mhurhangee/ep-ind-claims huggingface dataset:
A motor driving apparatus for a home appliance, comprising: an inverter comprising at least one switching element and configured to output alternating current power to a motor; a vibration sensor configured to detect vibrations associated with driving of the motor; and a controller configured to generate a control signal for controlling the inverter, wherein the control signal includes a compensation signal for vibration reduction generated based on an output of the vibration sensor, wherein the controller is configured to control the motor to sequentially operate in a low-speed maintenance section, an acceleration section and a high-speed maintenance section, and wherein the control signal including the compensation signal for vibration reduction is generated in at least a portion of the acceleration section, characterized in that the controller is configured to generate the control signal including the compensation signal for vibration reduction within a time period from a start of the acceleration section until a rotational speed of the motor reaches a first reference revolutions per minute, RPM, and wherein the controller is configured to generate a control signal excluding the compensation signal, when the rotational speed of the motor is greater than the first reference RPM. an inverter comprising at least one switching element and configured to output alternating current power to a motor; a vibration sensor configured to detect vibrations associated with driving of the motor; and a controller configured to generate a control signal for controlling the inverter, wherein the control signal includes a compensation signal for vibration reduction generated based on an output of the vibration sensor, wherein the controller is configured to control the motor to sequentially operate in a low-speed maintenance section, an acceleration section and a high-speed maintenance section, and wherein the control signal including the compensation signal for vibration reduction is generated in at least a portion of the acceleration section, characterized in that the controller is configured to generate the control signal including the compensation signal for vibration reduction within a time period from a start of the acceleration section until a rotational speed of the motor reaches a first reference revolutions per minute, RPM, and wherein the controller is configured to generate a control signal excluding the compensation signal, when the rotational speed of the motor is greater than the first reference RPM.
A method for assembling a contact assembly for an implantable medical device, said method comprising: providing a plurality of pins; assembling a contact assembly on the plurality of pins, the contact assembly comprising: a plurality of conductive contact devices each adapted for electrically contacting a contact surface of one of the plurality of pins; and a plurality of conductive contact blocks each having an interior open portion adapted for receiving a corresponding one of said plurality of conductive contact devices in electrical contact therewith; and at least one stacking component forming a plurality of interior open portions therethrough, each interior portion having a corresponding contact block receiving portion. providing a plurality of pins; assembling a contact assembly on the plurality of pins, the contact assembly comprising: a plurality of conductive contact devices each adapted for electrically contacting a contact surface of one of the plurality of pins; and a plurality of conductive contact blocks each having an interior open portion adapted for receiving a corresponding one of said plurality of conductive contact devices in electrical contact therewith; and at least one stacking component forming a plurality of interior open portions therethrough, each interior portion having a corresponding contact block receiving portion. a plurality of conductive contact devices each adapted for electrically contacting a contact surface of one of the plurality of pins; and a plurality of conductive contact blocks each having an interior open portion adapted for receiving a corresponding one of said plurality of conductive contact devices in electrical contact therewith; and at least one stacking component forming a plurality of interior open portions therethrough, each interior portion having a corresponding contact block receiving portion.
Film for the repair of aircraft components made of fiber-reinforced thermoplastic material, comprising a film made of polyimide 21 and a coating made of an electrically conductive material 25, characterized in that the film is embossed and the embossed film 21 consists essentially of Kapton, where the electrically conductive material 25 is metal or graphite powder.
Antenna, more particularly a mobile communications antenna, comprising the following features: - a plurality of antenna devices are housed in an antenna housing, - a beam-shape control device (RET, M-RET) is connected to the antenna and comprises a microprocessor and a control device for carrying out beam shaping, - an RFID tag is provided on the antenna, characterised by the following additional features: - the beam-shape control device (RET, M-RET) comprises a read electronics unit comprising an RFID receiver antenna and/or a write electronics unit comprising an RFID transmitter antenna, - the RFID tag provided on the antenna is arranged in the receiving and/or transmitting region of the receiver and/or transmitter antenna, - unidirectional communication can be handled via the RFID receiver antenna, or bidirectional communication can be handled via the RFID transceiver antenna, and - configuration data for the antenna and/or operating data for the antenna and/or data for operating the beam-shape control device (RET, M-RET) to be connected to the antenna are stored on the RFID tag. - a plurality of antenna devices are housed in an antenna housing, - a beam-shape control device (RET, M-RET) is connected to the antenna and comprises a microprocessor and a control device for carrying out beam shaping, - an RFID tag is provided on the antenna, - the beam-shape control device (RET, M-RET) comprises a read electronics unit comprising an RFID receiver antenna and/or a write electronics unit comprising an RFID transmitter antenna, - the RFID tag provided on the antenna is arranged in the receiving and/or transmitting region of the receiver and/or transmitter antenna, - unidirectional communication can be handled via the RFID receiver antenna, or bidirectional communication can be handled via the RFID transceiver antenna, and - configuration data for the antenna and/or operating data for the antenna and/or data for operating the beam-shape control device (RET, M-RET) to be connected to the antenna are stored on the RFID tag.
