mhurhangee/ep-ind-claims huggingface dataset:
A linear motor having an X axis direction and a Y axis direction orthogonal to the X axis direction, the linear motor comprising: a field magnet and an armature each serving as one of a rotor and a stator, the rotor being movable in the X axis direction and the Y axis direction, the field magnet comprising: a pair of planar, mutually opposing field magnet yokes; a yoke base on a first end of each of the pair of field magnet yokes in the Y axis direction; a first magnet row between the pair of field magnet yokes, the first magnet row comprising a plurality of mutually opposing pairs of first magnets along the X axis direction, the first magnets of each of the pairs having mutually different polarities; and a second magnet row between the pair of field magnet yokes, the second magnet row being to at least one of a first side and a second side of the first magnet row in the Y axis direction, the second magnet row comprising a pair of mutually opposing second magnets having mutually different polarities, the pair of mutually opposing second magnets forming a single row of a single polarity in the Y axis direction on each of the pair of field magnet yokes, the armature comprising: a first armature coil opposite the first magnet row; and a second armature coil opposite the second magnet row; wherein the first armature coil is between the mutually opposing pairs of first magnets and wherein the second armature coil is between the pair of mutually opposing second magnets. a field magnet and an armature each serving as one of a rotor and a stator, the rotor being movable in the X axis direction and the Y axis direction, the field magnet comprising: a pair of planar, mutually opposing field magnet yokes; a yoke base on a first end of each of the pair of field magnet yokes in the Y axis direction; a first magnet row between the pair of field magnet yokes, the first magnet row comprising a plurality of mutually opposing pairs of first magnets along the X axis direction, the first magnets of each of the pairs having mutually different polarities; and a second magnet row between the pair of field magnet yokes, the second magnet row being to at least one of a first side and a second side of the first magnet row in the Y axis direction, the second magnet row comprising a pair of mutually opposing second magnets having mutually different polarities, the pair of mutually opposing second magnets forming a single row of a single polarity in the Y axis direction on each of the pair of field magnet yokes, the armature comprising: a first armature coil opposite the first magnet row; and a second armature coil opposite the second magnet row; wherein the first armature coil is between the mutually opposing pairs of first magnets and wherein the second armature coil is between the pair of mutually opposing second magnets.
An ice maker including: an ice mold including a plurality of cavities and configured to be rotatable about an axis that is spaced apart from the cavities and extends longitudinally with respect to the ice mold; and a sweeping element configured to be rotatable about the axis and including a shaft with a plurality of fingers radially extending from the shaft, each of the fingers being configured to extend into a corresponding one of the cavities upon rotation of the shaft about the axis, characterised in that, during a harvesting step, the ice mold is configured to rotate in a first direction about the axis while the sweeping element is configured to rotate in a second direction about the axis that is opposite the first direction. an ice mold including a plurality of cavities and configured to be rotatable about an axis that is spaced apart from the cavities and extends longitudinally with respect to the ice mold; and a sweeping element configured to be rotatable about the axis and including a shaft with a plurality of fingers radially extending from the shaft, each of the fingers being configured to extend into a corresponding one of the cavities upon rotation of the shaft about the axis, characterised in that, during a harvesting step, the ice mold is configured to rotate in a first direction about the axis while the sweeping element is configured to rotate in a second direction about the axis that is opposite the first direction.
A polyamide resin composition comprising a polyamide resin, 1 to 10% by mass of a halogen-containing flame retardant, and 1 to 5% by mass of antimony oxide, the polyamide resin composition having a phosphorus atom concentration of 1.50 × 10 -2 % by mass or less, characterized in that the polyamide resin composition further comprises 0.001% by mass to 5.0% by mass of a light transmitting dye, wherein the light transmitting dye is a black dye. the polyamide resin composition having a phosphorus atom concentration of 1.50 × 10 -2 % by mass or less, characterized in that the polyamide resin composition further comprises 0.001% by mass to 5.0% by mass of a light transmitting dye, wherein the light transmitting dye is a black dye.
