circuit board portion (90-4) in the base ; characterized by: a single metal signal line layer that forms part of the first rigid printed circuit board portion (90-2), the second rigid printed circuit board portion (90-4), and the flexible printed circuit board portion (90-3), wherein the single metal signal line layer is in a neutral stress plane of the flexible printed circuit portion that extends between the first rigid printed circuit board portion and the second rigid printed circuit board portion.
A system for determining a change in volume of matter within a container , the system comprising: a sensor ; and a processor configured to: determine the surface area of matter in the container; and determine a change in volume of matter in the container based on the surface area and a distance measured by the sensor, wherein the system is characterised by : the processor being configured to determine an amount of additive to add to the container based on a determined change in volume of matter in the container . a sensor ; and a processor configured to: determine the surface area of matter in the container; and determine a change in volume of matter in the container based on the surface area and a distance measured by the sensor, wherein the system is characterised by : determine the surface area of matter in the container; and determine a change in volume of matter in the container based on the surface area and a distance measured by the sensor, wherein the system is characterised by : the processor being configured to determine an amount of additive to add to the container based on a determined change in volume of matter in the container .
A method for locating at least two sources (S 1 ,..., S n ) emitting electromagnetic pulses, each source (S 1 ,..., S n ) belonging to a carrier platform (P 1 ,..., P n ), the method comprising the following steps: - receiving, by a detector (R), for each source (S 1 ,..., S n ) to be located, during an operating duration of the detector (R), of at least one same emitted pulse, received on the one hand directly and received on the other hand by reflection on the carrier platform of another source (S 1 ,..., S n ), - measuring the arrival direction ( θ 1 ,..., θ n ), the arrival date (t 1 ,..., t n ) and at least one invariant characteristic (C 1 ,..., C n ) of each received pulse, characterized in that the method further comprises the following steps: - grouping together at least a first pair of pulses of invariant characteristics equal to a first invariant characteristic (C 1 ) and of different directions of arrival ( θ 1 , θ 2 ), and at least one second pair of pulses of invariant characteristics equal to a second invariant characteristic (C 2 ) and of same different directions of arrival ( θ 1 , θ 2 ), - calculating the difference of dates of arrival between the pulses of each pair, - determining the direction ( Θ ) and the distance (d) of each source (S 1 ,..., S n ) from the detector (R) based on the calculated differences of dates of arrival ( θ 1 , θ 2 ) of the pulses of each pair. - receiving, by a detector (R), for each source (S 1 ,..., S n ) to be located, during an operating duration of the detector (R), of at least one same emitted pulse, received on the one hand directly and received on the other hand by reflection on the carrier platform of another source (S 1 ,..., S n ), - measuring the arrival direction ( θ 1 ,..., θ n ), the arrival date (t 1 ,..., t n ) and at least one invariant characteristic (C 1 ,..., C n ) of each received pulse, - grouping together at least a first pair of pulses of invariant characteristics equal to a first invariant characteristic (C 1 ) and of different directions of arrival ( θ 1 , θ 2 ), and at least one second pair of pulses of invariant characteristics equal to a second invariant characteristic (C 2 ) and of same different directions of arrival ( θ 1 , θ 2 ), - calculating the difference of dates of arrival between the pulses of each pair, - determining the direction ( Θ ) and the distance (d) of each source (S 1 ,..., S n ) from the detector (R) based on the calculated differences of dates of arrival ( θ 1 , θ 2 ) of the pulses of each pair.
Carbon material comprising particles of hard, non-porous carbon having a spherical morphology, this material having an interlayer distance d 002 greater than 3.6 Å, a total specific surface area, measured by the BET N 2 method, of less than 75 m 2 /g and a total specific surface area, measured by the BET CO2 method, of 1 to 100 m 2 /g, preferably of 1 to 60 m 2 /g.
A computer-implemented method for medical image segmentation, comprising - obtaining a segmentation function , the segmentation function being configured to receive a medical input image and to produce an image segmentation , wherein the segmentation function is a machine learning function which has been trained on multiple training images and corresponding training image segmentations, - obtaining multiple test images and corresponding test image segmentations , - determining a segmentation quality for the multiple test images by comparing the associated test image segmentation with an image segmentation generated by the segmentation function, - selecting a plurality of the test images having a segmentation quality over a threshold, as the multiple atlas images , - obtaining the multiple atlas images, - receiving a medical image , - registering the received image to the multiple atlas images thus obtaining multiple registered images and multiple corresponding registering transformations configured to register the received image on the multiple atlas images, - applying the segmentation function to the multiple registered images thus obtaining multiple registered image segmentations , - applying inverses of the multiple registering transformations to the multiple registered image segmentations thus obtaining multiple image segmentations , - determining an output segmentation from the multiple image segmentations. - obtaining a segmentation function , the segmentation function being configured to receive a medical input image and to produce an image segmentation , wherein the segmentation function is a machine learning function which has been trained on multiple training images and corresponding training image segmentations, - obtaining multiple test images and corresponding test image segmentations , - determining a segmentation quality for the multiple test images by comparing the associated test image segmentation with an image segmentation generated by the segmentation function, - selecting a plurality of the test images having a segmentation quality over a threshold, as the multiple atlas images , - obtaining the multiple atlas images, - receiving a medical image , - registering the received image to the multiple atlas images thus obtaining multiple registered images and multiple corresponding registering transformations configured to register the received image on the multiple atlas images, - applying the segmentation function to the multiple registered images thus obtaining multiple registered image segmentations , - applying inverses of the multiple registering transformations to the multiple registered image segmentations thus obtaining multiple image segmentations , - determining an output segmentation from the multiple image segmentations.
