mhurhangee/patent-ind-claim-en huggingface dataset:
A bicycle comprising: - a frame comprising a front fork and a rear fork , as well as an axle housing, - a front wheel and a rear wheel fitted to the front and rear fork respectively, - a drive axle which is bearing-mounted in the axle housing, - at least a single front sprocket which is connected to the drive axle , - at least a single rear sprocket which is connected to a driver body of a driver which driver body is connected to a wheel hub of the rear wheel , which wheel hub is positioned on a hollow wheel axle , - a chain threaded around the front and rear sprocket, - the driver including a transmission comprising at least two drives between the drive axle and wheel hub of the rear wheel and provided with actuation means for switching between the drives, and - operating means for operating the actuation means, where a storage element for storing electrical energy is coupled to the actuation means and/or operating means, and - - the transmission is present between the driver body and the wheel hub of the rear wheel and is positioned on the hollow wheel axle , where the actuation means of the transmission are electrically actuated and the operating means are electrically coupled to the actuation means, characterised by that the bicycle comprises an axle shaft inserted through the hollow wheel axle via which axle shaft the wheel axle is connected to the rear fork , and wherein the actuation means are positioned inside the driver body . - a frame comprising a front fork and a rear fork , as well as an axle housing, - a front wheel and a rear wheel fitted to the front and rear fork respectively, - a drive axle which is bearing-mounted in the axle housing, - at least a single front sprocket which is connected to the drive axle , - at least a single rear sprocket which is connected to a driver body of a driver which driver body is connected to a wheel hub of the rear wheel , which wheel hub is positioned on a hollow wheel axle , - a chain threaded around the front and rear sprocket, - the driver including a transmission comprising at least two drives between the drive axle and wheel hub of the rear wheel and provided with actuation means for switching between the drives, and - operating means for operating the actuation means, - - the transmission is present between the driver body and the wheel hub of the rear wheel and is positioned on the hollow wheel axle , where the actuation means of the transmission are electrically actuated and the operating means are electrically coupled to the actuation means, characterised by that the bicycle comprises an axle shaft inserted through the hollow wheel axle via which axle shaft the wheel axle is connected to the rear fork , and
Drawer , in particular for a furniture element, wherein the drawer comprises at least one front and at least one side panel , which is connected to the front by one of its end faces or is arranged in the region of the front , wherein the connection between the front and the side panel is established by means of at least one connection element, the connection element comprises at least one front-side fastening element , which is arranged on the inside of the front , and at least one panel-side fastening element , which is arranged on the side panel , one of the fastening elements comprises at least one undercut , the other of the fastening elements comprises at least one projection or other element which engages behind the undercut when the front is mounted, the connection element has at least one adjusting element , by means of which the projection or the other element can be inserted and/or fixed into the undercut , and the adjusting element is accessible through an opening in the underside of the panel , characterised in that the adjusting element is designed as a screw or threaded pin.
A method comprising: obtaining a beamforming signal using respective signals from a first microphone and a second microphone; reducing the data size of the beamforming signal by grouping the beamforming signal into frequency bands and obtaining a data value for each of the frequency bands; and forming a bit stream comprising at least the reduced size beamforming signal and the signal from the first microphone, wherein the bit stream enables a beamed audio channel to be rendered. obtaining a beamforming signal using respective signals from a first microphone and a second microphone; reducing the data size of the beamforming signal by grouping the beamforming signal into frequency bands and obtaining a data value for each of the frequency bands; and forming a bit stream comprising at least the reduced size beamforming signal and the signal from the first microphone, wherein the bit stream enables a beamed audio channel to be rendered.