A system for heat treating a tubular, comprising: a first coil configured to circumferentially surround the tubular and induce, from without the tubular, current flow in a cylindrical portion of the tubular adjacent the first coil; a second coil configured to be inserted into a bore of the tubular and induce, from within the tubular, in conjunction with the first coil, current flow in the cylindrical portion of the tubular; and one or more controllers that control current flow to the first coil and the second coil for Inducing current flow in the tubular, the system being characterised in that the one or more controllers are configured to: provide alternating current to the first coil at a first frequency; and provide alternating current to the second coil at a second frequency; wherein the first frequency is different from the second frequency. a first coil configured to circumferentially surround the tubular and induce, from without the tubular, current flow in a cylindrical portion of the tubular adjacent the first coil; a second coil configured to be inserted into a bore of the tubular and induce, from within the tubular, in conjunction with the first coil, current flow in the cylindrical portion of the tubular; and one or more controllers that control current flow to the first coil and the second coil for Inducing current flow in the tubular, the system being characterised in that the one or more controllers are configured to: provide alternating current to the first coil at a first frequency; and provide alternating current to the second coil at a second frequency; wherein the first frequency is different from the second frequency. provide alternating current to the first coil at a first frequency; and provide alternating current to the second coil at a second frequency; wherein the first frequency is different from the second frequency.
A method of forming core-shell microcapsules encapsulating an acidic material, the microcapsules being obtained by condensation of a fully alkylated melamine resin precondensate in the presence of a protective colloid, the method comprising: (a) preparing an aqueous dispersion in water of an acrylic acid-alkyl acrylate copolymer, a fully alkylated melamine resin precondensate, and adjusting the pH of the aqueous dispersion to be pH 5 or less; (b) adding an acidic core material to the aqueous dispersion while applying high shear agitation to form an emulsion with droplet or particle size of less than 50 microns; (c) adding a sulfate salt to the emulsion; (d) heating to effect polycondensation of the alkylated melamine resin precondensate, thereby enwrapping particles or droplets of the acidic core material with polymeric shells of the polycondensed alkylated melamine resin, and, (e) further heating to cure the microcapsules. (a) preparing an aqueous dispersion in water of an acrylic acid-alkyl acrylate copolymer, a fully alkylated melamine resin precondensate, and adjusting the pH of the aqueous dispersion to be pH 5 or less; (b) adding an acidic core material to the aqueous dispersion while applying high shear agitation to form an emulsion with droplet or particle size of less than 50 microns; (c) adding a sulfate salt to the emulsion; (d) heating to effect polycondensation of the alkylated melamine resin precondensate, thereby enwrapping particles or droplets of the acidic core material with polymeric shells of the polycondensed alkylated melamine resin, and, (e) further heating to cure the microcapsules.
A divider for dividing a carton pack of flat-folded cartons into a plurality of stacks (15, 16, 17) of flat-folded cartons, where the divider comprises a magazine adapted to hold the carton pack, where the magazine comprises a stop member, where the magazine is arranged in an inclined position, and where the divider comprises a pusher member and a holder foot, characterized in that the pusher member is adapted to compress the carton pack between the pusher member and the stop member, that the holder foot is adapted to bear on a first side of the compressed carton pack, and that the pusher member is adapted to release the pressure on the carton pack when the holder foot bears on the first side of the carton pack, thereby creating a low density area adjacent a first carton stack.
A method for allocating frequency resources for at least two wireless devices in a cell of a wireless communication network, wherein semi-persistent scheduling, SPS, transmissions and automatic retransmissions are applied for the at least two wireless devices, and wherein a time difference between an SPS transmission and a first automatic retransmission related to the SPS transmission is determined by a round trip time value, the method being performed in a radio base station serving the cell, and the method comprising: - determining at least two different sets of frequency resources for the SPS transmissions of the at least two wireless devices, and - allocating frequency resources for the SPS transmissions of the at least two wireless devices within an SPS period, such that the allocated frequency resources change between two of the at least two different sets every round trip time value. - determining at least two different sets of frequency resources for the SPS transmissions of the at least two wireless devices, and - allocating frequency resources for the SPS transmissions of the at least two wireless devices within an SPS period, such that the allocated frequency resources change between two of the at least two different sets every round trip time value.
A system for monitoring a subject (101, 202), the system comprising: an analyzer configured to receive (i) a signal comprising a measured respiratory parameter of the subject (101, 202), the respiratory parameter including respiratory movement, and (ii) subjective response data from a data capture device; and store, in a memory, at least a plurality of respiratory features derived from the respiratory parameter, wherein the analyzer is configured to calculate a respiratory effort envelope that indicates a relative amplitude of respiratory effort based on the respiratory parameter and derive one or more of the plurality of respiratory features from the calculated respiratory effort envelope, wherein the analyzer is configured to combine one or more of the plurality of respiratory features with a plurality of features based on the subjective response data to determine an output that provides a health assessment of the subject (101, 202). an analyzer configured to receive (i) a signal comprising a measured respiratory parameter of the subject (101, 202), the respiratory parameter including respiratory movement, and (ii) subjective response data from a data capture device; and store, in a memory, at least a plurality of respiratory features derived from the respiratory parameter, receive (i) a signal comprising a measured respiratory parameter of the subject (101, 202), the respiratory parameter including respiratory movement, and (ii) subjective response data from a data capture device; and store, in a memory, at least a plurality of respiratory features derived from the respiratory parameter, wherein the analyzer is configured to calculate a respiratory effort envelope that indicates a relative amplitude of respiratory effort based on the respiratory parameter and derive one or more of the plurality of respiratory features from the calculated respiratory effort envelope, wherein the analyzer is configured to combine one or more of the plurality of respiratory features with a plurality of features based on the subjective response data to determine an output that provides a health assessment of the subject (101, 202).
