mhurhangee/patent-ind-claim-en huggingface dataset:
An inhaler article comprising: a body extending along a longitudinal axis from a mouthpiece end to a distal end , wherein the body has an outer diameter that is substantially constant from the distal end to the mouthpiece end ; a capsule cavity defined within the body and extending along the longitudinal axis; a mouthpiece air channel extends from the capsule cavity to the mouthpiece end; a boundary element between the capsule cavity and the mouthpiece air channel, the boundary element comprising at least two concentric rings of apertures fluidly connecting the capsule cavity with the mouthpiece air channel, a center region that coincides with the longitudinal axis, and a perimeter region that contacts the body, and the center region is a solid circular region and is co-planar with the perimeter; the outer concentric ring of apertures surrounds an inner concentric ring of apertures and each of the inner apertures of the inner concentric ring has an open area less than each of the outer apertures of the outer concentric ring of apertures. a body extending along a longitudinal axis from a mouthpiece end to a distal end , wherein the body has an outer diameter that is substantially constant from the distal end to the mouthpiece end ; a capsule cavity defined within the body and extending along the longitudinal axis; a mouthpiece air channel extends from the capsule cavity to the mouthpiece end; a boundary element between the capsule cavity and the mouthpiece air channel, the boundary element comprising at least two concentric rings of apertures fluidly connecting the capsule cavity with the mouthpiece air channel, a center region that coincides with the longitudinal axis, and a perimeter region that contacts the body, and the center region is a solid circular region and is co-planar with the perimeter; the outer concentric ring of apertures surrounds an inner concentric ring of apertures and each of the inner apertures of the inner concentric ring has an open area less than each of the outer apertures of the outer concentric ring of apertures.
A communication outlet for use with a communication plug , the outlet comprising: a plug receiving opening configured to allow at least a portion of the communication plug to pass therethrough; a shutter door configured to block entry into the communication outlet through the plug receiving opening when in a closed position, the shutter door comprising first and second pins extending along a first axis ; a biasing member biasing the shutter door toward the closed position, the biasing member comprising first and second coil springs ; the outlet characterized in that : the shutter door is rotatable about a single fixed second axis from the closed position to an open position to allow the portion of the communication plug to be inserted inside the communication outlet through the plug receiving opening, wherein said first axis is spaced apart from and substantially parallel with the second axis ; and the first and second coil springs are mounted on the first and second pins , respectively. a plug receiving opening configured to allow at least a portion of the communication plug to pass therethrough; a shutter door configured to block entry into the communication outlet through the plug receiving opening when in a closed position, the shutter door comprising first and second pins extending along a first axis ; a biasing member biasing the shutter door toward the closed position, the biasing member comprising first and second coil springs ; the outlet characterized in that : the shutter door is rotatable about a single fixed second axis from the closed position to an open position to allow the portion of the communication plug to be inserted inside the communication outlet through the plug receiving opening, wherein said first axis is spaced apart from and substantially parallel with the second axis ; and the first and second coil springs are mounted on the first and second pins , respectively. the shutter door is rotatable about a single fixed second axis from the closed position to an open position to allow the portion of the communication plug to be inserted inside the communication outlet through the plug receiving opening, wherein said first axis is spaced apart from and substantially parallel with the second axis ; and the first and second coil springs are mounted on the first and second pins , respectively.
