mhurhangee/patent-ind-claim-en huggingface dataset:
A personal care device comprising: first and second tactile sensors; a device head comprising a plurality of tufts , wherein a first one of the plurality of tufts is in communication with the first tactile sensor and comprises a first angle relative to the device head, and further wherein a second one of the plurality of tufts is in communication with the second tactile sensor and comprises a second angle relative to the device head, wherein the first and second angles are greater than or less than 90 degrees relative to the device head, and wherein the first and second angles are different; and a controller configured to: (i) receive, in response to interaction of the plurality of tufts with a use surface , first sensor data from the first tactile sensor and second sensor data from the second tactile sensor ; and (ii) characterize, using the first sensor data and second sensor data, a position and/or movement of the personal care device within use area. first and second tactile sensors; a device head comprising a plurality of tufts , wherein a first one of the plurality of tufts is in communication with the first tactile sensor and comprises a first angle relative to the device head, and further wherein a second one of the plurality of tufts is in communication with the second tactile sensor and comprises a second angle relative to the device head, wherein the first and second angles are greater than or less than 90 degrees relative to the device head, and wherein the first and second angles are different; and a controller configured to: (i) receive, in response to interaction of the plurality of tufts with a use surface , first sensor data from the first tactile sensor and second sensor data from the second tactile sensor ; and (ii) characterize, using the first sensor data and second sensor data, a position and/or movement of the personal care device within use area.
A method for pairing an intelligent wearable device with an intelligent terminal, wherein at least one same set of keys is pre-stored in the intelligent wearable device and in an application installed on the intelligent terminal, each set of keys having a corresponding key index, wherein the method comprises: displaying (S110, S210), by the intelligent wearable device, an identification code and a key index, the identification code being dynamically generated when pairing is started; scanning (S120, S220), by the intelligent terminal, the identification code and the key index displayed by the intelligent wearable device; sending (S130, S230), by the intelligent terminal, a wireless broadcast signal, and monitoring a response sent to the intelligent terminal, wherein the response comprises the identification code; returning (S140, S240), by the intelligent wearable device, the response after the intelligent wearable device receives the wireless broadcast signal sent by the intelligent terminal; receiving (S150, S250), by the intelligent terminal, the response; extracting (S150, S250), by the intelligent terminal, the identification code from the received response; comparing (S160, S260), by the intelligent terminal, the extracted identification code and the scanned identification code, and pairing up with the intelligent wearable device if the extracted identification code and the scanned identification code are consistent; and performing (S270), by the intelligent terminal, an encrypted communication with the intelligent wearable device by using a key corresponding to the key index. displaying (S110, S210), by the intelligent wearable device, an identification code and a key index, the identification code being dynamically generated when pairing is started; scanning (S120, S220), by the intelligent terminal, the identification code and the key index displayed by the intelligent wearable device; sending (S130, S230), by the intelligent terminal, a wireless broadcast signal, and monitoring a response sent to the intelligent terminal, wherein the response comprises the identification code; returning (S140, S240), by the intelligent wearable device, the response after the intelligent wearable device receives the wireless broadcast signal sent by the intelligent terminal; receiving (S150, S250), by the intelligent terminal, the response; extracting (S150, S250), by the intelligent terminal, the identification code from the received response; comparing (S160, S260), by the intelligent terminal, the extracted identification code and the scanned identification code, and pairing up with the intelligent wearable device if the extracted identification code and the scanned identification code are consistent; and performing (S270), by the intelligent terminal, an encrypted communication with the intelligent wearable device by using a key corresponding to the key index.
A combustion chamber for a turbomachine having a bottom wall , at least one mixing bowl for promoting the mixing of air and fuel, mounted in an opening in the bottom wall , at least one annular baffle mounted axially downstream of the bottom wall , with respect to the direction of the gas flow within the combustion chamber , around said opening, the baffle being produced in one piece with the mixing bowl so as to form a one-piece assembly , wherein said assembly comprises at least one channel for the flow of cooling air, said channel comprising an air inlet located upstream of the bottom wall and an air outlet located downstream of the bottom wall , said air outlet being located radially opposite the baffle , said assembly comprising a cylindrical attachment part , attached to the chamber bottom and mounted radially inside the opening, characterized in that the baffle comprises a radially inner base part connected to said attachment part , the channel being provided in the cylindrical attachment part , the air outlet of the channel being located radially opposite the base of the baffle .
