mhurhangee/patent-ind-claim-en huggingface dataset:
A processor implemented speech recognizing method implementing a speech recognizing model neural network for recognition of a speech, the speech including a plurality of sequential speech frames, the method comprising: dividing each speech frame of the speech signal into signals of different frequency components, determining an attention weight (a t ) for each frequency component based on an output value (h t-1 )output by at least one layer (415, 420, 425; 515, 520, 525, 530; 715, 720, 730, 735; 815, 820, 825, 830, 835) of the speech recognizing model neural network at a previous time (t-1) of the recognition of at least one speech frame of the speech ; respectively applying the determined attention weights (a t ) to feature values of the different frequency components of a speech signal including at least one speech frame corresponding to a current time (t) of the recognition of the speech ; and recognizing the speech signal to which the attention weights are applied, using the speech recognizing model neural network . dividing each speech frame of the speech signal into signals of different frequency components, determining an attention weight (a t ) for each frequency component based on an output value (h t-1 )output by at least one layer (415, 420, 425; 515, 520, 525, 530; 715, 720, 730, 735; 815, 820, 825, 830, 835) of the speech recognizing model neural network at a previous time (t-1) of the recognition of at least one speech frame of the speech ; respectively applying the determined attention weights (a t ) to feature values of the different frequency components of a speech signal including at least one speech frame corresponding to a current time (t) of the recognition of the speech ; and recognizing the speech signal to which the attention weights are applied, using the speech recognizing model neural network .
Angle setting apparatus for use in a machine tool , in particular in a saw, comprising: - a pivot element which can be pivoted about a pivot point on a clamping block element reversibly between a minimum angular position and a maximum angular position and steplessly; and - an angle preselection mechanism , the angle preselection mechanism comprising a stop plate which can be pivoted relative to the clamping block element and comprises at least one stop element for preselecting the maximum angular position of the pivot element relative to the clamping block element, at least one of the stop elements being designed as an operating lever element for preselecting the maximum angle setting of the pivot element relative to the clamping block element , characterized in that the angle preselection mechanism comprises an anti-rotation means , and the anti-rotation means is in the form of a polygonal surface on a bearing pin of the pivot element and a polygonal surface in an elastically deformable through-hole in the stop plate , the elastically deformable through-hole being designed to receive the bearing pin such that the polygonal surface on the bearing pin is opposite the polygonal surface in the elastically deformable through-hole . - a pivot element which can be pivoted about a pivot point on a clamping block element reversibly between a minimum angular position and a maximum angular position and steplessly; and - an angle preselection mechanism , the angle preselection mechanism comprising a stop plate which can be pivoted relative to the clamping block element and comprises at least one stop element for preselecting the maximum angular position of the pivot element relative to the clamping block element, at least one of the stop elements being designed as an operating lever element for preselecting the maximum angle setting of the pivot element relative to the clamping block element , characterized in that the angle preselection mechanism comprises an anti-rotation means , and the anti-rotation means is in the form of a polygonal surface on a bearing pin of the pivot element and a polygonal surface in an elastically deformable through-hole in the stop plate , the elastically deformable through-hole being designed to receive the bearing pin such that the polygonal surface on the bearing pin is opposite the polygonal surface in the elastically deformable through-hole .
A cleaning system for a solar panel , comprising: a frame movable in a transverse direction over the solar panel, the frame having transverse edges oriented in the transverse direction; a brush assembly positioned within the frame and movable in a longitudinal direction, the longitudinal direction being perpendicular to the transverse direction; and a liquid spray arrangement including: a plurality of rows of nozzles positioned within the frame and oriented in the transverse direction, the plurality of rows of nozzles being configured to spray at least one of water and a water detergent mix onto the solar panel; characterized in that the brush assembly includes a plurality of brush holders arranged within the frame, the brush holders being movable in the longitudinal direction within the brush assembly, and each brush holder being adapted to interchangeably receive a brush for cleaning the solar panel; and in that the cleaning system further comprises at least one additional row of nozzles (122, 124; 252, 254) positioned adjacent to at least one of the transverse edges of the frame, the at least one additional row of nozzles (122, 124; 252, 254) being configured such that when a brush reaches the at least one transverse edge of the frame, it is cleaned by being exposed to the spray of the at least one of water and a water detergent mix from said at least one additional row of nozzles (122, 124; 252, 254). a frame movable in a transverse direction over the solar panel, the frame having transverse edges oriented in the transverse direction; a brush assembly positioned within the frame and movable in a longitudinal direction, the longitudinal direction being perpendicular to the transverse direction; and a liquid spray arrangement including: a plurality of rows of nozzles positioned within the frame and oriented in the transverse direction, the plurality of rows of nozzles being configured to spray at least one of water and a water detergent mix onto the solar panel; characterized in that the brush assembly includes a plurality of brush holders arranged within the frame, the brush holders being movable in the longitudinal direction within the brush assembly, and each brush holder being adapted to interchangeably receive a brush for cleaning the solar panel; and in that the cleaning system further comprises at least one additional row of nozzles (122, 124; 252, 254) positioned adjacent to at least one of the transverse edges of the frame, the at least one additional row of nozzles (122, 124; 252, 254) being configured such that when a brush reaches the at least one transverse edge of the frame, it is cleaned by being exposed to the spray of the at least one of water and a water detergent mix from said at least one additional row of nozzles (122, 124; 252, 254).
