mhurhangee/patent-ind-claim-en huggingface dataset:
An anodising apparatus for selectively anodizing at least a portion of a surface of a component , the anodising apparatus comprising: a fluid reservoir containing a fluid ; a conductive element submerged in the fluid within the fluid reservoir ; a conformable wicking element supported on the conductive element such that the conformable wicking element is at least partially immersed in the fluid , wherein the conformable wicking element is at least partially disposed in between the component and the conductive element , and wherein the conformable wicking element comprises a porous material having pore sizes between 5 μm and 100 μm for absorbing fluid from the fluid reservoir , the conformable wicking element comprising a resilient material such that the conformable wicking element is conformable to at least the said portion of the surface of the component , wherein, upon bringing the component into contact with the conformable wicking element , the conformable wicking element conforms to the portion of the surface of the component and the fluid completes an electric circuit between the component and the conductive element , the anodising apparatus being configured to grow an anodised layer on the said portion of the surface of the component that is in contact with the conformable wicking element when an electric current is supplied to the electric circuit between the conductive element and the component , wherein the anodising apparatus comprises a direct current source, and wherein the conductive element is connected to the negative terminal of the direct current source. a fluid reservoir containing a fluid ; a conductive element submerged in the fluid within the fluid reservoir ; a conformable wicking element supported on the conductive element such that the conformable wicking element is at least partially immersed in the fluid , wherein the conformable wicking element is at least partially disposed in between the component and the conductive element , and wherein the conformable wicking element comprises a porous material having pore sizes between 5 μm and 100 μm for absorbing fluid from the fluid reservoir , the conformable wicking element comprising a resilient material such that the conformable wicking element is conformable to at least the said portion of the surface of the component , wherein, upon bringing the component into contact with the conformable wicking element , the conformable wicking element conforms to the portion of the surface of the component and the fluid completes an electric circuit between the component and the conductive element , the anodising apparatus being configured to grow an anodised layer on the said portion of the surface of the component that is in contact with the conformable wicking element when an electric current is supplied to the electric circuit between the conductive element and the component , wherein the anodising apparatus comprises a direct current source, and wherein the conductive element is connected to the negative terminal of the direct current source.
Pharmaceutically active composition in a pharmaceutical peroral dosage form, which contains at least one of the active substances indometacin or acemetacin and optionally further additives, characterized in that : (i) this composition contains the active substance, or a mixture of these active substances, in micronized form, this micronized form being obtained through micronization by mechanical means; (ii) at least 90 vol.% of the micronized active substance has an average particle size distribution of less than 25 μm (microns) and the lower limit of the particle size distribution is 0.1 μm (microns); (iii) this micronized active substance is in the form of microcrystals; and (iv) this composition contains the active substance or the active substances in a mixture with at least one flavonoid derivative selected from the group including chalcone glycosides and dihydrochalcone glycosides. (i) this composition contains the active substance, or a mixture of these active substances, in micronized form, this micronized form being obtained through micronization by mechanical means; (ii) at least 90 vol.% of the micronized active substance has an average particle size distribution of less than 25 μm (microns) and the lower limit of the particle size distribution is 0.1 μm (microns); (iii) this micronized active substance is in the form of microcrystals; and (iv) this composition contains the active substance or the active substances in a mixture with at least one flavonoid derivative selected from the group including chalcone glycosides and dihydrochalcone glycosides.
A method of analyzing nucleic acids while maintaining structural context, the method comprising: (a) providing a formalin-fixed paraffin embedded sample comprising nucleic acids, wherein the nucleic acids comprise three dimensional structures; (b) separating portions of the sample into discrete partitions such that portions of the nucleic acid three dimensional structures are also separated into the discrete partitions; (c) obtaining sequence information from the nucleic acids, thereby analyzing nucleic acids while maintaining structural context, wherein the sequence information from nucleic acids within a given discrete partition provides information on interchromosomal interactions between genomic loci. (a) providing a formalin-fixed paraffin embedded sample comprising nucleic acids, wherein the nucleic acids comprise three dimensional structures; (b) separating portions of the sample into discrete partitions such that portions of the nucleic acid three dimensional structures are also separated into the discrete partitions; (c) obtaining sequence information from the nucleic acids, thereby analyzing nucleic acids while maintaining structural context, wherein the sequence information from nucleic acids within a given discrete partition provides information on interchromosomal interactions between genomic loci.