A power module substrate comprising: a ceramic substrate made of Al 2 O 3; and a copper sheet made of copper or a copper alloy laminated and bonded onto a surface of the ceramic substrate, wherein an oxide layer is formed on the surface of the ceramic substrate between the copper sheet and the ceramic substrate, an Ag-Cu eutectic structure layer is formed on the oxide layer, a thickness of the Ag-Cu eutectic structure layer is 15 μm or less, and the oxide layer contains oxides of one or more elements selected from Ti, Hf, Zr, and Nb. an oxide layer is formed on the surface of the ceramic substrate between the copper sheet and the ceramic substrate, an Ag-Cu eutectic structure layer is formed on the oxide layer, a thickness of the Ag-Cu eutectic structure layer is 15 μm or less, and the oxide layer contains oxides of one or more elements selected from Ti, Hf, Zr, and Nb.
A method for preparing molecular sieve SSZ-99, comprising: (a) preparing a reaction mixture containing at least one source of at least one oxide of a tetravalent element; one or more sources of one or more oxides selected from the group consisting of oxides of trivalent elements, pentavalent elements, and mixtures thereof; at least one source of an element selected from Groups 1 and 2 of the Periodic Table; hydroxide ions; a methylethyldiisopropylammonium cation; and water; and (b) subjecting the reaction mixture to crystallization condition sufficient to form crystals of the molecular sieve. (a) preparing a reaction mixture containing at least one source of at least one oxide of a tetravalent element; one or more sources of one or more oxides selected from the group consisting of oxides of trivalent elements, pentavalent elements, and mixtures thereof; at least one source of an element selected from Groups 1 and 2 of the Periodic Table; hydroxide ions; a methylethyldiisopropylammonium cation; and water; and (b) subjecting the reaction mixture to crystallization condition sufficient to form crystals of the molecular sieve.
A medical kiosk designed to provide tele-med services to a user said medical kiosk having a kiosk structure that includes a front panel (140, 150), a plurality of medical devices and a user video conferencing system, said user video conferencing system designed to enable the user to have a real-time or near real-time tele-conference with a medical provider located remotely from said medical kiosk, said user video conferencing system includes a first display screen, information entry device, a camera, and a computer system and videoconferencing software, said first display screen configured to display said medical provider during a tele-conference between said user and said medical provider, said information entry device configured to enable said user to enter information, said first display screen and said information entry device positioned in said kiosk such that said user can simultaneously view said first display screen and said information entry device, said computer system and videoconferencing software including electronic hardware and software to form a video connection between said medical kiosk and the remotely-located medical provider so that the remotely-located medical provider is displayed in real-time or near real-time on said first display screen, characterized by the medical kiosk having a modular design wherein an interior chamber is defined by one or more sidewalls, front panels, rear panels, and floor panels, and wherein said interior chamber is sized and configured to allow access within the interior chamber, and each of said one or more sidewalls, front panels, rear panels, and floor panels defines a length and a width capable of fitting through a standard door; and the interior chamber is provided with one or more medical compartments, wherein at least one of said compartments includes at least one medical device configured for use by the user to provide information to the medical provider about the user to enable the medical provider to provide real-time or near real-time medical advice to the user while the user is in said kiosk; and wherein the one or more medical compartment is a remotely controlled lockable medical compartment, wherein said medical provider can remotely and selectively lock or unlock the medical compartment.
