mhurhangee/patent-ind-claim-en huggingface dataset:
A stator structure, comprising: a stator ; a housing including a tubular section , the stator being accommodated in the tubular section ; a cover coupled to the housing for blocking an upper opening of the tubular section ; and a bent wire rod composed of a wire for pressing the stator against the tubular section , the bent wire rod being in contact with a top face of the stator and a rear face of the cover in a compressed state so as to be deformed along an axis (R) substantially conforming to the central axis of the tubular section , the bent wire rod having a substantially annular shape with an opened portion when seen along the axis (R), and including projections projecting upward along the axis (R) and depressions projecting downward along the axis (R), the projections and depressions being arranged alternately and successively, the bent wire rod being arranged such that the projections are in contact with the rear face of the cover and the depressions are in contact with the top face of the stator , the stator includes a stator core and a coil wound around the stator core , the bent wire rod contacts a top face of the stator core directly, and the stator further includes a restricting element disposed on the top face of the stator core and inside from an outer peripheral edge of the stator core for restricting shifting of the bent wire rod radially and inwardly. a stator ; a housing including a tubular section , the stator being accommodated in the tubular section ; a cover coupled to the housing for blocking an upper opening of the tubular section ; and a bent wire rod composed of a wire for pressing the stator against the tubular section , the bent wire rod being in contact with a top face of the stator and a rear face of the cover in a compressed state so as to be deformed along an axis (R) substantially conforming to the central axis of the tubular section , the bent wire rod having a substantially annular shape with an opened portion when seen along the axis (R), and including projections projecting upward along the axis (R) and depressions projecting downward along the axis (R), the projections and depressions being arranged alternately and successively, the bent wire rod being arranged such that the projections are in contact with the rear face of the cover and the depressions are in contact with the top face of the stator , the stator includes a stator core and a coil wound around the stator core , the bent wire rod contacts a top face of the stator core directly, and the stator further includes a restricting element disposed on the top face of the stator core and inside from an outer peripheral edge of the stator core for restricting shifting of the bent wire rod radially and inwardly.
A radially expandable, tubular stent, comprising: first section having a first crush resistance force and a second section having a second crush resistance force, wherein the first crush resistance force is less than the second crush resistance force; and the first section connected to the second section to form a tube , connection of the first and second sections extending in tube-axial direction of the tube , wherein: the stent comprises two first sections and two second sections connected to form the tube , the first sections are between the second sections such that second sections are separated from each other by a first section and the first sections are separated from each other by a second section, the first sections are symmetrical about a first axis and the second sections are symmetrical about a second axis, the first and second axes being axes of a cross section of the tube substantially perpendicular to the tube-axial direction of the tube, and wherein a length of the first axis is greater than a length of the second axis. first section having a first crush resistance force and a second section having a second crush resistance force, wherein the first crush resistance force is less than the second crush resistance force; and the first section connected to the second section to form a tube , connection of the first and second sections extending in tube-axial direction of the tube , the stent comprises two first sections and two second sections connected to form the tube , the first sections are between the second sections such that second sections are separated from each other by a first section and the first sections are separated from each other by a second section, the first sections are symmetrical about a first axis and the second sections are symmetrical about a second axis, the first and second axes being axes of a cross section of the tube substantially perpendicular to the tube-axial direction of the tube, and wherein a length of the first axis is greater than a length of the second axis.