A polyamide-imide film, which is obtainable by a process comprising: simultaneously or sequentially mixing and reacting a diamine compound, a dianhydride compound, and a dicarbonyl compound in an organic solvent in a polymerization apparatus to prepare a polymer solution; transferring the polymer solution to a tank wherein the temperature inside the tank is -20°C to 0°C; casting the polymer solution and then drying it to prepare a gel-sheet; thermally treating the gel-sheet, while it is moved on a belt , to prepare a cured film; and winding the cured film using a winder , wherein the ratio of the moving speed of the gel-sheet on the belt at the time of thermal treatment to the moving speed of the cured film at the time of winding is 1:0.95 to 1: 1.40, wherein the area value up to the yield point derived by the 0.2% off-set method on a stress-strain curve of the polyamide-imide film as measured using a universal testing machine (UTM) is 80 to 150 J/m 2 , preferably 100 to 140 J/m 2 . simultaneously or sequentially mixing and reacting a diamine compound, a dianhydride compound, and a dicarbonyl compound in an organic solvent in a polymerization apparatus to prepare a polymer solution; transferring the polymer solution to a tank wherein the temperature inside the tank is -20°C to 0°C; casting the polymer solution and then drying it to prepare a gel-sheet; thermally treating the gel-sheet, while it is moved on a belt , to prepare a cured film; and winding the cured film using a winder , wherein the ratio of the moving speed of the gel-sheet on the belt at the time of thermal treatment to the moving speed of the cured film at the time of winding is 1:0.95 to 1: 1.40, wherein the area value up to the yield point derived by the 0.2% off-set method on a stress-strain curve of the polyamide-imide film as measured using a universal testing machine (UTM) is 80 to 150 J/m 2 , preferably 100 to 140 J/m 2 .
A method of creating a defrost on a polymer substrate comprising the steps of: providing a polymer film , thermoformable conductive ink , polymer substrate and a hard coat material , wherein the polymer film and polymer substrate are polycarbonate and wherein the polymer film has a thickness between 0.127 mm (0.005 inches) and 0.254 mm (0.01 inches); providing a silk screen having a template in the shape of a conductive circuit ; providing a mold with the mold cavity shaped to receive a decorative insert ; silk screening the thermoformable conductive ink onto the polymer film in the shape of a conductive circuit to create a decorative insert ; trimming the decorative insert ; placing the decorative insert into the mold cavity of the mold; closing the mold and injecting the polymer substrate to the back side of the decorative insert , wherein the decorative insert will flex or bend to form an appropriate shape depending upon a contour of the mold cavity and the pressure exerted by the polymer substrate ; opening the mold and removing from the mold cavity the decorative insert with the polymer substrate attached, and applying the hard coat material over the decorative insert with polymer substrate attached, thereby creating a finished part . providing a polymer film , thermoformable conductive ink , polymer substrate and a hard coat material , wherein the polymer film and polymer substrate are polycarbonate and wherein the polymer film has a thickness between 0.127 mm (0.005 inches) and 0.254 mm (0.01 inches); providing a silk screen having a template in the shape of a conductive circuit ; providing a mold with the mold cavity shaped to receive a decorative insert ; silk screening the thermoformable conductive ink onto the polymer film in the shape of a conductive circuit to create a decorative insert ; trimming the decorative insert ; placing the decorative insert into the mold cavity of the mold; closing the mold and injecting the polymer substrate to the back side of the decorative insert , wherein the decorative insert will flex or bend to form an appropriate shape depending upon a contour of the mold cavity and the pressure exerted by the polymer substrate ; opening the mold and removing from the mold cavity the decorative insert with the polymer substrate attached, and applying the hard coat material over the decorative insert with polymer substrate attached, thereby creating a finished part .
