mhurhangee/ep-ind-claims huggingface dataset:
A joint assembly for an endovascular device, comprising: a shaft (100, 200, 400) comprising a main body (110, 210, 410) and an enlarged end (112, 212, 412), wherein the enlarged end (112, 212, 412) of the shaft (100, 220, 400) defines a shaft step with the main body (110, 220, 410) of the shaft (100, 200, 400); a proximal strut (120, 220, 420) at the proximal end of the endovascular device, wherein the proximal strut (120, 220, 420) comprises a slot (122, 422), wherein the slot (122, 422) engages the enlarged end (112, 212, 412) of the shaft (100, 200, 400); and a locking collar (130, 170, 230, 430) comprising a proximal face and a distal face, and at least partially covering the enlarged end (112, 212, 412) of the shaft (100, 200, 400) and the slot (122, 422) of the proximal strut (120, 220, 420); characterised in that at least a portion of the enlarged end (112,212,412) is received in the proximal strut slot (122,422). a shaft (100, 200, 400) comprising a main body (110, 210, 410) and an enlarged end (112, 212, 412), wherein the enlarged end (112, 212, 412) of the shaft (100, 220, 400) defines a shaft step with the main body (110, 220, 410) of the shaft (100, 200, 400); a proximal strut (120, 220, 420) at the proximal end of the endovascular device, wherein the proximal strut (120, 220, 420) comprises a slot (122, 422), wherein the slot (122, 422) engages the enlarged end (112, 212, 412) of the shaft (100, 200, 400); and a locking collar (130, 170, 230, 430) comprising a proximal face and a distal face, and at least partially covering the enlarged end (112, 212, 412) of the shaft (100, 200, 400) and the slot (122, 422) of the proximal strut (120, 220, 420); characterised in that at least a portion of the enlarged end (112,212,412) is received in the proximal strut slot (122,422).
Motor vehicle lock, wherein a lock latch, a pawl, which is assigned to the lock latch, and a lock striker bracket, which lock striker bracket comprises a latch bar and a frame bar, are provided, wherein the lock latch can be brought into an open position and into at least one latching position, wherein the lock latch, when in one of the latching positions, is or may be brought into holding engagement with the latch bar, wherein a closing cycle of the motor vehicle lock comprises moving the lock latch from the open position to the at least one latching position, wherein the pawl may fall into at least one engagement position, in which it is in blocking engagement with a preliminary latching detent or a main latching detent of the lock latch for blocking the lock latch in its preliminary latching position or its main latching position, wherein the pawl may be deflected into at least one release position, in which it releases the lock latch, wherein the motor vehicle lock comprises a braking arrangement arranged such that a contact surface of the braking arrangement can be brought into a braking engagement with a counterpart such that a contact force exerted by the contact surface provides a braking force against movement of the lock latch, characterized in that the braking force is acting between the lock latch and the frame bar and that the braking arrangement is configured to block movement of the lock latch beyond a limit position in a direction of movement of the closing cycle through the contact force.
A communication device configured to operate as a base station, the communication device comprising: a determination unit configured to determine a communication status in a basic service set, BSS, of the communication device; and a control unit configured to control transmission and reception of a signal regarding connection change of a terminal to and from a surrounding base station according to the communication status, wherein: the control unit is configured to control transmission of an inquiry signal inquiring of the surrounding base station availability of acceptance of a subordinate terminal; the determination unit is configured to determine presence of a small number of terminals each having a first parameter falling outside a distribution of entire subordinate terminals, the first parameter representing an index of communication quality of the terminal; and the control unit is configured to control transmission of the inquiry signal inquiring of the surrounding base station availability of acceptance of the small number of terminals. a determination unit configured to determine a communication status in a basic service set, BSS, of the communication device; and a control unit configured to control transmission and reception of a signal regarding connection change of a terminal to and from a surrounding base station according to the communication status, wherein: the control unit is configured to control transmission of an inquiry signal inquiring of the surrounding base station availability of acceptance of a subordinate terminal; the determination unit is configured to determine presence of a small number of terminals each having a first parameter falling outside a distribution of entire subordinate terminals, the first parameter representing an index of communication quality of the terminal; and the control unit is configured to control transmission of the inquiry signal inquiring of the surrounding base station availability of acceptance of the small number of terminals. the control unit is configured to control transmission of an inquiry signal inquiring of the surrounding base station availability of acceptance of a subordinate terminal; the determination unit is configured to determine presence of a small number of terminals each having a first parameter falling outside a distribution of entire subordinate terminals, the first parameter representing an index of communication quality of the terminal; and the control unit is configured to control transmission of the inquiry signal inquiring of the surrounding base station availability of acceptance of the small number of terminals.