An adaptive interposer assembly comprising an adaptive interposer and first and second electronic devices (20,30), wherein the adaptive interposer is operably disposable and disposed between first and second solder materials (40, 50) of the first and second electronic devices (20, 30), respectively, wherein the adaptive interposer comprises: a plate element formed to define cavities (711, 712); and third solder material disposed in the cavities (711, 712) to be electrically communicative with the first and second solder materials (40, 50); wherein the third solder material is more compliant and has a higher melting temperature than at least the second solder materials, characterised in that an uppermost plane of the third solder material and a lowermost plane of the first solder materials is flush with an uppermost plane of the plate element, and a lowermost plane of the third solder material and an uppermost plane of the second solder materials is flush with a lowermost plane of the plate element. wherein the adaptive interposer is operably disposable and disposed between first and second solder materials (40, 50) of the first and second electronic devices (20, 30), respectively, wherein the adaptive interposer comprises: a plate element formed to define cavities (711, 712); and third solder material disposed in the cavities (711, 712) to be electrically communicative with the first and second solder materials (40, 50); a plate element formed to define cavities (711, 712); and third solder material disposed in the cavities (711, 712) to be electrically communicative with the first and second solder materials (40, 50); wherein the third solder material is more compliant and has a higher melting temperature than at least the second solder materials, characterised in that an uppermost plane of the third solder material and a lowermost plane of the first solder materials is flush with an uppermost plane of the plate element, and a lowermost plane of the third solder material and an uppermost plane of the second solder materials is flush with a lowermost plane of the plate element.
A communication synchronization device for synchronizing communication (RQ, PRES) between client applications (A1, A2, A3) running in a wireless terminal and corresponding server devices (18, 20, 22) providing data for the applications, the communication synchronization device being provided in a wireless communication network and comprising: a processor and memory, said memory containing computer instructions executable by said processor whereby said communication synchronization device is operative to obtain a battery energy level indication concerning the wireless terminal, investigate the communication patterns of communications between the wireless terminal and server devices (18, 20, 22) in communication sessions (CS1, CS2, CS3) between applications (A1, A2, A3) running in the wireless terminal and said server devices (18, 20, 22), determine a downlink coordination group comprising at least some of the communication sessions based on the investigation and on the battery energy level indication, collect transmissions (PRES) made by the server devices in the communication sessions (CS1, CS2, CS3) of the downlink coordination group through aligning the collected server device transmissions with each other in time, and send the collected server device transmissions to the wireless terminal as an aggregated transmission via a common wireless link for handling by the wireless terminal. a processor and memory, said memory containing computer instructions executable by said processor whereby said communication synchronization device is operative to obtain a battery energy level indication concerning the wireless terminal, investigate the communication patterns of communications between the wireless terminal and server devices (18, 20, 22) in communication sessions (CS1, CS2, CS3) between applications (A1, A2, A3) running in the wireless terminal and said server devices (18, 20, 22), determine a downlink coordination group comprising at least some of the communication sessions based on the investigation and on the battery energy level indication, collect transmissions (PRES) made by the server devices in the communication sessions (CS1, CS2, CS3) of the downlink coordination group through aligning the collected server device transmissions with each other in time, and send the collected server device transmissions to the wireless terminal as an aggregated transmission via a common wireless link for handling by the wireless terminal.
Electrode for gas evolution in electrolytic processes comprising a metal substrate provided with a catalytic coating, said catalytic coating comprising an internal layer containing at least one element selected from the group of noble metals, in the form of metals or their oxides, and optionally one or more elements selected from the group of rare earths and/or an element selected from the group of alkaline earth metals, in the form of metals or their oxides, and an external layer comprising 80-99.5% by weight of ruthenium and 0.5-20% by weight of selenium referred to the metal elements, in the form of metals or their oxides.