A tissue-removing catheter for removing tissue from a body lumen having a longitudinal axis, the tissue-removing catheter comprising: a catheter body configured for insertion in the body lumen, the catheter body having a proximal end , a distal end , a longitudinal axis (A1) extending between the proximal and distal ends , wherein the catheter body includes a first longitudinal body portion adjacent the distal end , and a second longitudinal body portion proximal of the first longitudinal body portion , the first longitudinal body portion defining a side opening ; a tissue-removing element disposed in the first longitudinal body portion of the catheter body , wherein the tissue-removing element is extendable outside the first longitudinal body portion through the side opening ; and a tissue-removing driveshaft extending longitudinally within the first and second longitudinal body portions of the catheter body and configured for rotation about its longitudinal axis relative to the catheter body , the tissue-removing driveshaft operatively connected to the tissue-removing element to impart rotation to the tissue-removing element relative to the catheter body , characterised in that the first longitudinal body portion is rotatable about an axis extending along its length and relative to the second longitudinal body portion to adjust the angular position of the first longitudinal body portion and the side opening relative to the second longitudinal body portion . a catheter body configured for insertion in the body lumen, the catheter body having a proximal end , a distal end , a longitudinal axis (A1) extending between the proximal and distal ends , wherein the catheter body includes a first longitudinal body portion adjacent the distal end , and a second longitudinal body portion proximal of the first longitudinal body portion , the first longitudinal body portion defining a side opening ; a tissue-removing element disposed in the first longitudinal body portion of the catheter body , wherein the tissue-removing element is extendable outside the first longitudinal body portion through the side opening ; and a tissue-removing driveshaft extending longitudinally within the first and second longitudinal body portions of the catheter body and configured for rotation about its longitudinal axis relative to the catheter body , the tissue-removing driveshaft operatively connected to the tissue-removing element to impart rotation to the tissue-removing element relative to the catheter body , characterised in that the first longitudinal body portion is rotatable about an axis extending along its length and relative to the second longitudinal body portion to adjust the angular position of the first longitudinal body portion and the side opening relative to the second longitudinal body portion .
Method for calibrating at least one position sensor in a vehicle , comprising the steps of: - storing in the vehicle a map having at least one piece of virtual location information from the surroundings of a predefined calibration route , the virtual location information being digital location information stored in the vehicle , - moving the vehicle on the predefined calibration route , - detecting at least one piece of actual location information by means of the at least one position sensor while the vehicle is moving on the predefined calibration route , the at least one position sensor being designed as a camera sensor of a camera system of the vehicle or as a distance sensor, and the piece of actual location information being a piece of physical location information which can actually be detected and/or measured by the at least one position sensor , - performing a comparison between the at least one piece of virtual location information and the at least one piece of actual location information , - calculating a map-based movement of the vehicle within the stored map based on the comparison, - calculating an odometry-based movement of the vehicle , and - calibrating the at least one position sensor using a comparison between the map-based movement and the odometry-based movement, characterized in that the predefined calibration route is located at the place of manufacture of the vehicle and the vehicle is moved on the predefined calibration route during its manufacture, the vehicle being towed on the predefined calibration route by means of a towing device without a person to drive and/or move the vehicle , objects and/or features of surroundings at the place of manufacture and/or on the production line of the vehicle serving as location information, and the actual location information and the virtual location information being in the form of objects on the calibration route , in particular in the form of calibration signs or panels. - storing in the vehicle a map having at least one piece of virtual location information from the surroundings of a predefined calibration route , the virtual location information being digital location information stored in the vehicle , - moving the vehicle on the predefined calibration route , - detecting at least one piece of actual location information by means of the at least one position sensor while the vehicle is moving on the predefined calibration route , the at least one position sensor being designed as a camera sensor of a camera system of the vehicle or as a distance sensor, and the piece of actual location information being a piece of physical location information which can actually be detected and/or measured by the at least one position sensor , - performing a comparison between the at least one piece of virtual location information and the at least one piece of actual location information , - calculating a map-based movement of the vehicle within the stored map based on the comparison, - calculating an odometry-based movement of the vehicle , and - calibrating the at least one position sensor using a comparison between the map-based movement and the odometry-based movement,
A system (200; 400; 700; 800) for performing cytometry, the system comprising: a light source (201; 401); a lens (203; 701) that focuses light from the light source (201; 401) onto a spot in a scanning location; a transport mechanism that causes relative motion between a cell in the scanning location and the spot; a sensor (207; 407; 708, 709) that indicates the intensity of light emanating from the cell as a result of illumination by the light source (201; 401), wherein the lens (203; 701) gathers light emanating from the cell for direction to the sensor (207; 407; 708, 709)_; and a processing unit that repeatedly takes readings of the light intensity indication and characterizes the light intensity along a substantially linear path across the cell . a light source (201; 401); a lens (203; 701) that focuses light from the light source (201; 401) onto a spot in a scanning location; a transport mechanism that causes relative motion between a cell in the scanning location and the spot; a sensor (207; 407; 708, 709) that indicates the intensity of light emanating from the cell as a result of illumination by the light source (201; 401), wherein the lens (203; 701) gathers light emanating from the cell for direction to the sensor (207; 407; 708, 709)_; and a processing unit that repeatedly takes readings of the light intensity indication and characterizes the light intensity along a substantially linear path across the cell .