A gas turbine engine having at least one spool assembly, the at least one spool assembly comprising a fan rotor, a compressor disposed downstream of the fan rotor, a turbine and a shaft connecting the fan rotor, compressor and turbine, means affixed to an upstream end of the shaft for connecting the fan rotor to the shaft in a first link and for connecting the compressor to the shaft in a second link; characterised in that: the second link is less rigid than the first link for reducing transmissibility of deflection through the means from the fan rotor to the compressor. the second link is less rigid than the first link for reducing transmissibility of deflection through the means from the fan rotor to the compressor.
A method for producing audio from electrical signals within a data processing device, the method comprising: receiving, at the data processing device, a stream of audio input data; identifying, in the audio input data, an onset of an audio event; selecting a discrete analysis window from the audio data based on the location of the onset of the audio event in the audio data; generating, by the data processing device, an n-dimensional representation of the audio event by evaluating the contents of the analysis window and recording the results of the analysis; classifying the audio event by comparing the n-dimensional representation of the audio event to expected representations of audio events, such as those stored in a database or generated by a user trained model, along a plurality of the n dimensions; outputting a sound selected based on the classification of the audio event; wherein the n-dimensional representation is compared geometrically to a plurality of audio zones defined by expected signal parameters in at least two of the n-dimensions, and wherein when the n-dimensional representation is within one of the audio zones, the audio event is classified in accordance with the corresponding audio zone and the sound is a sample sound of the corresponding audio zone; characterized in that when the n-dimensional representation is not within one of the audio zones, the sound is a combination of elements of the sample sounds of a plurality of the audio zones based on a geometric Euclidean distance between the n-dimensional representation and the audio zones along at least two dimensions. receiving, at the data processing device, a stream of audio input data; identifying, in the audio input data, an onset of an audio event; selecting a discrete analysis window from the audio data based on the location of the onset of the audio event in the audio data; generating, by the data processing device, an n-dimensional representation of the audio event by evaluating the contents of the analysis window and recording the results of the analysis; classifying the audio event by comparing the n-dimensional representation of the audio event to expected representations of audio events, such as those stored in a database or generated by a user trained model, along a plurality of the n dimensions; outputting a sound selected based on the classification of the audio event; wherein the n-dimensional representation is compared geometrically to a plurality of audio zones defined by expected signal parameters in at least two of the n-dimensions, and wherein when the n-dimensional representation is within one of the audio zones, the audio event is classified in accordance with the corresponding audio zone and the sound is a sample sound of the corresponding audio zone; characterized in that when the n-dimensional representation is not within one of the audio zones, the sound is a combination of elements of the sample sounds of a plurality of the audio zones based on a geometric Euclidean distance between the n-dimensional representation and the audio zones along at least two dimensions.
Apparatus to apply an adhesive on articles, comprising: - a support and movement member configured to support said articles and make them move forward in a direction of movement; - a delivery device to deliver a substrate in the form of a strip, which is provided on one surface with said adhesive; wherein it further comprises - an applicator device configured to apply part of the adhesive present on said substrate onto said articles, wherein said applicator device comprises a distributor roller on which said substrate partly winds with the surface on which said adhesive is present facing toward the outside; - a separation device to separate said substrate, together with the residual adhesive, from said articles; and - a recovery device to recover said residual adhesive present on said substrate, positioned downstream of said separation device, a coating device located downstream of said recovery device and configured to coat said articles with said substrate from which said residual adhesive has been removed. - a support and movement member configured to support said articles and make them move forward in a direction of movement; - a delivery device to deliver a substrate in the form of a strip, which is provided on one surface with said adhesive; wherein it further comprises - an applicator device configured to apply part of the adhesive present on said substrate onto said articles, wherein said applicator device comprises a distributor roller on which said substrate partly winds with the surface on which said adhesive is present facing toward the outside; - a separation device to separate said substrate, together with the residual adhesive, from said articles; and - a recovery device to recover said residual adhesive present on said substrate, positioned downstream of said separation device, a coating device located downstream of said recovery device and configured to coat said articles with said substrate from which said residual adhesive has been removed.