A component mounter comprising: a mounting head configured to support one or multiple holding members for holding a component in such a manner so as to enable the one or multiple holding members to be lifted up and lowered; a camera device configured to image an imaging target that falls within a camera visual field , the camera device is provided on the mounting head , and the component mounter further comprises an optical device comprising a combination of reflection members and prisms , characterized in the combination is configured to optically form the three or more light paths corresponding individually to three or more imaging targets each including at least one of the holding member , the component held by the holding member , and a constituent member of the mounting head and to optically collect the three or more light paths so formed to enable the imaging targets to fall within the camera visual field while the three or more light paths being caused to deviate in a first horizontal direction and a second direction direction of the component mounter , wherein the second horizontal direction is orthogonal to the first horizontal direction, so that the three or more light paths and the corresponding imaging targets are aligned in a row direction and a column direction that is orthogonal to the row direction in the camera visual field . a mounting head configured to support one or multiple holding members for holding a component in such a manner so as to enable the one or multiple holding members to be lifted up and lowered; a camera device configured to image an imaging target that falls within a camera visual field , the camera device is provided on the mounting head , and the component mounter further comprises an optical device comprising a combination of reflection members and prisms , characterized in the combination is configured to optically form the three or more light paths corresponding individually to three or more imaging targets each including at least one of the holding member , the component held by the holding member , and a constituent member of the mounting head and to optically collect the three or more light paths so formed to enable the imaging targets to fall within the camera visual field while the three or more light paths being caused to deviate in a first horizontal direction and a second direction direction of the component mounter , wherein the second horizontal direction is orthogonal to the first horizontal direction, so that the three or more light paths and the corresponding imaging targets are aligned in a row direction and a column direction that is orthogonal to the row direction in the camera visual field .
A torque adapter for measuring a stall torque supplied by a rotary power source , the torque adapter comprising: a housing including an arcuate recess defined at least partly by a recess front wall and a recess back wall , the arcuate recess having a first rotational zone bounded on one side by the recess back wall , and a second rotational zone bounded on an opposite side from the first rotational zone by the recess front wall ; a mandrel rotatable relative to the housing and having a flange portion , the flange portion including an arcuate protrusion received in the arcuate recess ; a resistance subassembly including a biasing member received in the arcuate recess ; wherein the resistance subassembly is configured so that when the mandrel is rotated relative to the housing , the mandrel encounters nominal rotational resistance while the arcuate protrusion passes through the first rotational zone , and wherein the mandrel encounters increasing rotational resistance while the arcuate protrusion passes through the second rotational zone . a housing including an arcuate recess defined at least partly by a recess front wall and a recess back wall , the arcuate recess having a first rotational zone bounded on one side by the recess back wall , and a second rotational zone bounded on an opposite side from the first rotational zone by the recess front wall ; a mandrel rotatable relative to the housing and having a flange portion , the flange portion including an arcuate protrusion received in the arcuate recess ; a resistance subassembly including a biasing member received in the arcuate recess ; wherein the resistance subassembly is configured so that when the mandrel is rotated relative to the housing , the mandrel encounters nominal rotational resistance while the arcuate protrusion passes through the first rotational zone , and wherein the mandrel encounters increasing rotational resistance while the arcuate protrusion passes through the second rotational zone .
A method for preparing a water-dispersed emulsion comprising: (a) dissolving, in an organic solvent at a temperature below 100°C, a water-dispersible polyester resin comprising, as repeating units, (i) an acid component comprising 1 to 3 mol%, based on the acid component, of an aromatic dicarboxylic acid having a metal salt of sulfonic acid, and (ii) a glycol component comprising a linear glycol, wherein the polyester resin comprises at least 20 wt% of the linear glycol based on the total weight of the resin; (b) adding water at a rate of 2.5 to 5.0 g/min based on 100 g of the dissolution product to the dissolution product obtained in step (a) and then stirring the dissolution product for self-emulsification; and (c) depressurizing the self-emulsion obtained in step (b) and then removing the organic solvent to thereby prepare the water-dispersed emulsion, and wherein the water-dispersed emulsion has a solid content of 40 to 60 wt%. (a) dissolving, in an organic solvent at a temperature below 100°C, a water-dispersible polyester resin comprising, as repeating units, (i) an acid component comprising 1 to 3 mol%, based on the acid component, of an aromatic dicarboxylic acid having a metal salt of sulfonic acid, and (ii) a glycol component comprising a linear glycol, wherein the polyester resin comprises at least 20 wt% of the linear glycol based on the total weight of the resin; (b) adding water at a rate of 2.5 to 5.0 g/min based on 100 g of the dissolution product to the dissolution product obtained in step (a) and then stirring the dissolution product for self-emulsification; and (c) depressurizing the self-emulsion obtained in step (b) and then removing the organic solvent to thereby prepare the water-dispersed emulsion, and wherein the water-dispersed emulsion has a solid content of 40 to 60 wt%.