A Method for 3D ultrasound image acquisition and registration of a 3D model to a pre-acquired 3D image, comprising the steps of: - providing a pre-acquired 3D image of an object , - displaying said pre-acquired image on a display , - selecting a volume of interest of the object in said pre-acquired image , - when the spatial position of the volume of interest is selected or adjusted as intended: triggering the acquisition of ultrasound images in said volume of interest in order to generate a 3D model of said object in said volume of interest , and - acquiring a plurality of ultrasound images for generating said 3D model by means of said ultrasound probe in the volume of interest while moving the ultrasound probe with respect to said object along the volume of interest , characterized in that the method further comprises the steps of: - checking using a data processing system if the current ultrasound image has at least a pixel in the volume of interest , wherein in case the current image has no pixel in the volume of interest , the current image is discarded by the data processing system , wherein otherwise the current ultrasound image is segmented and compounded by the data processing system into said 3D model to be generated, and - determining using the data processing system a quality measure for the 3D model to be generated upon said acquisition of said ultrasound images , wherein said acquisition of said ultrasound images is ended by the data processing system once said quality measure is fulfilled or has reached a pre-defined level, - registering the generated 3D model using the data processing system to the pre-acquired 3D image . - providing a pre-acquired 3D image of an object , - displaying said pre-acquired image on a display , - selecting a volume of interest of the object in said pre-acquired image , - when the spatial position of the volume of interest is selected or adjusted as intended: triggering the acquisition of ultrasound images in said volume of interest in order to generate a 3D model of said object in said volume of interest , and - acquiring a plurality of ultrasound images for generating said 3D model by means of said ultrasound probe in the volume of interest while moving the ultrasound probe with respect to said object along the volume of interest , - checking using a data processing system if the current ultrasound image has at least a pixel in the volume of interest , wherein in case the current image has no pixel in the volume of interest , the current image is discarded by the data processing system , wherein otherwise the current ultrasound image is segmented and compounded by the data processing system into said 3D model to be generated, and - determining using the data processing system a quality measure for the 3D model to be generated upon said acquisition of said ultrasound images , wherein said acquisition of said ultrasound images is ended by the data processing system once said quality measure is fulfilled or has reached a pre-defined level, - registering the generated 3D model using the data processing system to the pre-acquired 3D image .
A plug-in hybrid electric vehicle powertrain comprising an internal combustion engine , an electric vehicle traction motor and a battery, an engine lubrication oil pump in fluid communication with a lubrication oil flow circuit for the internal combustion engine, an electric oil pump drive motor connected to the lubrication oil pump via a crank shaft , and a powertrain control module , characterised in that the powertrain control module is configured to start the electric oil pump drive motor immediately upon the initial start of the vehicle by utilizing power from the battery without causing ignition of the internal combustion engine until the lubrication oil pressure reaches a predetermined value, wherein the electric oil pump drive motor is an integrated starter generator (ISG). an engine lubrication oil pump in fluid communication with a lubrication oil flow circuit for the internal combustion engine, an electric oil pump drive motor connected to the lubrication oil pump via a crank shaft , and a powertrain control module ,
A communication device comprising a transmitter (E1) and being for transmitting a plurality of signals (S 1 , ..., S N ) to a satellite (SAT) from the transmitter (E1), said transmitter (E1) including at least one transmitting antenna (ANT) and a modem (MOD), each of the signals (S 1 , ..., Sn) transmitted by the device being for being addressed to a given transmitting spot (C 1 , ..., C N ) via the satellite (SAT), a transmitting spot (C 1 , ..., Cn) having a predefined geographical coverage of an antenna of the satellite (SAT), said device including a calculator (K) and a memory (M) including a set of reference values (ENSr) of powers P R (POS k ) and phases Φ R (POS k ) of at least a first reference signal S R received at different points POS k of at least one transmitting spot, a first wanted signal (S 11 ) being transmitted in a first spot (C 1 ) and being likely to generate an interfering signal (S 1v ) in a neighbouring spot (C v ), the transmitter (E1) being adapted for generating at least one wanted neighbouring signal (S vv ) for being transmitted in a neighbouring spot (C v ) of the first spot (C 1 ) and being likely to be disturbed by the interfering signal (S 1v ), the transmitter (E1) being adapted for generating a first correcting signal (S vvc1 ) from the first transmitted signal (S 1 ) and at least a first phase value Φ R (POS 1 ) and a first power value P R (POS 1 ) of the set of reference values (ENSr), said phase and power values being chosen depending on at least one determined geographical position (POS 1 ) in the neighbouring spot (Cv), said transmitter (E1) being adapted for transmitting a combination of the first correcting signal (S vvc1 ) and the wanted neighbouring signal (S vv ) in order to generate a corrected neighbouring signal (S vv ') to the satellite (SAT), said corrected neighbouring signal (S vv ') being for being transmitted in the neighbouring spot (C v ).