A method to operate a laundry drying machine, wherein the laundry drying machine comprises: a control device, an accommodation chamber for accommodating laundry, an air circulation channel in communication with the accommodation chamber, and a condensation valve for supplying water into the air circulation channel to condense humidity from air coming from the accommodation chamber; the method which comprises executing a preheating step; in the preheating step, providing heated air in the accommodation chamber and turning off the condensation valve; the method characterized by further comprising: performing a detecting step for detecting condensation water after the preheating step; in the detecting step, stopping providing heated air in the accommodation chamber, turning on the condensation valve, and determine, according to a temperature change at a specific position in the air circulation channel, a quantity of water supplied by the condensation valve.
A pointer type Bluetooth intelligently time-corrected clock movement, comprising a movement body, wherein the bottom of the movement body is provided with a cell box; the surface of the cell box is provided with a disassembling hole; an hourly chiming module is provided at one side of the cell box; a central microprocessor is provided at one side of the hourly chiming module; a Bluetooth communication module is provided at one side of the central microprocessor; a power management circuit is provided at the other side of the cell box; a display screen is provided at one end of the power management circuit; a sensor module is provided at one side of the display screen; a fastening screw hole is formed in one side of the sensor module; a gear assembly is provided at one side of the Bluetooth communication module; an optic-coupling sensor is provided at one side of the gear assembly; an environment monitoring module is provided at one side of the optic-coupling sensor; a stepping motor is provided at the bottom of the gear assembly; a key switch is provided at the other side of the Bluetooth communication module, wherein: the Bluetooth communication module is configured to time-update information and to transmit the time-update information to the central microprocessor, the central microprocessor is configured to convert received time-update information and to drive the stepper motor to drive the gear assembly to correct the time indicated by a clock pointer; and the optic coupling sensor is configured to detect a location deviation of the gear assembly so that the location deviation can be corrected. the Bluetooth communication module is configured to time-update information and to transmit the time-update information to the central microprocessor, the central microprocessor is configured to convert received time-update information and to drive the stepper motor to drive the gear assembly to correct the time indicated by a clock pointer; and the optic coupling sensor is configured to detect a location deviation of the gear assembly so that the location deviation can be corrected.
A ball screw device comprising: a screw shaft that has a first thread groove on an outer peripheral surface; a nut that has a second thread groove provided on an inner peripheral surface, a notch provided on an end face, and a return hole provided in a bottom surface of the notch orthogonal to an axial direction of the screw shaft and passing through in the axial direction; a plurality of balls that roll between the first thread groove and the second thread groove; and an end deflector that fits into the notch, wherein the nut comprises a curved surface portion at a position of a lateral surface of the notch between the second thread groove and the return hole, the ball screw device characterized in that: the curved surface portion includes, in a first section obtained by cutting the nut with a plane orthogonal to the axial direction and passing through the second thread groove and the notch, a portion that draws an arc centered at a point positioned outside the second thread groove in a radial direction around a rotation axis of the nut. a screw shaft that has a first thread groove on an outer peripheral surface; a nut that has a second thread groove provided on an inner peripheral surface, a notch provided on an end face, and a return hole provided in a bottom surface of the notch orthogonal to an axial direction of the screw shaft and passing through in the axial direction; a plurality of balls that roll between the first thread groove and the second thread groove; and an end deflector that fits into the notch, wherein the nut comprises a curved surface portion at a position of a lateral surface of the notch between the second thread groove and the return hole, the ball screw device characterized in that: the curved surface portion includes, in a first section obtained by cutting the nut with a plane orthogonal to the axial direction and passing through the second thread groove and the notch, a portion that draws an arc centered at a point positioned outside the second thread groove in a radial direction around a rotation axis of the nut.
A method for sanitizing an electric motor, the method comprising: setting operational parameters for the electric motor for destroying targeted microbes; and energizing the electric motor using the set operational parameters, wherein setting the operational parameters of the electric motor comprises providing a current waveform of varying frequency to windings of the electric motor to cause vibration at frequencies at which the targeted microbes will be destroyed. setting operational parameters for the electric motor for destroying targeted microbes; and energizing the electric motor using the set operational parameters, wherein setting the operational parameters of the electric motor comprises providing a current waveform of varying frequency to windings of the electric motor to cause vibration at frequencies at which the targeted microbes will be destroyed.