An image projecting device for producing a physiological illusion in a viewing guest , the device comprising: a housing comprising a transparent projection surface ; a strobe light supported by the housing and configured to illuminate the transparent projection surface ; an opaque object interposed between said strobe light and said transparent projection surface, arranged to produce an object silhouette on the transparent projection surface , wherein the object silhouette is an image ; and, a controller configured to activate and set duration of the strobe light at a predetermined time to produce a physiological illusion of the image in the viewing guest , wherein the strobe light is arranged to flash at a speed of at least one flash per three milliseconds, and wherein the predetermined time is when a theme park ride vehicle guiding the viewing guest is at a predetermined position. a housing comprising a transparent projection surface ; a strobe light supported by the housing and configured to illuminate the transparent projection surface ; an opaque object interposed between said strobe light and said transparent projection surface, arranged to produce an object silhouette on the transparent projection surface , wherein the object silhouette is an image ; and, a controller configured to activate and set duration of the strobe light at a predetermined time to produce a physiological illusion of the image in the viewing guest , wherein the strobe light is arranged to flash at a speed of at least one flash per three milliseconds, and wherein the predetermined time is when a theme park ride vehicle guiding the viewing guest is at a predetermined position.
Tyre for vehicle wheels, comprising a belt structure comprising at least one reinforcing layer consisting of a plurality of reinforcing cords, wherein each reinforcing cord of said plurality of reinforcing cords comprises two metal wires and has an overall section area comprised between 0.110 mm 2 and 0.135 mm 2 , characterised in that each reinforcing cord has a Taber stiffness comprised between 20 and 28 TSU, wherein the Taber stiffness is evaluated through a Taber testing device according to the standard BISFA E8.
A system comprising: a system rotor that rotates about a system axis of rotation ; a system stator that is stationary with respect to the system rotor ; at least one conductive contact channel disposed on one of the system rotor and the system stator ; characterized in that the system further comprises at least one capsule slip ring, CSR, coupled to the other of the system rotor and the system stator , the at least one CSR including a CSR stator circumscribing a CSR rotor , the at least one CSR having a conductive annular element rigidly coupled to and rotating with the CSR rotor , the conductive annular element in mechanical contact with the at least one conductive contact channel such that the at least one CSR forms an electrical rotary joint between the system rotor and the system stator . a system rotor that rotates about a system axis of rotation ; a system stator that is stationary with respect to the system rotor ; at least one conductive contact channel disposed on one of the system rotor and the system stator ; characterized in that the system further comprises at least one capsule slip ring, CSR, coupled to the other of the system rotor and the system stator , the at least one CSR including a CSR stator circumscribing a CSR rotor , the at least one CSR having a conductive annular element rigidly coupled to and rotating with the CSR rotor , the conductive annular element in mechanical contact with the at least one conductive contact channel such that the at least one CSR forms an electrical rotary joint between the system rotor and the system stator .
An antagonist of IL-20 cytokines for use in the treatment of acute exacerbation of chronic obstructive pulmonary disease (COPD) in a subject in need thereof wherein - the antagonist of IL-20 cytokine is an anti-IL20R2 antibody, and - the acute exacerbation of COPD is caused by a bacterial infection. - the antagonist of IL-20 cytokine is an anti-IL20R2 antibody, and - the acute exacerbation of COPD is caused by a bacterial infection.
An electronic watch comprising: an enclosure defining an aperture ; a processing element positioned within the enclosure; a crown operably coupled to the processing element and configured to receive a rotational input, the crown comprising: a user-rotatable head ; and a stem coupled to the user-rotatable head and extending into the aperture; and a rotation sensor (210a-d) positioned within the enclosure and operably coupled to the processing element, the rotation sensor configured to detect the rotational input using light reflected from the stem; wherein: the processing element is configured to cause the electronic watch to provide a tactile feedback to the user in response to the detection of the rotational input. an enclosure defining an aperture ; a processing element positioned within the enclosure; a crown operably coupled to the processing element and configured to receive a rotational input, the crown comprising: a user-rotatable head ; and a stem coupled to the user-rotatable head and extending into the aperture; and a user-rotatable head ; and a stem coupled to the user-rotatable head and extending into the aperture; and a rotation sensor (210a-d) positioned within the enclosure and operably coupled to the processing element, the rotation sensor configured to detect the rotational input using light reflected from the stem; wherein: the processing element is configured to cause the electronic watch to provide a tactile feedback to the user in response to the detection of the rotational input.