A measurement gap configuration method, performed by a terminal device, comprising: sending radio frequency capability information of the terminal device to a network device for generating configuration information, wherein the radio frequency capability information is indication information for indicating whether the terminal device supports performing signal quality measurement according to the measurement gap corresponding to a plurality of radio frequency channels that the terminal device has, in the case that the indication information indicates that the terminal device supports performing signal quality measurement according to the measurement gap corresponding to the plurality of radio frequency channels that the terminal device has, receiving, from the network device, the configuration information based on the transmitted radio frequency capability information of the terminal device, wherein the configuration information comprises a same measurement gap corresponding to the plurality of radio frequency channels that the terminal device has; and performing signal quality measurement according to the same measurement gap. sending radio frequency capability information of the terminal device to a network device for generating configuration information, wherein the radio frequency capability information is indication information for indicating whether the terminal device supports performing signal quality measurement according to the measurement gap corresponding to a plurality of radio frequency channels that the terminal device has, in the case that the indication information indicates that the terminal device supports performing signal quality measurement according to the measurement gap corresponding to the plurality of radio frequency channels that the terminal device has, receiving, from the network device, the configuration information based on the transmitted radio frequency capability information of the terminal device, wherein the configuration information comprises a same measurement gap corresponding to the plurality of radio frequency channels that the terminal device has; and performing signal quality measurement according to the same measurement gap. in the case that the indication information indicates that the terminal device supports performing signal quality measurement according to the measurement gap corresponding to the plurality of radio frequency channels that the terminal device has, receiving, from the network device, the configuration information based on the transmitted radio frequency capability information of the terminal device, wherein the configuration information comprises a same measurement gap corresponding to the plurality of radio frequency channels that the terminal device has; and performing signal quality measurement according to the same measurement gap.
A stair element for a stair tread, comprising: - a first plank forming a stair tread, said first plank having an upper face that contributes to a tread surface , and - a second plank extending substantially transversely to said first plank , and contributing to a nose surface which in an orientation of use extends substantially downwardly relative to the tread surface , wherein said stair element is further provided with a covering , which covering is arranged over substantially the entire tread surface and nose surface , and which covering comprises a decorative visual layer that extends continuously from at least a part of the tread surface onto the nose surface , wherein the decorative visual layer has substantially a continuous finish over a transition between the tread surface and the nose surface , and wherein the covering is provided with a recess for imparting a foldability at the position of the transition, in order to achieve a sharp fold line , wherein the first plank further has a front face that contributes to the nose surface, characterized in that the transition between the tread surface and the nose surface comprises an acute angle. - a first plank forming a stair tread, said first plank having an upper face that contributes to a tread surface , and - a second plank extending substantially transversely to said first plank , and contributing to a nose surface which in an orientation of use extends substantially downwardly relative to the tread surface ,
A computer-implemented three-dimensional reconstruction method, comprising: collecting (S504), by a first camera and a second camera, images of line stripes projected onto a surface of an object to be scanned for three-dimensional reconstruction, wherein the distances between adjacent line stripes in the projected line stripes are different, the first camera and the second camera are different cameras in a binocular stereo vision system, and the collecting (S504) comprises acquiring (S102, S702) a first image of line stripes collected by the first camera and a second image of line stripes collected by the second camera, wherein the first image at least comprises: a first line stripe and a second line stripe; the second image at least comprises: a third line stripe and a fourth line stripe, the first line stripe is adjacent to the second line stripe, and the third line stripe is adjacent to the fourth line stripe; matching (S104) the line stripes in the first image with the line stripes in the second image, wherein the matching comprises: determining (S104) a first test distance between the first line stripe and the third line stripe, determining a second test distance between the second line stripe and the fourth line stripe and determining (S106, S506) whether the line stripes are mismatched according to the first test distance and the second test distance; performing three-dimensional reconstruction according to the matching result of the line stripes in the first image and the second image. collecting (S504), by a first camera and a second camera, images of line stripes projected onto a surface of an object to be scanned for three-dimensional reconstruction, wherein the distances between adjacent line stripes in the projected line stripes are different, the first camera and the second camera are different cameras in a binocular stereo vision system, and the collecting (S504) comprises acquiring (S102, S702) a first image of line stripes collected by the first camera and a second image of line stripes collected by the second camera, wherein the first image at least comprises: a first line stripe and a second line stripe; the second image at least comprises: a third line stripe and a fourth line stripe, the first line stripe is adjacent to the second line stripe, and the third line stripe is adjacent to the fourth line stripe; matching (S104) the line stripes in the first image with the line stripes in the second image, wherein the matching comprises: determining (S104) a first test distance between the first line stripe and the third line stripe, determining a second test distance between the second line stripe and the fourth line stripe and determining (S106, S506) whether the line stripes are mismatched according to the first test distance and the second test distance; performing three-dimensional reconstruction according to the matching result of the line stripes in the first image and the second image.