A display method, performed by an electronic device, characterized in that the method comprises: determining a current application scenario of fingerprint recognition in a case that an input of triggering display of a fingerprint icon is received; determining a target light spot based on a target parameter of the current application scenario, wherein the target parameter of the current application scenario comprises an occurrence frequency of the application scenario and/or a required security level of the current application scenario, different application scenarios of the fingerprint recognition have different target parameters respectively, target light spots corresponding to the different target parameters have different proportions for a red light component, a green light component and a blue light component, and the red light component, the green light component, and the blue light component are a brightness value of red light, a brightness value of blue light, and a brightness value of green light, respectively; and displaying the fingerprint icon formed by the target light spot for the fingerprint recognition. determining a current application scenario of fingerprint recognition in a case that an input of triggering display of a fingerprint icon is received; determining a target light spot based on a target parameter of the current application scenario, wherein the target parameter of the current application scenario comprises an occurrence frequency of the application scenario and/or a required security level of the current application scenario, different application scenarios of the fingerprint recognition have different target parameters respectively, target light spots corresponding to the different target parameters have different proportions for a red light component, a green light component and a blue light component, and the red light component, the green light component, and the blue light component are a brightness value of red light, a brightness value of blue light, and a brightness value of green light, respectively; and displaying the fingerprint icon formed by the target light spot for the fingerprint recognition.
A measurement device for a wireless network provided in a user device, comprising: a receiving unit , configured to receive measurement configuration information containing a measurement scheme for a target measurement carrier from a separate control terminal on the network side; a measuring unit , configured to measure the target measurement carrier on the measurement configuration information received by the receiving unit; and a transmitting unit , configured to transmit a measurement result to the separate control terminal, wherein, the transmitting unit is configured to transmit a measurement result processed by different communication protocol layers in response to whether the measurement scheme contained in the measurement configuration information being a first measurement scheme or a second measurement scheme; wherein when the measurement scheme is the first measurement scheme, the circuitry skips high layer filtering above a physical layer on the measurement and compares measurement values with a reference value to determine triggering a report of measurement result to the separate control terminal or not, and when the measurement scheme is the second measurement scheme, the circuitry applies high layer filtering above the physical layer on the measurement and compares high layer filtered measurement values with a reference value to determine triggering a report of measurement result to the separate control terminal or not. a receiving unit , configured to receive measurement configuration information containing a measurement scheme for a target measurement carrier from a separate control terminal on the network side; a measuring unit , configured to measure the target measurement carrier on the measurement configuration information received by the receiving unit; and a transmitting unit , configured to transmit a measurement result to the separate control terminal, wherein, the transmitting unit is configured to transmit a measurement result processed by different communication protocol layers in response to whether the measurement scheme contained in the measurement configuration information being a first measurement scheme or a second measurement scheme; wherein when the measurement scheme is the first measurement scheme, the circuitry skips high layer filtering above a physical layer on the measurement and compares measurement values with a reference value to determine triggering a report of measurement result to the separate control terminal or not, and when the measurement scheme is the second measurement scheme, the circuitry applies high layer filtering above the physical layer on the measurement and compares high layer filtered measurement values with a reference value to determine triggering a report of measurement result to the separate control terminal or not.
Coupling arrangement for connecting a first and a second thermally insulated fluid-conducting line, with the first and the second fluid-conducting line, with a coupling which comprises a first coupling part arranged on the first line , a second coupling part arranged on the second line , and connecting means for detachably connecting the two coupling parts , wherein an enclosure enclosing the coupling is provided, wherein a cavity formed by the enclosure is arranged to prevent condensation of atmosphere which has entered the cavity , wherein the enclosure comprises first and second hoods , a first end of the first hood abutting the thermal insulation of the first fluid carrying conduit , a first end of the second hood abutting the thermal insulation of the second fluid carrying conduit , characterized in that the first and the second hood are directly detachably connectable to each other with their respective second ends above the coupling, wherein the second ends of the first and the second hood respectively extend in axial direction at least up to a parting plane of the coupling in which the first and the second coupling parts are detachable from each other. wherein the enclosure comprises first and second hoods , a first end of the first hood abutting the thermal insulation of the first fluid carrying conduit , a first end of the second hood abutting the thermal insulation of the second fluid carrying conduit , characterized in that the first and the second hood are directly detachably connectable to each other with their respective second ends above the coupling, wherein the second ends of the first and the second hood respectively extend in axial direction at least up to a parting plane of the coupling in which the first and the second coupling parts are detachable from each other.