Window pane having a plurality of capacitive switching regions , for separating an interior from an external environment, comprising: - a pane having an inner surface (IV) and - a coating that is arranged at least partially on the inner surface (IV) of the pane , wherein a respective capacitive switching region is electrically separated from the coating by at least one coating-free dividing line and can be electrically connected to a sensor electronics system and has a detection region for contactlessly detecting an object moved by a person in an activation region and the direction of movement thereof, wherein the detection region is implemented in at least two strip-shaped subregions , the subregions are arranged at a coating-free distance corresponding to the width of the dividing line , a longitudinal axis of the subregions runs parallel to one side of the inner surface, a subregion has a length that corresponds to a side length of the inner surface (IV). the subregions are arranged parallel to one another. - a pane having an inner surface (IV) and - a coating that is arranged at least partially on the inner surface (IV) of the pane ,
A guidance system comprising: a controller including a transceiver , wherein the transceiver is configured to receive macroscan data including first imaging data comprising first images of a body , the macroscan data further including first location data associated with each first image, wherein the controller is configured to combine the first images according to the first location data to generate a body information model ; a navigation component including an elongated shaft and an internal scanner located on a distal portion of the elongated shaft , wherein the internal scanner is configured to be positioned in the body and to generate microscan data , the microscan data including second imaging data comprising second images of the body , the microscan data further including second location data associated with each second image; wherein the controller is configured to correlate the first location data with the second location data at a target location in the body information model and to modify the body information model by combining the first images with the second images at the target location, wherein the controller is configured to overlay a cross-sectional image included in the second imaging data onto a cross-sectional image included in the first imaging data at the target location or to stitch a three-dimensional image included in the second imaging data together with a three-dimensional image included in the first imaging data at the target location. a controller including a transceiver , wherein the transceiver is configured to receive macroscan data including first imaging data comprising first images of a body , the macroscan data further including first location data associated with each first image, wherein the controller is configured to combine the first images according to the first location data to generate a body information model ; a navigation component including an elongated shaft and an internal scanner located on a distal portion of the elongated shaft , wherein the internal scanner is configured to be positioned in the body and to generate microscan data , the microscan data including second imaging data comprising second images of the body , the microscan data further including second location data associated with each second image; wherein the controller is configured to correlate the first location data with the second location data at a target location in the body information model and to modify the body information model by combining the first images with the second images at the target location, wherein the controller is configured to overlay a cross-sectional image included in the second imaging data onto a cross-sectional image included in the first imaging data at the target location or to stitch a three-dimensional image included in the second imaging data together with a three-dimensional image included in the first imaging data at the target location.
An ultrasonic flow meter housing comprising: - a housing body (HB) having an upper surface (U_S) and a lower surface (L_S), and wherein the lower surface (L_S) is arranged for mounting onto a flow meter tube (FMT), wherein first and second structures (ST1, ST2) on the lower surface (L_S) are shaped to receive respective first and second ultrasonic transducers (T1, T2) separated by a distance, - a housing cover (HC) arranged for engagement with the upper surface (U_S) of the housing body (HB) so as to provide a cavity (CV) arranged for housing a measurement circuit (MS), and - a plurality of electrically conductive members (ECM, ECM1, ECM2) extending from the lower surface (L_S) to the upper surface (U_S) of the housing body (HB), wherein said plurality of electrically conductive members (ECM, ECM1, ECM2) serve to operationally connect the first and second ultrasonic transducers (T1, T2) with the measurement circuit (MS), characterized in that the housing body (HB) is constituted by one monolithic polymeric element shaped to integrate all of the plurality of electrically conductive members (ECM, ECM1, ECM2) which are cast in said monolithic polymeric element such that the material forming the monolithic polymeric element provides a watertight fit to the plurality of electrically conducting members between the lower surface (L_S) and the upper surface (U_S) of the housing body (HB), and in that said monolithic polymeric element and said plurality of electrically conductive members constitute one single unit arranged for assembly with the first and second ultrasonic transducers (T1, T2) and the measurement circuit (MS), and said plurality of electrically conductive members provide operational electrical connection between the first and second ultrasonic