A permanent magnet motor pump for improving the structure stiffness of a stationary shaft and comprising a monitor device and multiple main magnets , wherein the monitor device comprises multiple second magnets and a monitor set , the number of the second magnets is the same as that of the main magnets , the second magnets are assembled at one end of the inner side of a rotor yoke of an inner rotor in the vicinity of the bottom side of a containment shell and the magnetic pole direction of the second magnets is different from the main magnets ; the axial length of the second magnets is at least more than twice as great as the length of an axial movement including the axial wear of a bearing of the inner rotor , the monitor device is characterized in that : the second magnets are encapsulated with the main magnets to be prevented from being corroded by a corrosive fluid, the magnetic flux line forms a secondary magnetic loop which coexists with the main magnetic loop in the rotor yoke ; and the monitor set comprises a secondary yoke and multiple monitor elements, the monitor elements are installed on a surface of the ring-shaped secondary yoke with ferromagnetic material and are encapsulated into a component with an isolating material; the inner side of the secondary yoke is fixed with an outer-diameter surface of a monitoring shaft metal rear support or a monitoring composited shaft metal rear support ; a magnet alignment point is installed on a rear end of the secondary yoke and connected to an axis alignment point of the monitoring shaft metal rear support or the monitoring composited shaft metal rear support and a magnet alignment point of a winding stator of a stator ; two axial ends of the second magnets do not exceed the axial ranges of the secondary yoke . the second magnets are encapsulated with the main magnets to be prevented from being corroded by a corrosive fluid, the magnetic flux line forms a secondary magnetic loop which coexists with the main magnetic loop in the rotor yoke ; and the monitor set comprises a secondary yoke and multiple monitor elements, the monitor elements are installed on a surface of the ring-shaped secondary yoke with ferromagnetic material and are encapsulated into a component with an isolating material; the inner side of the secondary yoke is fixed with an outer-diameter surface of a monitoring shaft metal rear support or a monitoring composited shaft metal rear support ; a magnet alignment point is installed on a rear end of the secondary yoke and connected to an axis alignment point of the monitoring shaft metal rear support or the monitoring composited shaft metal rear support and a magnet alignment point of a winding stator of a stator ; two axial ends of the second magnets do not exceed the axial ranges of the secondary yoke .
A method implemented in a first user equipment, UE , the method characterised by : sending (S126) a message over PC5, the message including a Uu-status parameter, the Uu-status parameter indicating a request for Uu status information.
A method for manufacturing a plurality of light emitting elements, the method comprising: providing a semiconductor wafer comprising: a substrate , an n-side nitride semiconductor layer containing an n-type impurity and located on the substrate , and a p-side nitride semiconductor layer containing a p-type impurity and located on the n-side nitride semiconductor layer ; forming a protective layer on an upper face of the p-side nitride semiconductor layer in regions that include each of the borders of areas to become the plurality of light emitting elements; reducing an electrical resistance of the p-side nitride semiconductor layer in areas where no protective layer has been formed while allowing the p-side nitride semiconductor layer in areas where the protective layer is formed to retain its high resistance by annealing the semiconductor wafer; irradiating a laser beam on the substrate so as to form modified regions in the substrate serving as a starting point when dividing the semiconductor wafer; and obtaining a plurality of light emitting elements by dividing the semiconductor wafer in which the modified regions have been formed in the substrate . providing a semiconductor wafer comprising: a substrate , an n-side nitride semiconductor layer containing an n-type impurity and located on the substrate , and a p-side nitride semiconductor layer containing a p-type impurity and located on the n-side nitride semiconductor layer ; a substrate , an n-side nitride semiconductor layer containing an n-type impurity and located on the substrate , and a p-side nitride semiconductor layer containing a p-type impurity and located on the n-side nitride semiconductor layer ; forming a protective layer on an upper face of the p-side nitride semiconductor layer in regions that include each of the borders of areas to become the plurality of light emitting elements; reducing an electrical resistance of the p-side nitride semiconductor layer in areas where no protective layer has been formed while allowing the p-side nitride semiconductor layer in areas where the protective layer is formed to retain its high resistance by annealing the semiconductor wafer; irradiating a laser beam on the substrate so as to form modified regions in the substrate serving as a starting point when dividing the semiconductor wafer; and obtaining a plurality of light emitting elements by dividing the semiconductor wafer in which the modified regions have been formed in the substrate .