A method to mitigate vibration in a drill-string , the method comprising the steps of: measuring, via a sensor , a drill-string torque of a drill-string to yield measurement data; determining, via a processor , a plurality of vibration modes using the measurement data; determining, via the processor , a frequency and an amplitude of each of the plurality of vibration modes; determining, via the processor, a controller setting via a minimization of an objective function based on a reflectivity of vibration energy of the plurality of vibration modes by performing an optimization of the measurement data based on the frequency and the amplitude of each of the plurality of vibration modes, wherein the optimization reduces the reflectivity of the vibration energy of one of the plurality of vibration modes, and limits a dampening of another of the plurality of vibration modes, wherein the optimization is performed by calculating a reflectivity of torsional waves at a top drive of the drill-string using a first equation: R ω = z − P − i ωD − 1 ω / z + P + i ωD − I ω wherein ω is an angular frequency of the reflectivity of torsional waves, z is impedance of a drill pipe of the drill-string, and P, I, and D are a proportional factor, an integral factor, and a derivative factor of the top drive, respectively; and controlling, via a controller, the drill-string based on the controller setting to mitigate the plurality of vibration modes. measuring, via a sensor , a drill-string torque of a drill-string to yield measurement data; determining, via a processor , a plurality of vibration modes using the measurement data; determining, via the processor , a frequency and an amplitude of each of the plurality of vibration modes; determining, via the processor, a controller setting via a minimization of an objective function based on a reflectivity of vibration energy of the plurality of vibration modes by performing an optimization of the measurement data based on the frequency and the amplitude of each of the plurality of vibration modes, wherein the optimization reduces the reflectivity of the vibration energy of one of the plurality of vibration modes, and limits a dampening of another of the plurality of vibration modes, wherein the optimization is performed by calculating a reflectivity of torsional waves at a top drive of the drill-string using a first equation: R ω = z − P − i ωD − 1 ω / z + P + i ωD − I ω wherein ω is an angular frequency of the reflectivity of torsional waves, z is impedance of a drill pipe of the drill-string, and P, I, and D are a proportional factor, an integral factor, and a derivative factor of the top drive, respectively; and controlling, via a controller, the drill-string based on the controller setting to mitigate the plurality of vibration modes.
Exhaust gas outlet system for a motor vehicle , wherein said exhaust gas outlet system comprises the following: a) an end pipe for fluidically connecting to an exhaust gas system , wherein the end pipe has a first portion of a first interlocking connection ; b) an end pipe cover having i) an at least two-part end pipe cover inner wall ; ii) an end pipe cover outer wall which can be pushed axially onto the end pipe cover inner wall ; c) a first annular fastening element which radially fastens the at least two-part end pipe cover inner wall in the region of the first portion of the first interlocking connection on the end pipe , wherein the exhaust gas outlet system on the end pipe cover inner wall has a second portion of the first interlocking connection for the at least partial interlocking connection of the end pipe cover inner wall to the first annular fastening element , characterized in that the first portion of the first interlocking connection is designed in the form of a first annular recess , and the second portion of the first interlocking connection is designed in the form of a second annular recess . a) an end pipe for fluidically connecting to an exhaust gas system , wherein the end pipe has a first portion of a first interlocking connection ; b) an end pipe cover having i) an at least two-part end pipe cover inner wall ; ii) an end pipe cover outer wall which can be pushed axially onto the end pipe cover inner wall ; i) an at least two-part end pipe cover inner wall ; ii) an end pipe cover outer wall which can be pushed axially onto the end pipe cover inner wall ; c) a first annular fastening element which radially fastens the at least two-part end pipe cover inner wall in the region of the first portion of the first interlocking connection on the end pipe , wherein the exhaust gas outlet system on the end pipe cover inner wall has a second portion of the first interlocking connection for the at least partial interlocking connection of the end pipe cover inner wall to the first annular fastening element ,