A force sensing display device comprising an array substrate, the array substrate comprising: a base substrate; a first layer, located on the base substrate, comprising a force electrode configured to detect a touch force; a buffer layer, located on the first layer; a thin film transistor, comprising a gate electrode located on the buffer layer; and a second layer, comprising a force electrode wire and the gate electrode, wherein the force electrode wire and the force electrode are electrically connected, a via hole, wherein the thin film transistor further comprises a gate insulating layer, the gate insulating layer is located on the buffer layer, the via hole runs through the buffer layer and the gate insulating layer, and the force electrode wire and the force electrode are electrically connected through the via hole, characterized by a middle frame, wherein the middle frame and the force electrode are located at two sides of the base substrate that are opposite to each other, respectively, a dielectric medium provided between the array substrate and the middle frame, wherein the force electrode and the middle frame form a detection capacitor (Cf) therebetween, and the force sensing display device being configured so that upon finger pressure, the distance between the force electrode and the middle frame changes, the detection capacitor (Cf) changes, and touch force is detected. a base substrate; a first layer, located on the base substrate, comprising a force electrode configured to detect a touch force; a buffer layer, located on the first layer; a thin film transistor, comprising a gate electrode located on the buffer layer; and a second layer, comprising a force electrode wire and the gate electrode, wherein the force electrode wire and the force electrode are electrically connected, a via hole, wherein the thin film transistor further comprises a gate insulating layer, the gate insulating layer is located on the buffer layer, the via hole runs through the buffer layer and the gate insulating layer, and the force electrode wire and the force electrode are electrically connected through the via hole, characterized by a middle frame, wherein the middle frame and the force electrode are located at two sides of the base substrate that are opposite to each other, respectively, a dielectric medium provided between the array substrate and the middle frame, wherein the force electrode and the middle frame form a detection capacitor (Cf) therebetween, and the force sensing display device being configured so that upon finger pressure, the distance between the force electrode and the middle frame changes, the detection capacitor (Cf) changes, and touch force is detected.
A method for producing images of a heart in a living subject, comprising the steps of: acquiring measurements of electrical signals passing through said heart at different locations in said heart and determining respective spatial coordinates of said locations; generating an electrical activation map of said heart responsively to said electrical signals; acquiring an ultrasound image of said heart; registering said electrical activation map with said ultrasound image; and automatically identifying anatomic structures on said ultrasound image by correlating spatial map coordinates on said registered electrical map with spatial image coordinates on said ultrasound image. acquiring measurements of electrical signals passing through said heart at different locations in said heart and determining respective spatial coordinates of said locations; generating an electrical activation map of said heart responsively to said electrical signals; acquiring an ultrasound image of said heart; registering said electrical activation map with said ultrasound image; and automatically identifying anatomic structures on said ultrasound image by correlating spatial map coordinates on said registered electrical map with spatial image coordinates on said ultrasound image.
A gas turbine engine comprising: a fan shaft arranged along an engine central axis; a frame supporting the fan shaft, the frame defining a frame lateral stiffness FLS; a gear system rotatably coupled to the fan shaft; and a first flexible coupling and a second flexible coupling at least partially supporting the gear system, the first flexible coupling and the second flexible coupling being subject to the following motions, with respect to the engine central axis, Motion I, Motion II, Motion III, Motion IV and combinations thereof, wherein, Motion I is parallel offset guided end motion, Motion II is cantilever beam free end motion and Motion III is angular misalignment no offset motion and Motion IV is axial motion, the first flexible coupling and the second flexible coupling each having Stiffnesses A, B, C, D and E defined with respect to the frame lateral stiffness FLS, wherein Stiffness A is axial stiffness under Motion IV, Stiffness B is radial stiffness under Motion II, Stiffness C is radial stiffness under Motion I, Stiffness D is torsional stiffness under Motion I, and Stiffness E is angular stiffness under Motion III, characterized in that: a ratio of FLS/Stiffness B of the first coupling is in a range of about 10.0 to 40.0, and a ratio FLS/Stiffness B of the second coupling is in a range of 33.0 to 1000.0, and/or a ratio of FLS/Stiffness C of the first coupling is in a range of 1.5 to 7.0, and a ratio FLS/Stiffness C of the second coupling is in a range of 16.0 to above 100.0. a fan shaft arranged along an engine central axis; a frame supporting the fan shaft, the frame defining a frame lateral stiffness FLS; a gear system rotatably coupled to the fan shaft; and a first flexible coupling and a second flexible coupling at least partially supporting the gear system, the first flexible coupling and the second flexible coupling being subject to the following motions, with respect to the engine central axis, Motion I, Motion II, Motion III, Motion IV and combinations thereof, wherein, Motion I is parallel offset guided end motion, Motion II is cantilever beam free end motion and Motion III is angular misalignment no offset motion and Motion IV is axial motion, the first flexible coupling and the second flexible coupling each having Stiffnesses A, B, C, D and E defined with respect to the frame lateral stiffness FLS, wherein Stiffness A is axial stiffness under Motion IV, Stiffness B is radial stiffness under Motion II, Stiffness C is radial stiffness under Motion I, Stiffness D is torsional stiffness under Motion I, and Stiffness E is angular stiffness under Motion III,