transducers (T1, T2) and the measurement circuit (MS) in an assembled state. - a housing body (HB) having an upper surface (U_S) and a lower surface (L_S), and wherein the lower surface (L_S) is arranged for mounting onto a flow meter tube (FMT), wherein first and second structures (ST1, ST2) on the lower surface (L_S) are shaped to receive respective first and second ultrasonic transducers (T1, T2) separated by a distance, - a housing cover (HC) arranged for engagement with the upper surface (U_S) of the housing body (HB) so as to provide a cavity (CV) arranged for housing a measurement circuit (MS), and - a plurality of electrically conductive members (ECM, ECM1, ECM2) extending from the lower surface (L_S) to the upper surface (U_S) of the housing body (HB), wherein said plurality of electrically conductive members (ECM, ECM1, ECM2) serve to operationally connect the first and second ultrasonic transducers (T1, T2) with the measurement circuit (MS),
An axial stirring impeller comprising: a plurality of blades arranged at intervals in a rotational direction with reference to the central axis of rotation, wherein each of the plurality of blades has a front portion close to a front end edge with reference to the rotational direction, at least the front portion is inclined to a plane orthogonal to the central axis of rotation in a cross section in the rotational direction at an angle of 20° to 40° toward the front end edge , each of the plurality of blades has a front surface facing forward and a back surface facing backward with reference to the rotational direction that are formed therein, the front surface being located on a lower side and the back surface being located on an upper side, and each of the plurality of blades comprises a tapered portion that is tapered to have a tip angle of 30° to 50° in the cross section in the rotational direction, on the front end edge . a plurality of blades arranged at intervals in a rotational direction with reference to the central axis of rotation, wherein each of the plurality of blades has a front portion close to a front end edge with reference to the rotational direction, at least the front portion is inclined to a plane orthogonal to the central axis of rotation in a cross section in the rotational direction at an angle of 20° to 40° toward the front end edge , each of the plurality of blades has a front surface facing forward and a back surface facing backward with reference to the rotational direction that are formed therein, the front surface being located on a lower side and the back surface being located on an upper side, and each of the plurality of blades comprises a tapered portion that is tapered to have a tip angle of 30° to 50° in the cross section in the rotational direction, on the front end edge .
An LED package structure (S), comprising: a multilayered circuit board including a base layer , a plurality of testing pads , a first electrical connecting pad , a plurality of second electrical connecting pads and a solder mask layer disposed on a bottom surface of the base layer , a plurality of lighting elements disposed on a top surface of the base layer ; a control unit embedded in the base layer and electrically connected to the lighting elements ; a reflecting unit disposed on a top surface of the multilayered circuit board and surrounding the lighting elements ; a package unit covering the lighting elements ; a plurality of test paths each in electrical connection with the first electrical connecting pad , one of the lighting elements and one of the testing pads ; and a plurality of operation paths each in electrical connection with the first electrical connecting pad , the control unit , one of the lighting elements and one of the second electrical connecting pads , wherein a portion of the testing pads is exposed from the solder mask layer to provide an outside electrical connection to each of the lighting elements by the corresponding testing pad , such that the LED package structure (S) is configured to be tested for obtaining respective characteristic parameter values of the lighting elements after being packaged; and wherein the control unit is configured to record the characteristic parameter values of each of the lighting elements and to calibrate the driving condition of each of the lighting elements accordingly. a multilayered circuit board including a base layer , a plurality of testing pads , a first electrical connecting pad , a plurality of second electrical connecting pads and a solder mask layer disposed on a bottom surface of the base layer , a plurality of lighting elements disposed on a top surface of the base layer ; a control unit embedded in the base layer and electrically connected to the lighting elements ; a reflecting unit disposed on a top surface of the multilayered circuit board and surrounding the lighting elements ; a package unit covering the lighting elements ; a plurality of test paths each in electrical connection with the first electrical connecting pad , one of the lighting elements and one of the testing pads ; and a plurality of operation paths each in electrical connection with the first electrical connecting pad , the control unit , one of the lighting elements and one of the second electrical connecting pads , wherein a portion of the testing pads is exposed from the solder mask layer to provide an outside electrical connection to each of the lighting elements by the corresponding testing pad , such that the LED package structure (S) is configured to be tested for obtaining respective characteristic parameter values of the lighting elements after being packaged; and wherein the control unit is configured to record the characteristic parameter values of each of the lighting elements and to calibrate the driving condition of each of the lighting elements accordingly.
