mhurhangee/patent-ind-claim-en huggingface dataset:
A nozzle assembly (100; 500; 600) for a spraying apparatus comprising: a fluid side wall defining a fluid passageway that extends longitudinally along a fluid axis and terminates in a fluid aperture (106; 606); an air cap side wall extending around the fluid side wall and partially defining a first air passageway that terminates in an atomizing aperture (108; 608) adjacent the fluid aperture (106; 606); a pair of diametrically opposed air horns (112; 212; 512; 612) protruding past the fluid aperture (106; 606) from the air cap side wall and defining respective air horn cavities in communication with a second air passageway , each air horn (112; 212; 512; 612) having an external surface and a fan control aperture (114, 116; 214, 216; 514; 516; 614, 616) extending along a fan control axis through the external surface to flow air against a fluid stream discharged from the fluid aperture (106; 606), wherein each fan control aperture (114, 116; 214, 216; 514; 516; 614, 616) has an aperture shape defined along a reference plane perpendicular to the fan control axis ; and for each air horn (112; 212; 512; 612), a baffle (130; 230; 330; 530, 531; 630) coupled to the air cap side wall and projecting into a volumetric shape , the volumetric shape defined by extruding the aperture shape outwardly along the fan control axis . a fluid side wall defining a fluid passageway that extends longitudinally along a fluid axis and terminates in a fluid aperture (106; 606); an air cap side wall extending around the fluid side wall and partially defining a first air passageway that terminates in an atomizing aperture (108; 608) adjacent the fluid aperture (106; 606); a pair of diametrically opposed air horns (112; 212; 512; 612) protruding past the fluid aperture (106; 606) from the air cap side wall and defining respective air horn cavities in communication with a second air passageway , each air horn (112; 212; 512; 612) having an external surface and a fan control aperture (114, 116; 214, 216; 514; 516; 614, 616) extending along a fan control axis through the external surface to flow air against a fluid stream discharged from the fluid aperture (106; 606), wherein each fan control aperture (114, 116; 214, 216; 514; 516; 614, 616) has an aperture shape defined along a reference plane perpendicular to the fan control axis ; and for each air horn (112; 212; 512; 612), a baffle (130; 230; 330; 530, 531; 630) coupled to the air cap side wall and projecting into a volumetric shape , the volumetric shape defined by extruding the aperture shape outwardly along the fan control axis .
A cathode plate for metal electrodeposition, comprising: a metal plate on which a plurality of disk-shaped protrusions are arranged on at least one surface of the metal plate, where the surface other than the protrusions is a flat section , the metal plate having a thickness of greater than 1.5 mm and less than or equal to 5 mm when the protrusions are provided on one surface and greater than or equal to 3 mm and less than or equal to 10 mm when the protrusions are provided on both surfaces; and a non-conductive film formed on the flat section of the metal plate between adjacent protrusions , wherein the protrusions have an upper face which is a conductive section , wherein the conductive section is exposed from the non-conductive film , and wherein the protrusions have a side face that is in the shape of a concave step, a height L1 of the protrusion is the height of the protrusions from the flat section , wherein L1 is greater than or equal to 50 μm and less than or equal to 500 μm, and when an intersection between a vertical line vertically lowered from a position X that is 20 μm outward from an outer peripheral edge of the upper face of protrusion and the side face is defined as Y, a length L2 from X to Y is greater than or equal to 40 μm and less than or equal to 0.8 × L1 μm, and wherein position X is height L1 from Y', wherein Y' is the intersection between a vertically lowered line from the intersection Y and a virtual face that is formed by extending the surface of the flat section in a horizontal direction. a metal plate on which a plurality of disk-shaped protrusions are arranged on at least one surface of the metal plate, where the surface other than the protrusions is a flat section , the metal plate having a thickness of greater than 1.5 mm and less than or equal to 5 mm when the protrusions are provided on one surface and greater than or equal to 3 mm and less than or equal to 10 mm when the protrusions are provided on both surfaces; and a non-conductive film formed on the flat section of the metal plate between adjacent protrusions , wherein the protrusions have an upper face which is a conductive section , wherein the conductive section is exposed from the non-conductive film , and wherein the protrusions have a side face that is in the shape of a concave step, a height L1 of the protrusion is the height of the protrusions from the flat section , wherein L1 is greater than or equal to 50 μm and less than or equal to 500 μm, and when an intersection between a vertical line vertically lowered from a position X that is 20 μm outward from an outer peripheral edge of the upper face of protrusion and the side face is defined as Y, a length L2 from X to Y is greater than or equal to 40 μm and less than or equal to 0.8 × L1 μm, and wherein position X is height L1 from Y', wherein Y' is the intersection between a vertically lowered line from the intersection Y and a virtual face that is formed by extending the surface of the flat section in a horizontal direction.