A lighting assembly, comprising an optical light guide panel member having opposite sides, the panel member comprising a light conducting core cladded on opposite sides by cladding made of an optically transparent material having a lower index of refraction than the light conducting core to cause total internal reflection of conducted light within the light conducting core at the core-cladding interface, disruptions at one or more areas of the cladding to cause conducted light within the light conducting core to be emitted from one or more areas of the panel member, electrical circuitry bonded directly to the cladding on one or both sides of the panel, wherein the electrical circuitry comprises conductive traces, and one or more LEDs embedded in the panel member, the LEDs being in electrical contact with the electrical circuitry and optically coupled to the light conducting core.
A thrust reverser blocker door assembly comprising: a translating cowl forming an aft portion of an engine nacelle, the translating cowl being able to translate from a stowed position to a deployed position uncovering a gap between the translating cowl and the nacelle; an engine case within the nacelle forming an airflow duct between the translating cowl and engine case; a cascade vane set positioned in the gap; a blocker door that covers the cascade vane set when the translating cowl is in the stowed position and blocks a portion of the airflow duct when the translating cowl is in the deployed position; and a geometrically shaped drag link that is pivotally connected to the engine case at a first end and connected to the blocker door at a second end, the geometrically shaped drag link moving with the translating cowl, characterised in that the geometrically shaped drag link is a curved drag link. a translating cowl forming an aft portion of an engine nacelle, the translating cowl being able to translate from a stowed position to a deployed position uncovering a gap between the translating cowl and the nacelle; an engine case within the nacelle forming an airflow duct between the translating cowl and engine case; a cascade vane set positioned in the gap; a blocker door that covers the cascade vane set when the translating cowl is in the stowed position and blocks a portion of the airflow duct when the translating cowl is in the deployed position; and a geometrically shaped drag link that is pivotally connected to the engine case at a first end and connected to the blocker door at a second end, the geometrically shaped drag link moving with the translating cowl, characterised in that the geometrically shaped drag link is a curved drag link.
Retaining device for substrates to be coated, comprising a support device for the substrate to be coated, which has a front-side of a planar configuration for supporting the substrate and also a rear-side situated opposite the front-side, wherein at least one continuous aperture which connects the two sides of the support device is present, via which control of the gas pressure which prevails on the side of the substrate is possible characterised in that the support device is delimited by at least two oppositely situated retaining elements, wherein the retaining elements are formed by at least two arms (5, 5') which are disposed opposite each other and are delimited by walls (6, 6') and inner edges (7, 7'), the support device and the arms (5, 5') delimiting a region into which the substrate to be coated can be received and the internally situated walls (6, 6') of the arms (5, 5'), orientated towards the region for the substrate, having an angle, relative to the support surface for the substrate of the support device, of < 90°.
An elevator operating panel comprising: a touch panel provided in at least one of a hall and a car of an elevator; and a display controller for causing an operation screen of the elevator to be displayed in a display part of the touch panel, characterized in that the touch panel has a scanner function and takes in a fingerprint of a user by means of the scanner function when a finger of the user touches the display part and wherein the display controller performs fingerprint identification based on the user's fingerprint taken in by the touch panel and causes the operation screen of the elevator according to the user specified by the fingerprint identification to be displayed in the display part of the touch panel. a touch panel provided in at least one of a hall and a car of an elevator; and a display controller for causing an operation screen of the elevator to be displayed in a display part of the touch panel, characterized in that the touch panel has a scanner function and takes in a fingerprint of a user by means of the scanner function when a finger of the user touches the display part and wherein the display controller performs fingerprint identification based on the user's fingerprint taken in by the touch panel and causes the operation screen of the elevator according to the user specified by the fingerprint identification to be displayed in the display part of the touch panel.
A steering device that increases a rotary torque of a motor by a speed reducer and uses the rotary torque to turn a turning wheel, the steering device comprising: a rack shaft that is coupled to the turning wheel; a rack housing that houses the rack shaft; a pinion shaft that meshes with the rack shaft; the speed reducer having a worm wheel that is coupled to the pinion shaft and a worm shaft that meshes with the worm wheel; a speed reducer housing that houses the worm wheel; the motor that drives the worm shaft; and a plate-shaped cover that seals an opening of the speed reducer housing; and a breather valve that is mounted on the cover in a state of penetrating through the cover, characterized in that an inner surface of the cover that faces the worm wheel has an entry restricting part that restricts entry of a lubricant into the breather valve. a rack shaft that is coupled to the turning wheel; a rack housing that houses the rack shaft; a pinion shaft that meshes with the rack shaft; the speed reducer having a worm wheel that is coupled to the pinion shaft and a worm shaft that meshes with the worm wheel; a speed reducer housing that houses the worm wheel; the motor that drives the worm shaft; and a plate-shaped cover that seals an opening of the speed reducer housing; and a breather valve that is mounted on the cover in a state of penetrating through the cover, characterized in that an inner surface of the cover that faces the worm wheel has an entry restricting part that restricts entry of a lubricant into the breather valve.