A jet mill comprising a grinding chamber and an aerosol generator arranged to supply liquid aerosol into the grinding chamber, wherein the liquid aerosol comprises at least one of a pharmaceutically active material, a pharmaceutical additive and a pharmaceutical excipient.
A method for automated input simulation in simulating a programmable logic controller, PLC, the method comprising: a) generating , on a display, a graphical user interface with sensor and set point input options; b) receiving , with a processor , a time sequence of set points, sensor readings, or set points and sensor readings from the input options of the graphical user interface, the time sequence including timing; c) simulating , with the processor , operation of the programmable logic controller as a function of the time sequence, the operation simulated in real-time based on the timing by emulating firmware of the programmable logic controller; and d) displaying , on the display, an indication of the operation in real-time during the simulating ; wherein e) the simulation determines the PLC response over time to the changes in one or more simulated inputs of the input time sequence and determines control outputs of the PLC, wherein the time sequence is defined as a sequence of discrete time steps and wherein control output values of the control outputs are determined and displayed at the discrete time steps, wherein a lack of a value or an unexpected value indicates a bug. a) generating , on a display, a graphical user interface with sensor and set point input options; b) receiving , with a processor , a time sequence of set points, sensor readings, or set points and sensor readings from the input options of the graphical user interface, the time sequence including timing; c) simulating , with the processor , operation of the programmable logic controller as a function of the time sequence, the operation simulated in real-time based on the timing by emulating firmware of the programmable logic controller; and d) displaying , on the display, an indication of the operation in real-time during the simulating ; wherein e) the simulation determines the PLC response over time to the changes in one or more simulated inputs of the input time sequence and determines control outputs of the PLC, wherein the time sequence is defined as a sequence of discrete time steps and wherein control output values of the control outputs are determined and displayed at the discrete time steps, wherein a lack of a value or an unexpected value indicates a bug.
An AC to AC power converter comprising: a rectifier configured to receive an AC signal source and to convert the AC signal source into a full wave rectified signal; an H-Bridge coupled to the rectifier; a processor coupled to the rectifier and to the H-Bridge, characterized in that the processor is configured to sample the output of the rectifier to determine the frequency of the full wave rectified signal, wherein the processor is further configured: (a) if the determined frequency is greater than a predefined value, to produce a pulse for use in pulse density modulation to modulate a rectified DC input from the rectifier to the H-Bridge; and (b) if the determined frequency is less than the predefined value, to produce a square wave signal for use by a pulse width carrier modulator to generate ramp signals for use in a pulse width modulation scheme for modulation of the output of the rectifier; a wave filter coupled to the H-Bridge configured to modulate an output of the H-Bridge to an AC voltage of a desired frequency; and wherein an output of the wave filter is coupled to the processor . a rectifier configured to receive an AC signal source and to convert the AC signal source into a full wave rectified signal; an H-Bridge coupled to the rectifier; a processor coupled to the rectifier and to the H-Bridge, characterized in that the processor is configured to sample the output of the rectifier to determine the frequency of the full wave rectified signal, wherein the processor is further configured: (a) if the determined frequency is greater than a predefined value, to produce a pulse for use in pulse density modulation to modulate a rectified DC input from the rectifier to the H-Bridge; and (b) if the determined frequency is less than the predefined value, to produce a square wave signal for use by a pulse width carrier modulator to generate ramp signals for use in a pulse width modulation scheme for modulation of the output of the rectifier; (a) if the determined frequency is greater than a predefined value, to produce a pulse for use in pulse density modulation to modulate a rectified DC input from the rectifier to the H-Bridge; and (b) if the determined frequency is less than the predefined value, to produce a square wave signal for use by a pulse width carrier modulator to generate ramp signals for use in a pulse width modulation scheme for modulation of the output of the rectifier; a wave filter coupled to the H-Bridge configured to modulate an output of the H-Bridge to an AC voltage of a desired frequency; and wherein an output of the wave filter is coupled to the processor .