A privacy screen filter for mounting on screens of computers, including computer screens on portable computers such as laptops and/or tablet pcs, on which a camera and/or a sensor is mounted in the computer screen, such as in the edge frame of the computer screen, and wherein the screen filter includes a filter element in the form of a film sheet with means to prevent others than the user to see the contents on the computer screen, such as a film sheet including micro-lamellae and one or more mounting means for releasable fastening of the screen filter along at least one edge of the computer screen, wherein the privacy screen filter additionally includes one or more reinforcing plate-shaped elements mounted along the front side and/or the back side of the upper and lower edges of the film sheet or of the side edges of the film sheet , and across the entire width and height, respectively, of the film sheet for reinforcing the film sheet , characterised in that the reinforcing plate-shaped elements and the film sheet along at least one edge of the film sheet include a through-going hole , and wherein the privacy screen filter further comprises a movable slide mounted in connection with the through-going hole , wherein the movable slide is configured to close the through-going hole or to allow the through-going hole to be free.
A Ni-Cr-Fe-based casting alloy suitable for use in the production of components which come into contact with molten glass, characterized in that it contains, in mass%: Cr: 15-30%, Fe: 15-30%, Co: 2.5-5.0%, W: 3.0-6.0%, Ti: 0.0-2.0%, Nb: 0.5-2.5%, Mo: 0.5-2.0%, and C: 0.5-1.2%, balance nickel and inevitable impurities. Cr: 15-30%, Fe: 15-30%, Co: 2.5-5.0%, W: 3.0-6.0%, Ti: 0.0-2.0%, Nb: 0.5-2.5%, Mo: 0.5-2.0%, and C: 0.5-1.2%, balance nickel and inevitable impurities.
A method for manufacturing a semiconductor device, the method comprising the steps of: forming a gate electrode layer over a substrate ; forming a gate insulating layer over the gate electrode layer ; forming a semiconductor layer over the gate insulating layer ; forming a source electrode and a drain electrode over and in contact with the semiconductor layer ; increasing a density of oxygen in a first region of the semiconductor layer between the source electrode and the drain electrode , wherein the increase in the density of oxygen is performed by plasma treatment in the presence of a gas containing an oxygen element; and forming an oxide insulating film over and in contact with the semiconductor layer , the source electrode , and the drain electrode , by introducing a deposition gas; wherein a heat treatment step is performed from the plasma treatment until the formation of the oxide insulating film, wherein the semiconductor layer is an oxide semiconductor layer, and wherein by formation of the oxide insulating film over the semiconductor layer , an oxygen density at an interface between the semiconductor layer and the oxide insulating film is increased, and oxygen is diffused into the semiconductor layer . forming a gate electrode layer over a substrate ; forming a gate insulating layer over the gate electrode layer ; forming a semiconductor layer over the gate insulating layer ; forming a source electrode and a drain electrode over and in contact with the semiconductor layer ; increasing a density of oxygen in a first region of the semiconductor layer between the source electrode and the drain electrode , wherein the increase in the density of oxygen is performed by plasma treatment in the presence of a gas containing an oxygen element; and forming an oxide insulating film over and in contact with the semiconductor layer , the source electrode , and the drain electrode , by introducing a deposition gas; wherein a heat treatment step is performed from the plasma treatment until the formation of the oxide insulating film, wherein the semiconductor layer is an oxide semiconductor layer, and wherein by formation of the oxide insulating film over the semiconductor layer , an oxygen density at an interface between the semiconductor layer and the oxide insulating film is increased, and oxygen is diffused into the semiconductor layer .
A method for preparing a frozen dough, which method comprises including a Penicilllium glucose oxidase in the dough during preparation of the dough, wherein the Penicillium glucose oxidase has an amino acid sequence having at least 85% identity to amino acids 19 to 604 of SEQ ID NO. 1, and cooling the dough to a temperature in the range of - 35 to -5 degrees Celsius.
A vehicle for transporting and unloading material comprising: a chassis ; a material hopper body operatively coupled to the chassis; a first endless conveyor disposed adjacent a bottom of said material hopper body and driven with a first propulsion means; lift means proximate a discharge end of the material hopper body operable to elevate the discharge end of the hopper body and the first conveyor from a horizontal transport position to an inclined unloading position; a second endless conveyor driven with a second propulsion means, said second conveyor pivotally mounted to the chassis about a substantially vertical axis and adapted to align with a discharge end of the first conveyor when the material hopper body is in the inclined unloading position and including means for elevating a discharge end of the second conveyor to directionally discharge material from the material hopper body. a chassis ; a material hopper body operatively coupled to the chassis; a first endless conveyor disposed adjacent a bottom of said material hopper body and driven with a first propulsion means; lift means proximate a discharge end of the material hopper body operable to elevate the discharge end of the hopper body and the first conveyor from a horizontal transport position to an inclined unloading position; a second endless conveyor driven with a second propulsion means, said second conveyor pivotally mounted to the chassis about a substantially vertical axis and adapted to align with a discharge end of the first conveyor when the material hopper body is in the inclined unloading position and including means for elevating a discharge end of the second conveyor to directionally discharge material from the material hopper body.