An RF power amplifier circuit configured to provide an output of at least 100 W to a load having a load impedance and comprising a field effect transistor (111, 113), wherein a drain of the field effect transistor (111, 113) is connected with a protective feedback circuit and the protective feedback circuit is arranged to reduce an over-voltage energy at the drain of the field effect transistor (111, 113) if the voltage between the gate and a drain of the field effect transistor (111, 113) exceeds a feedback threshold voltage due to reflected power caused by a mismatch between the load impedance and the RF power amplifier circuit, characterized in that the protective feedback circuit comprises a capacitance arranged between the drain and the gate of the field effect transistor (111, 113), wherein at least one avalanche diode is arranged parallel to the capacitance, the protective feedback circuit comprises a switching diode arranged between the capacitance and the drain, and the protective feedback circuit comprises a resistor arranged between the at least one avalanche diode and the gate of the field effect transistor (111, 113). characterized in that the protective feedback circuit comprises a capacitance arranged between the drain and the gate of the field effect transistor (111, 113), wherein at least one avalanche diode is arranged parallel to the capacitance, the protective feedback circuit comprises a switching diode arranged between the capacitance and the drain, and the protective feedback circuit comprises a resistor arranged between the at least one avalanche diode and the gate of the field effect transistor (111, 113).
An electric vehicle capable of making a turn while leaning a vehicle body, comprising: a non-drive wheel rotatable with steering operation; a pair of right and left drive wheels (35R, 35L) provided separately from the non-drive wheel; a support mechanism rockably supported by the vehicle body and configured to support the pair of drive wheels (35R, 35L) such that they are vertically movable; and a pair of motors (33R, 33L) corresponding to the pair of drive wheels (35R, 35L), respectively; the support mechanism includes: a right support mechanism rockably supported by the vehicle body and configured to support the right drive wheel such that it is vertically movable; and a left support mechanism rockably supported by the vehicle body and configured to support the left drive wheel such that it is vertically movable; characterized in that the electric vehicle comprises a controller configured to adjust a lean angle of the vehicle body by controlling the motors (33R, 33L) to rotate only one of the drive wheels (35R, 35L) or both drive wheels (35R, 35L) in opposite directions, when the vehicle stands still. a non-drive wheel rotatable with steering operation; a pair of right and left drive wheels (35R, 35L) provided separately from the non-drive wheel; a support mechanism rockably supported by the vehicle body and configured to support the pair of drive wheels (35R, 35L) such that they are vertically movable; and a pair of motors (33R, 33L) corresponding to the pair of drive wheels (35R, 35L), respectively; the support mechanism includes: a right support mechanism rockably supported by the vehicle body and configured to support the right drive wheel such that it is vertically movable; and a left support mechanism rockably supported by the vehicle body and configured to support the left drive wheel such that it is vertically movable; characterized in that the electric vehicle comprises a controller configured to adjust a lean angle of the vehicle body by controlling the motors (33R, 33L) to rotate only one of the drive wheels (35R, 35L) or both drive wheels (35R, 35L) in opposite directions, when the vehicle stands still. a right support mechanism rockably supported by the vehicle body and configured to support the right drive wheel such that it is vertically movable; and a left support mechanism rockably supported by the vehicle body and configured to support the left drive wheel such that it is vertically movable; characterized in that the electric vehicle comprises a controller configured to adjust a lean angle of the vehicle body by controlling the motors (33R, 33L) to rotate only one of the drive wheels (35R, 35L) or both drive wheels (35R, 35L) in opposite directions, when the vehicle stands still.
A system for detecting and controlling temperature of a layered heater, the system comprising the layered heater and an overtemperature detection circuit; the layered heater comprising: a substrate; a first dielectric layer disposed on the substrate; a sensor layer having a sensor termination and disposed on the first dielectric layer; a second dielectric layer disposed on the sensor layer; a resistive heating layer having a heater termination and disposed on the second dielectric layer; and a third dielectric layer disposed on the resistive heating layer; the overtemperature detection circuit being operatively connected to the resistive heating layer, the overtemperature detection circuit comprising the sensor layer (28, 70, 80) and an electromechanical relay (R2.2) in parallel with the sensor layer; the system being characterised in that the over temperature detection circuit further comprises a resistor, the electromechanical relay being in parallel with the resistor; and in that the sensor layer defines a material having a relatively high temperature coefficient of resistance TCR and the resistive heating layer defines a material having a relatively low TCR such that a response time of the control system is less than about 1 second.