A glass-based article comprising: a first surface having an edge , wherein a maximum optical retardation of the first surface is at the edge and the maximum optical retardation is less than or equal to 40 nm, and wherein the optical retardation decreases from the edge toward a central region of the first surface , the central region having a boundary defined by a distance from the edge toward a center point of the first surface , wherein the distance is 1⁄2 of the shortest distance from the edge to the center point, wherein the optical retardation is measured according to ASTM F218-13, wherein: (i) the edge of the first surface is under compressive stress and wherein the center point of the first surface is under tension, or (ii) wherein the edge of the first surface is under tension and wherein the center point of the first surface is under compressive stress. a first surface having an edge , wherein a maximum optical retardation of the first surface is at the edge and the maximum optical retardation is less than or equal to 40 nm, and wherein the optical retardation decreases from the edge toward a central region of the first surface , the central region having a boundary defined by a distance from the edge toward a center point of the first surface , wherein the distance is 1⁄2 of the shortest distance from the edge to the center point, wherein the optical retardation is measured according to ASTM F218-13, wherein: (i) the edge of the first surface is under compressive stress and wherein the center point of the first surface is under tension, or (ii) wherein the edge of the first surface is under tension and wherein the center point of the first surface is under compressive stress. (i) the edge of the first surface is under compressive stress and wherein the center point of the first surface is under tension, or (ii) wherein the edge of the first surface is under tension and wherein the center point of the first surface is under compressive stress.
A method for reusing an ink cartridge characterized by , detecting (S110) each of a plurality of heating elements in the ink cartridge, wherein the plurality of heating elements is located on both sides of nozzles of the ink cartridge; determining (S120) at least one of the plurality of heating elements, which is incompatible with a printer, as a target heating element according to a detecting result; and burning (S130) out the target heating element. detecting (S110) each of a plurality of heating elements in the ink cartridge, wherein the plurality of heating elements is located on both sides of nozzles of the ink cartridge; determining (S120) at least one of the plurality of heating elements, which is incompatible with a printer, as a target heating element according to a detecting result; and burning (S130) out the target heating element.
A camera apparatus, comprising: a camera module ; a rotating shaft fixedly connected to the camera module , wherein a first gear is fixed at one end, away from the camera module , of the rotating shaft ; a transmission component fixed on the rotating shaft and abutting against the camera module ; a screw rod rotatably connected to the transmission component , wherein a second gear is fixed on the screw rod , and the screw rod is arranged in parallel with the rotating shaft ; and a control mechanism connected to the screw rod , wherein the control mechanism is configured to drive the screw rod to rotate, the screw rod is configured to rotate to drive the transmission component to move in a central axis direction of the rotating shaft , and when the transmission component moves to a predetermined position, the first gear meshes with the second gear to drive the camera module to rotate. a camera module ; a rotating shaft fixedly connected to the camera module , wherein a first gear is fixed at one end, away from the camera module , of the rotating shaft ; a transmission component fixed on the rotating shaft and abutting against the camera module ; a screw rod rotatably connected to the transmission component , wherein a second gear is fixed on the screw rod , and the screw rod is arranged in parallel with the rotating shaft ; and a control mechanism connected to the screw rod , wherein the control mechanism is configured to drive the screw rod to rotate, the screw rod is configured to rotate to drive the transmission component to move in a central axis direction of the rotating shaft , and when the transmission component moves to a predetermined position, the first gear meshes with the second gear to drive the camera module to rotate.
A jet-range hydrocarbon product comprising: a mixture of paraffins, wherein the mixture exhibits a freeze point of less than or equal to -70°C, a 95% distillation point of greater than or equal to 275°C, and a smooth boiling point curve that is characterized as having no intervals of the boiling point curve having a slope that is steeper than 4°C / mass% as defined by ASTM standard D2887 between mass recovered ranges of 20% to 80%, wherein the steepness of the boiling point curve slope is calculated over any 10 mass% increments within the specified mass% ranges. a mixture of paraffins, wherein the mixture exhibits a freeze point of less than or equal to -70°C, a 95% distillation point of greater than or equal to 275°C, and a smooth boiling point curve that is characterized as having no intervals of the boiling point curve having a slope that is steeper than 4°C / mass% as defined by ASTM standard D2887 between mass recovered ranges of 20% to 80%, wherein the steepness of the boiling point curve slope is calculated over any 10 mass% increments within the specified mass% ranges.