A process for manufacturing a black leaf tea product, the process comprising: • providing black leaf tea having a moisture content of less than 5 wt.% as a starting material; and then • subjecting the black leaf tea starting material to a heat treatment step by contacting it with a heated surface at a temperature of 100°C to 170°C for a duration of 2 to 25 minutes. • providing black leaf tea having a moisture content of less than 5 wt.% as a starting material; and then • subjecting the black leaf tea starting material to a heat treatment step by contacting it with a heated surface at a temperature of 100°C to 170°C for a duration of 2 to 25 minutes.
A power assist wheelchair , comprising: a wheel ; an electric motor that drives the wheel ; an encoder that detects rotation of the electric motor ; and a control device that controls the electric motor , wherein the control device includes: a total torque value calculation unit configured to calculate a total torque value (T total ) based upon a detection signal of the encoder ; a twist torque value calculation unit configured to calculate a twist torque value (T tor ) representing torque causing twist of the wheel with respect to an axle; a manual torque value calculation unit configured to calculate a manual torque value (T in ) based upon a difference obtained by subtracting the twist torque value (T tor ) from the total torque value (T total ); and a target current determination unit configured to determine a target current of the electric motor based upon the manual torque value (Tin). a wheel ; an electric motor that drives the wheel ; an encoder that detects rotation of the electric motor ; and a control device that controls the electric motor , wherein the control device includes: a total torque value calculation unit configured to calculate a total torque value (T total ) based upon a detection signal of the encoder ; a twist torque value calculation unit configured to calculate a twist torque value (T tor ) representing torque causing twist of the wheel with respect to an axle; a manual torque value calculation unit configured to calculate a manual torque value (T in ) based upon a difference obtained by subtracting the twist torque value (T tor ) from the total torque value (T total ); and a target current determination unit configured to determine a target current of the electric motor based upon the manual torque value (Tin). a total torque value calculation unit configured to calculate a total torque value (T total ) based upon a detection signal of the encoder ; a twist torque value calculation unit configured to calculate a twist torque value (T tor ) representing torque causing twist of the wheel with respect to an axle; a manual torque value calculation unit configured to calculate a manual torque value (T in ) based upon a difference obtained by subtracting the twist torque value (T tor ) from the total torque value (T total ); and a target current determination unit configured to determine a target current of the electric motor based upon the manual torque value (Tin).
A flow meter including two flow tubes , an inlet manifold , an outlet manifold , each of the two flow tubes adapted to be connected to a fluid pipeline via the inlet and outlet manifold , and a driver (104 A, 104B) adapted to vibrate the flow tubes at a drive frequency, each of the two flow tubes comprising: a gusset coupled to the flow tube such that a frequency separation between the drive mode frequency and at least a second vibration mode frequency is increased, wherein the gusset is positioned at a bend of the flow tube , the bend being located between two straight portions of the flow tube.
A computer-implemented method for determining a pathology in 3D image data comprising: receiving at least a first 3D image of a body part, the 3D image comprising voxels associated with a predetermined image volume; providing the 3D first image to the input of a first 3D convolutional neural network, the first 3D convolutional network being trained to determine a position of a volume of interest (VOI) in the image volume of the first 3D image, the VOI being associated with a part of the body part, the VOI defining a sub-volume of the image volume; receiving a position of the VOI from the output of the first 3D convolutional neural network and determining first VOI voxels by selecting voxels of the first 3D image that have a position within the VOI providing the first VOI voxels to the input of a second 3D convolutional neural network, the second 3D convolutional neural network being trained to determine a target label value on the basis of at least the first VOI voxels, the target label value being indicative of a presence or absence of the pathology in the VOI; and, retrieving a 3D probability map associated with the VOI voxels from a convolutional layer of the second 3D convolutional neural network and using the 3D probability map as input to a backpropagation process for generating a 3D saliency map associated with the VOI voxels; generating an annotated 3D image of the pathology in the VOI by using the 3D saliency map to identify voxels in the VOI that made a substantial contribution to the determination of the target label value by the second 3D convolutional neural network. receiving at least a first 3D image of a body part, the 3D image comprising voxels associated with a predetermined image volume; providing the 3D first image to the input of a first 3D convolutional neural network, the first 3D convolutional network being trained to determine a position of a volume of interest (VOI) in the image volume of the first 3D image, the VOI being associated with a part of the body part, the VOI defining a sub-volume of the image volume; receiving a position of the VOI from the output of the first 3D convolutional neural network and determining first VOI voxels by selecting voxels of the first 3D image that have a position within the VOI providing the first VOI voxels to the input of a second 3D convolutional neural network, the second 3D convolutional neural network being trained to determine a target label value on the basis of at least the first VOI voxels, the target label value being indicative of a presence or absence of the pathology in the VOI; and, retrieving a 3D probability map associated with the VOI voxels from a convolutional layer of the second 3D convolutional neural network and using the 3D probability map as input to a backpropagation process for generating a 3D saliency map associated with the VOI voxels; generating an annotated 3D image of the pathology in the VOI by using the 3D saliency map to identify voxels in the VOI that made a substantial contribution to the determination of the target label value by the second 3D convolutional neural network.