An optical transmission device comprising: a dividing unit adapted to divide an optical transmission signal into a plurality of frequency components by a set number of frequency divisions and a set division bandwidth(Bdiv); a control unit adapted to control the number of frequency divisions and the division bandwidth on the basis of transmission path information about a transmission path through which the optical transmission signal is transmitted and signal information about the optical transmission signal; and a compensating unit adapted to compensate optical nonlinear distortion of each of the frequency components divided by the dividing unit. a dividing unit adapted to divide an optical transmission signal into a plurality of frequency components by a set number of frequency divisions and a set division bandwidth(Bdiv); a control unit adapted to control the number of frequency divisions and the division bandwidth on the basis of transmission path information about a transmission path through which the optical transmission signal is transmitted and signal information about the optical transmission signal; and a compensating unit adapted to compensate optical nonlinear distortion of each of the frequency components divided by the dividing unit.
A procedure for the construction of moulds designed for the thermoforming of plastic materials, wherein the procedure comprises the following steps: - providing thermoforming moulds, - cutting directly onto the mould a high quality texture with laser technology; - shaping the moulds, that is to say notch internally the moulds by means of laser technology in order to create a plurality of air vent microchannels; where said microchannels are made by laser incision, following the geometry of the texture of the surface of the moulded article to be moulded, and where - said microchannels comprise a grid or network inside the texture; - connecting said channels to a plurality of side gutter channels for flow of the air into said gutter channels; - connecting said gutter channels to a master vent hole, from which the air escapes towards the outside of the mould. - providing thermoforming moulds, - cutting directly onto the mould a high quality texture with laser technology; - shaping the moulds, that is to say notch internally the moulds by means of laser technology in order to create a plurality of air vent microchannels; where said microchannels are made by laser incision, following the geometry of the texture of the surface of the moulded article to be moulded, and where - said microchannels comprise a grid or network inside the texture; - connecting said channels to a plurality of side gutter channels for flow of the air into said gutter channels; - connecting said gutter channels to a master vent hole, from which the air escapes towards the outside of the mould.
A method of producing a porous body of a water-insoluble polymer, the method comprising the steps of: preparing a solution in which a water-insoluble polymer is dissolved in a mixed solvent containing a good solvent for the water-insoluble polymer and a poor solvent for the water-insoluble polymer, wherein the good solvent is a solvent in which the solubility of the water-insoluble polymer at 25°C is 1 mass% or more, and wherein the poor solvent is a solvent in which the solubility of the water-insoluble polymer at 25°C is less than 1 mass%, wherein when preparing the solution, heating and cooling after the heating are carried out in such a way that the good solvent and the poor solvent do not separate; and removing the mixed solvent from the solution by vaporization, wherein the poor solvent has a boiling point higher than a boiling point of the good solvent, a porous body is obtained by removing the mixed solvent by vaporization to form pores, the water-insoluble polymer is an ethylene-vinyl alcohol copolymer, the good solvent is dimethyl sulfoxide or a mixed solvent of water and propyl alcohol, and the poor solvent is γ-butyrolactone, or sulfolane. preparing a solution in which a water-insoluble polymer is dissolved in a mixed solvent containing a good solvent for the water-insoluble polymer and a poor solvent for the water-insoluble polymer, wherein the good solvent is a solvent in which the solubility of the water-insoluble polymer at 25°C is 1 mass% or more, and wherein the poor solvent is a solvent in which the solubility of the water-insoluble polymer at 25°C is less than 1 mass%, wherein when preparing the solution, heating and cooling after the heating are carried out in such a way that the good solvent and the poor solvent do not separate; and removing the mixed solvent from the solution by vaporization, wherein the poor solvent has a boiling point higher than a boiling point of the good solvent, a porous body is obtained by removing the mixed solvent by vaporization to form pores, the water-insoluble polymer is an ethylene-vinyl alcohol copolymer, the good solvent is dimethyl sulfoxide or a mixed solvent of water and propyl alcohol, and the poor solvent is γ-butyrolactone, or sulfolane.