A method, implemented by a computer, for viewpoint selection assistance in free viewpoint video generation, the method comprising: executing, by a processor of the computer, acquisition processing (S102) that includes acquiring three-dimensional information with respect to a subject on a field by using a plurality of cameras placed around the field; executing, by the processor of the computer, first identification processing (S103) that includes identifying a path of a ball for a predetermined period based on the three-dimensional information; executing, by the processor of the computer, second identification processing (S105) that includes identifying at least one player located within a predetermined distance from a position of the ball for a predetermined duration of time or longer in the predetermined period; executing, by the processor of the computer, setting processing (S107) that includes setting, as a video output range, a range containing both of the path of the ball and a path of the at least one player; and executing, by the processor of the computer, generation processing (S109) that includes generating video for the range set by the setting processing, characterized in that the setting processing includes setting a spherical surface (S108) which contains the range thus set and has a center of mass of the range as a center of the spherical surface, and outputting a screen for receiving positioning of a viewpoint on the spherical surface. executing, by a processor of the computer, acquisition processing (S102) that includes acquiring three-dimensional information with respect to a subject on a field by using a plurality of cameras placed around the field; executing, by the processor of the computer, first identification processing (S103) that includes identifying a path of a ball for a predetermined period based on the three-dimensional information; executing, by the processor of the computer, second identification processing (S105) that includes identifying at least one player located within a predetermined distance from a position of the ball for a predetermined duration of time or longer in the predetermined period; executing, by the processor of the computer, setting processing (S107) that includes setting, as a video output range, a range containing both of the path of the ball and a path of the at least one player; and executing, by the processor of the computer, generation processing (S109) that includes generating video for the range set by the setting processing, characterized in that the setting processing includes setting a spherical surface (S108) which contains the range thus set and has a center of mass of the range as a center of the spherical surface, and outputting a screen for receiving positioning of a viewpoint on the spherical surface.
A system for reading information from a meter and transmitting the information to a server , the system comprising: a meter configured to estimate an amount of a product delivered by an utility throughout the meter, wherein the meter includes an optical communication device ; a coupling device attached to a face of the meter , wherein the coupling device comprises a metallic plate attached to the face of the meter, the metallic plate having a slot that allows the optical communication device of the meter to freely exchange an infrared beam with an optical meter reader apparatus, wherein the metallic plate has first and second blocks that can fit inside first and second slots of the optical meter reader apparatus; and the optical meter reader apparatus for reading the information from the meter , wherein the optical meter reader apparatus comprises a housing ; a housing extension connected to the housing , the housing extension having a flat face ; a first slot formed on the flat face ; a second slot formed on the flat face ; and an optical communication module located within the housing and the housing extension and configured to exchange information with the meter using infrared waves, wherein the optical meter reader apparatus is detachably attached to the coupling device by inserting the first and second blocks into the first and second slots , respectively so that the optical communication module is aligned with the optical communication device . a meter configured to estimate an amount of a product delivered by an utility throughout the meter, wherein the meter includes an optical communication device ; a coupling device attached to a face of the meter , wherein the coupling device comprises a metallic plate attached to the face of the meter, the metallic plate having a slot that allows the optical communication device of the meter to freely exchange an infrared beam with an optical meter reader apparatus, wherein the metallic plate has first and second blocks that can fit inside first and second slots of the optical meter reader apparatus; and the optical meter reader apparatus for reading the information from the meter , wherein the optical meter reader apparatus comprises a housing ; a housing extension connected to the housing , the housing extension having a flat face ; a first slot formed on the flat face ; a second slot formed on the flat face ; and an optical communication module located within the housing and the housing extension and configured to exchange information with the meter using infrared waves, a housing ; a housing extension connected to the housing , the housing extension having a flat face ; a first slot formed on the flat face ; a second slot formed on the flat face ; and an optical communication module located within the housing and the housing extension and configured to exchange information with the meter using infrared waves, wherein the optical meter reader apparatus is detachably attached to the coupling device by inserting the first and second blocks into the first and second slots , respectively so that the optical communication module is aligned with the optical communication device .