A computer-implemented method of tire maintenance comprising: receiving data comprising a plurality of tire gas pressure measurements each measurement having an associated time; analyzing the received data to determine maintenance information, wherein the maintenance information comprises at least one of: an inflation event, a maximum pressure, a minimum pressure and a tire replacement event; and providing an indication based the determined maintenance information. wherein the received data relates to at least two tires on a same aircraft and the analyzing the received data comprises: comparing determined maintenance information of the at least two tires; characterised in that the analyzing the received data further comprises: determining a deflation rate of the at least two tires; and determining that the deflation rate of a first of the least two tires is greater than the deflation rate of another of the at least two tires. receiving data comprising a plurality of tire gas pressure measurements each measurement having an associated time; analyzing the received data to determine maintenance information, wherein the maintenance information comprises at least one of: an inflation event, a maximum pressure, a minimum pressure and a tire replacement event; and providing an indication based the determined maintenance information. wherein the received data relates to at least two tires on a same aircraft and the analyzing the received data comprises: comparing determined maintenance information of the at least two tires; characterised in that the analyzing the received data further comprises: determining a deflation rate of the at least two tires; and determining that the deflation rate of a first of the least two tires is greater than the deflation rate of another of the at least two tires. comparing determined maintenance information of the at least two tires; characterised in that the analyzing the received data further comprises: determining a deflation rate of the at least two tires; and determining that the deflation rate of a first of the least two tires is greater than the deflation rate of another of the at least two tires. determining a deflation rate of the at least two tires; and determining that the deflation rate of a first of the least two tires is greater than the deflation rate of another of the at least two tires.
A vibration damper , of dynamic absorber type, provided with: - two rotating members guided rotationally around an axis of revolution , wherein one of the two rotating members is an inertial flywheel oscillating around the axis of revolution and the other of the two rotating members is a member to be damped , wherein the member to be damped is arranged to be driven by a torque following a torque path between a driving member and a driven member, wherein the inertial flywheel is arranged to be connected kinematically to the torque path between the driving member and the driven member solely by way of the member to be damped; and - one or more connecting modules between the two rotating members , permitting a relative angular displacement θ between the two rotating members around the axis of revolution on the two sides of a reference relative angular position. characterized in that each connecting module is provided with: - a roller associated with a first of the two rotating members and - a cam track connected resiliently by a resilient element to a second of the two rotating members , wherein the resilient element is capable of being deformed to ensure resilient bracing of the cam track against the roller , thus permitting the roller to roll over the cam track when the two rotating members are rotating relative to one another on the two sides of the reference position. - two rotating members guided rotationally around an axis of revolution , wherein one of the two rotating members is an inertial flywheel oscillating around the axis of revolution and the other of the two rotating members is a member to be damped , wherein the member to be damped is arranged to be driven by a torque following a torque path between a driving member and a driven member, wherein the inertial flywheel is arranged to be connected kinematically to the torque path between the driving member and the driven member solely by way of the member to be damped; and - one or more connecting modules between the two rotating members , permitting a relative angular displacement θ between the two rotating members around the axis of revolution on the two sides of a reference relative angular position. - a roller associated with a first of the two rotating members and - a cam track connected resiliently by a resilient element to a second of the two rotating members , wherein the resilient element is capable of being deformed to ensure resilient bracing of the cam track against the roller , thus permitting the roller to roll over the cam track when the two rotating members are rotating relative to one another on the two sides of the reference position.