A shoe comprising a sole and an upper operatively secured to the sole, the sole comprising a lower sole member and an upper sole member , wherein the lower sole member is of a first material and the upper sole member is of a second material, the second material being different from the first material, the lower sole member including a sole heel region , a sole midfoot region , a sole forefoot region , a medial side , a lateral side , a bottom surface , and a top surface , a plurality of sipes and a longitudinal cavity , the longitudinal cavity being at least in the sole midfoot region and extending downwardly from the top surface of the lower sole member , the plurality of sipes extending upwardly from the bottom surface of the lower sole member and intersecting the longitudinal cavity such that the plurality of sipes and the longitudinal cavity combine to define a plurality of through openings , the upper sole member being within the cavity and covering the plurality of through openings , wherein the longitudinal cavity extends from the sole heel region to the sole forefoot region of the lower sole member, and the longitudinal cavity includes a cavity heel region , a cavity midfoot region , and a cavity forefoot region , characterized by the cavity forefoot region being closer to the medial side of the lower sole member than to the lateral side of the lower sole member , and by the first material being of a first durometer hardness and the second material being of a second durometer hardness, the first durometer hardness being greater than the second durometer hardness.
Processing unit for a sonar system for processing hydrophone signals , comprising: - an FFT unit for ascertaining a Fourier-transformed hydrophone signal in each case from each of the received hydrophone signals , - a frequency band divider , which subdivides the Fourier-transformed hydrophone signals in each case into a plurality of frequency bands, - at least one multiplication unit (34a-34c) for ascertaining multiplied signals by multiplying each Fourier-transformed hydrophone signal of each frequency band (33a-33c) by a factor, - at least one IFFT unit (36a-36c) for converting each of the multiplied signals into a time signal, and - at least one addition unit (41a-41c, 42) for adding a plurality or all of the time signals . - an FFT unit for ascertaining a Fourier-transformed hydrophone signal in each case from each of the received hydrophone signals , - a frequency band divider , which subdivides the Fourier-transformed hydrophone signals in each case into a plurality of frequency bands, - at least one multiplication unit (34a-34c) for ascertaining multiplied signals by multiplying each Fourier-transformed hydrophone signal of each frequency band (33a-33c) by a factor, - at least one IFFT unit (36a-36c) for converting each of the multiplied signals into a time signal, and - at least one addition unit (41a-41c, 42) for adding a plurality or all of the time signals .
A method of treating an anodized metal surface, comprising an anodized aluminium oxide layer over a metal body comprising aluminium or an aluminium alloy, the method comprising: applying polynuclear clusters comprising aluminum oxide hydroxide to the anodized metal surface , characterized in that the polynuclear clusters comprise Al 13 clusters according to the formula: [AlO 4 Al 12 (OH) 24 (H 2 O) 121 ] 7+ ∗[(7/ n ) X -n ] 7- where X -n represents '- n ' charge-bearing X counter-ion species and (7/ n ) X -n are needed to neutralize the total complex charge. applying polynuclear clusters comprising aluminum oxide hydroxide to the anodized metal surface , characterized in that the polynuclear clusters comprise Al 13 clusters according to the formula: [AlO 4 Al 12 (OH) 24 (H 2 O) 121 ] 7+ ∗[(7/ n ) X -n ] 7- where X -n represents '- n ' charge-bearing X counter-ion species and (7/ n ) X -n are needed to neutralize the total complex charge.
Screw for fixing a section of a metal framework to a part intended to connect the said section to a structure of a building, characterized in that it comprises a head and a shank , a first thread having a diameter of diameter (D11) and further a second thread having a second diameter (D12) smaller than said first diameter (D11), said screw comprising a first threaded area where said threads coexist and a second threaded area , located between said first area and the head , where only said second thread remains, so that said second thread extends beyond said first thread towards said head.