A panel comprising: - a base layer ; - a heat providing layer attached to said base layer , said heat being created by electric energy; - a covering layer attached to said heat providing layer ; - first and second opposite longitudinal sides including first and second longitudinal panel coupling means, respectively, arranged for coupling said panel to adjacent panels (201, 202,..., 206); - first and second opposite end sides including first and second end panel coupling means, respectively, arranged for coupling said panel to adjacent panels (201,202,..., 206); characterized by - said first and second end panel coupling means including first and second end panel grooves, respectively, said first and second end panel grooves at least partly extending between said first and second opposite longitudinal sides, and - at least one electrical end connector arranged in one or more of said first and second end panel grooves of said first and second end panel coupling means, each of said at least one electrical end connector including first and second end portions and an at least partly resilient portion located between said first and second end portions, said at least partly resilient portion at least partly including an electrically conductive material and at least partly protruding from said one or more of said first and second end panel coupling means, thereby providing an electrical connection between said heat providing layer of said panel and a corresponding heat providing layer of at least one adjacent panel coupled to said panel . - a base layer ; - a heat providing layer attached to said base layer , said heat being created by electric energy; - a covering layer attached to said heat providing layer ; - first and second opposite longitudinal sides including first and second longitudinal panel coupling means, respectively, arranged for coupling said panel to adjacent panels (201, 202,..., 206); - first and second opposite end sides including first and second end panel coupling means, respectively, arranged for coupling said panel to adjacent panels (201,202,..., 206); characterized by - said first and second end panel coupling means including first and second end panel grooves, respectively, said first and second end panel grooves at least partly extending between said first and second opposite longitudinal sides, and - at least one electrical end connector arranged in one or more of said first and second end panel grooves of said first and second end panel coupling means, each of said at least one electrical end connector including first and second end portions and an at least partly resilient portion located between said first and second end portions, said at least partly resilient portion at least partly including an electrically conductive material and at least partly protruding from said one or more of said first and second end panel coupling means, thereby providing an electrical connection between said heat providing layer of said panel and a corresponding heat providing layer of at least one adjacent panel coupled to said panel .
A method for producing an ammoxidation catalyst having a composition represented by the following formula : Mo 12 Bi a Fe b X c Y d Z e O f wherein X represents at least one element selected from the group consisting of nickel, cobalt, magnesium, calcium, zinc, strontium, and barium; Y represents at least one element selected from the group consisting of cerium, chromium, lanthanum, neodymium, yttrium, praseodymium, samarium, aluminum, gallium, and indium; Z represents at least one element selected from the group consisting of potassium, rubidium, and cesium; provided that a proportion of cobalt is 20 atomic% or more and/or a proportion of magnesium is 20 atomic% or less in the element X; a, b, c, d, and e satisfy 0.1≤a≤2.0, 0.1≤b≤3.0, 0.1≤c≤10.0, 0.1≤d≤3.0 and 0.01≤e≤2.0, respectively; and f represents a number of oxygen atoms needed to satisfy atomic valence requirements of other elements present therein, the method comprising: a step (i) of preparing a starting material slurry comprising molybdenum, bismuth, iron, and a carboxylic acid compound, wherein the content of the carboxylic acid compound in the precursor slurry is 0.01 to 0.10 mol equivalents, based on the sum of metal elements constituting the ammoxidation catalyst; a step (ii) of stirring the starting material slurry in a temperature range of 35 to 45°C for 20 minutes to 8 hours, thereby preparing a precursor slurry; a step of spray-drying the precursor slurry in a centrifugal nebulization apparatus provided with a dish-type rotor installed at the center of the upper portion of the drier and holding the temperature of air at the inlet of the drier at 180 to 250°C and the temperature at the outlet at 100 to 150°C, thereby obtaining a dried particle having a particle diameter of 25 to 180 μm; and a step of calcining the dried particle at a calcination temperature of 550 to 650°C, wherein the precursor slurry has a viscosity, determined as described in the description, of 1 to 100 mPa·s (cp). a step (i) of preparing a starting material slurry comprising molybdenum, bismuth, iron, and a carboxylic acid compound, wherein the content of the carboxylic acid compound in the precursor slurry is 0.01 to 0.10 mol equivalents, based on the sum of metal elements constituting the ammoxidation catalyst; a step (ii) of stirring the starting material slurry in a temperature range of 35 to 45°C for 20 minutes to 8 hours, thereby preparing a precursor slurry; a step of spray-drying the precursor slurry in a centrifugal nebulization apparatus provided with a dish-type rotor installed at the center of the upper portion of the drier and holding the temperature of air at the inlet of the drier at 180 to 250°C and the temperature at the outlet at 100 to 150°C, thereby obtaining a dried particle having a particle diameter of 25 to 180 μm; and a step of calcining the dried particle at a calcination temperature of 550 to 650°C,