A solar cell module comprising: solar cells (C1, C2) each including a semiconductor substrate , and first electrodes (C141) and second electrodes (C142) that extend in a first direction (X) on a surface of the semiconductor substrate , the first electrodes (C141) and the second electrodes (C142) having different polarities; conductive lines (CW1, CW2) extended in a second direction (Y) crossing the first direction (X) on the surface of the semiconductor substrate , the conductive lines (CW1, CW2) being connected to the first electrodes (C141) or the second electrodes (C142) through a conductive adhesive (CA); and an insulating adhesive portion (AT) extending in the first direction (X) on at least a portion of the surface of the semiconductor substrate , on which the conductive lines (CW1, CW2) are disposed, and being attached on a back surface of least a portion of each conductive line (CW1, CW2) and a side surface of at least a portion of each conductive line (CW1, CW2), wherein the insulating adhesive portion (AT) fixes the conductive lines (CW1, CW2) to the semiconductor substrate and to the first and second electrodes (C141, C142), and characterized in that the insulating adhesive portion (AT) overlaps a portion of each conductive line (CW1, CW2) and a plurality of the electrodes (C141, C142). solar cells (C1, C2) each including a semiconductor substrate , and first electrodes (C141) and second electrodes (C142) that extend in a first direction (X) on a surface of the semiconductor substrate , the first electrodes (C141) and the second electrodes (C142) having different polarities; conductive lines (CW1, CW2) extended in a second direction (Y) crossing the first direction (X) on the surface of the semiconductor substrate , the conductive lines (CW1, CW2) being connected to the first electrodes (C141) or the second electrodes (C142) through a conductive adhesive (CA); and an insulating adhesive portion (AT) extending in the first direction (X) on at least a portion of the surface of the semiconductor substrate , on which the conductive lines (CW1, CW2) are disposed, and being attached on a back surface of least a portion of each conductive line (CW1, CW2) and a side surface of at least a portion of each conductive line (CW1, CW2), wherein the insulating adhesive portion (AT) fixes the conductive lines (CW1, CW2) to the semiconductor substrate and to the first and second electrodes (C141, C142), and characterized in that the insulating adhesive portion (AT) overlaps a portion of each conductive line (CW1, CW2) and a plurality of the electrodes (C141, C142).
A composition comprising particles comprising ganaxolone; a hydrophilic polymer; a wetting agent; and a complexing agent, wherein the volume weighted median diameter (D50) of the particles is from 50 nm to 500 nm measured by the laser/light scattering method, wherein the complexing agent is selected from the group consisting of parabens, pharmaceutically acceptable salts thereof, and mixtures thereof.
A double walled stator housing for an attritable engine, the housing comprising: a first stator housing wall ; a second stator housing wall located radially outward from the first stator housing wall ; an air gap located between the first and the second stator housing walls ; and a plurality of support structures attached to the first stator housing wall and the second stator housing wall , spanning the air gap , characterized in that : the plurality of support structures comprises a lattice network formed of a repeating network of spar assemblies and each of the plurality of support structures has a discrete axial location within the air gap to minimize heat transfer between the first stator housing wall and the stator housing second wall . a first stator housing wall ; a second stator housing wall located radially outward from the first stator housing wall ; an air gap located between the first and the second stator housing walls ; and a plurality of support structures attached to the first stator housing wall and the second stator housing wall , spanning the air gap ,