System for obtaining an estimated output power of an electric motor , the system comprising a processing unit wherein the processing unit is configured to obtain the estimated output power by performing an output power estimation on the basis of data measured by condition monitoring sensors , the data including vibration measurement data and magnetic flux density measurement data, characterised in that the processing unit is further configured to estimate speed values and line frequency values from the vibration measurement data and magnetic flux density measurement data to obtain estimated speed values and estimated line frequency values, determine whether any of the estimated speed values and estimated line frequency values are unreliable, discard the speed values and line frequency values determined to be unreliable, and perform the output power estimation on the basis of at least some of the estimated speed values and at least some of the estimated line frequency values that remain after discarding the speed values and line frequency values determined to be unreliable. the processing unit is configured to obtain the estimated output power by performing an output power estimation on the basis of data measured by condition monitoring sensors , the data including vibration measurement data and magnetic flux density measurement data, characterised in that the processing unit is further configured to estimate speed values and line frequency values from the vibration measurement data and magnetic flux density measurement data to obtain estimated speed values and estimated line frequency values, determine whether any of the estimated speed values and estimated line frequency values are unreliable, discard the speed values and line frequency values determined to be unreliable, and perform the output power estimation on the basis of at least some of the estimated speed values and at least some of the estimated line frequency values that remain after discarding the speed values and line frequency values determined to be unreliable.
A robot cleaner comprising: a main body ; a suction motor to generate a suction force, the suction motor provided in the main body ; and a dust collector to collect dust contained in air suctioned by the suction motor , the dust collector being removably coupled to the main body ; wherein the dust collector comprises: a first chamber to which the air, which is suctioned into the main body by the suction motor , is introduced, the first chamber comprising: a filter to filter out dust in the suctioned air, and a dust remover configured to automatically remove dust attached to the filter ; and a second chamber arranged side by side with the first chamber , the second chamber comprising: a connection port to which air, which is filtered by the filter in the first chamber , is introduced, and a cyclone dust separator (170, 270 370) to separate dust from the introduced air. a main body ; a suction motor to generate a suction force, the suction motor provided in the main body ; and a dust collector to collect dust contained in air suctioned by the suction motor , the dust collector being removably coupled to the main body ; wherein the dust collector comprises: a first chamber to which the air, which is suctioned into the main body by the suction motor , is introduced, the first chamber comprising: a filter to filter out dust in the suctioned air, and a dust remover configured to automatically remove dust attached to the filter ; and a second chamber arranged side by side with the first chamber , the second chamber comprising: a connection port to which air, which is filtered by the filter in the first chamber , is introduced, and a cyclone dust separator (170, 270 370) to separate dust from the introduced air. a first chamber to which the air, which is suctioned into the main body by the suction motor , is introduced, the first chamber comprising: a filter to filter out dust in the suctioned air, and a dust remover configured to automatically remove dust attached to the filter ; and a filter to filter out dust in the suctioned air, and a dust remover configured to automatically remove dust attached to the filter ; and a second chamber arranged side by side with the first chamber , the second chamber comprising: a connection port to which air, which is filtered by the filter in the first chamber , is introduced, and a cyclone dust separator (170, 270 370) to separate dust from the introduced air. a connection port to which air, which is filtered by the filter in the first chamber , is introduced, and a cyclone dust separator (170, 270 370) to separate dust from the introduced air.
Insertion tube for trenchless sewer pipe rehabilitation by means of a pipe lining method, comprising an inner tube film in the form of a multilayer film, an outer film in the form of a tube film, which advantageously absorbs and/or reflects UV radiation and which is provided for contact with a preliner or a sliding film, as well as a carrier material, e.g. glass fibre fabric, felts, fleeces, textiles, arranged between these two tube films and impregnated with a reactive plastic resin which forms the rehabilitated inner sewer pipe after curing, characterised in that the inner tubular film contains at least one layer (a), which contains at least one homo- or copolyamide with a percentage by weight of more than 25 wt.%, preferably as an outer layer, at least one layer (c) containing at least one thermoplastic elastomer (TPE) and at least one further layer (b), this further layer (b) containing at least one thermoplastic, optionally modified, olefin homo- or copolymer.