A hydraulic system comprising a pressure source , an output , and a pressure booster arranged between the pressure source and the output , wherein hydraulic inactivating means are provided inactivating or activating said pressure booster , wherein the inactivating means comprises a valve , which is arranged in a line connecting a booster input and a booster output , characterized in that a hydraulic signal line is connected to the pressure source upstream from said line connecting the booster input and the booster output and to a signal input of said valve , wherein an actuating valve is arranged in the signal line .
A device for separating a substance from a gas, comprising a housing forming an outer shell of the device , at least one filter module , wherein the filter module has at least one filter element held in a frame forming part of the housing , and the frame defines a free surface surrounded by the frame , wherein the device further comprises a suction module with a suction module housing , wherein the suction module and the at least one filter module are arranged one above the other, characterized in that the device further comprises a connection module which has at least one inlet for the contaminated gas and which has a connection module housing which forms part of the housing , so that the housing is formed by the suction module housing , the connection module housing and the frame of the filter module or the frames of the filter modules , wherein the connection module is arranged above the at least one filter module , so that the at least one filter module is arranged between the connection module and the suction module , and the suction module is connected exclusively via the filter module or the plurality of filter modules with the connection module , and wherein the filter element is non-detachably connected to the frame of the filter module or the filter elements are non-detachably connected to the associated frame of the respective filter module , and wherein the filter element completely occupies the free area defined by the frame , so that the gas to be cleaned must flow through the filter element .
A fiber reinforced resin molded article comprising: a fiber reinforced resin layer including a woven fabric made of carbon fiber bundles as a warp and a weft, wherein the fiber reinforced resin molded article is a compression molded article, the fiber reinforced resin molded article has a surface through which a texture of the woven fabric is visible, and the surface has a 30 cm × 30 cm square region where there is no defective portion that always looks different in color nuance from its surroundings when observed to see light reflected on the surface of the woven fabric under fluorescent lighting. a fiber reinforced resin layer including a woven fabric made of carbon fiber bundles as a warp and a weft, wherein the fiber reinforced resin molded article is a compression molded article, the fiber reinforced resin molded article has a surface through which a texture of the woven fabric is visible, and the surface has a 30 cm × 30 cm square region where there is no defective portion that always looks different in color nuance from its surroundings when observed to see light reflected on the surface of the woven fabric under fluorescent lighting.
A halftone raster image for rendering a continuous-tone image, wherein said halftone raster image comprises a plurality of regularly tiled halftone dots wherein a distance between feed points between each neighbouring halftone dots is from 50 μm to 400 μm; and wherein each of said halftone dots comprises (i) image pixels arranged as a first arc or as a plurality of arcs which together represent a first spiral ; and (ii) non-image pixels arranged as a second arc or as a plurality of arcs which together represent a second spiral ; and wherein the outer ends of the first spirals of neighbour halftone dots of said plurality of regularly tiled halftone dots are connected to represent a double spiral or triple spiral. wherein each of said halftone dots comprises (i) image pixels arranged as a first arc or as a plurality of arcs which together represent a first spiral ; and (ii) non-image pixels arranged as a second arc or as a plurality of arcs which together represent a second spiral ; and (i) image pixels arranged as a first arc or as a plurality of arcs which together represent a first spiral ; and (ii) non-image pixels arranged as a second arc or as a plurality of arcs which together represent a second spiral ; and wherein the outer ends of the first spirals of neighbour halftone dots of said plurality of regularly tiled halftone dots are connected to represent a double spiral or triple spiral.
A method, comprising: receiving, by a wireless communication device from a wireless communication node, a higher layer configuration; determining, by the wireless communication device, upper limits for physical downlink control channel, PDCCH, monitoring according to a target number of search spaces, SSs, a target type of search space, at least one target slot, or a time duration; and decoding, by the wireless communication device, at least one PDCCH according to the upper limits, wherein the upper limits for PDCCH monitoring comprise at least one of: a maximum number of PDCCH candidates to be monitored in one or more slots, M-PDCCH, or a maximum number of non-overlapping control channel elements, CCEs, in one or more slots, M-CCE. receiving, by a wireless communication device from a wireless communication node, a higher layer configuration; determining, by the wireless communication device, upper limits for physical downlink control channel, PDCCH, monitoring according to a target number of search spaces, SSs, a target type of search space, at least one target slot, or a time duration; and decoding, by the wireless communication device, at least one PDCCH according to the upper limits, wherein the upper limits for PDCCH monitoring comprise at least one of: a maximum number of PDCCH candidates to be monitored in one or more slots, M-PDCCH, or a maximum number of non-overlapping control channel elements, CCEs, in one or more slots, M-CCE.