A print assembly for a binary array printer comprising: a printhead , the printhead comprising: a controller; a plurality of fluid connectors providing fluid communication to fluid sources; and at least one electrical connector in electrical communication with the controller; and a print module configured for releasable connection to the printhead, the print module comprising: at least one electrical connector for connection to the at least one electrical connector of the printhead; a plurality of fluid connectors for connection to the plurality of fluid connectors of the printhead; an actuator assembly; a charge electrode assembly disposed adjacent the actuator assembly for charging droplets ejected from the actuator assembly; a deflection electrode assembly for deflecting charged droplets; and a gutter for collecting charged droplets; wherein the plurality of fluid connectors and the at least one electrical connector on the printhead are complementary connectors for connecting the plurality of fluid connectors and the at least one electrical connector on the print module to the printhead respectively such that the print module is easily removable from the printhead in a single step. a printhead , the printhead comprising: a controller; a plurality of fluid connectors providing fluid communication to fluid sources; and at least one electrical connector in electrical communication with the controller; and a controller; a plurality of fluid connectors providing fluid communication to fluid sources; and at least one electrical connector in electrical communication with the controller; and a print module configured for releasable connection to the printhead, the print module comprising: at least one electrical connector for connection to the at least one electrical connector of the printhead; a plurality of fluid connectors for connection to the plurality of fluid connectors of the printhead; an actuator assembly; a charge electrode assembly disposed adjacent the actuator assembly for charging droplets ejected from the actuator assembly; a deflection electrode assembly for deflecting charged droplets; and a gutter for collecting charged droplets; at least one electrical connector for connection to the at least one electrical connector of the printhead; a plurality of fluid connectors for connection to the plurality of fluid connectors of the printhead; an actuator assembly; a charge electrode assembly disposed adjacent the actuator assembly for charging droplets ejected from the actuator assembly; a deflection electrode assembly for deflecting charged droplets; and a gutter for collecting charged droplets; wherein the plurality of fluid connectors and the at least one electrical connector on the printhead are complementary connectors for connecting the plurality of fluid connectors and the at least one electrical connector on the print module to the printhead respectively such that the print module is easily removable from the printhead in a single step.
An aerosol-generating device comprising: a housing comprising: a first housing portion defining a cavity for receiving an aerosol-forming substrate and an opening at an end of the cavity ; and a second housing portion , wherein the second housing portion is configured for removable attachment to the first housing portion ; and a closure member connected to the second housing portion , wherein the closure member is moveable with respect to the second housing portion between a closed position in which the closure member at least partially covers the opening when the second housing portion is attached to the first housing portion and an open position in which the opening is uncovered when the second housing portion is attached to the first housing portion . a housing comprising: a first housing portion defining a cavity for receiving an aerosol-forming substrate and an opening at an end of the cavity ; and a second housing portion , wherein the second housing portion is configured for removable attachment to the first housing portion ; and a first housing portion defining a cavity for receiving an aerosol-forming substrate and an opening at an end of the cavity ; and a second housing portion , wherein the second housing portion is configured for removable attachment to the first housing portion ; and a closure member connected to the second housing portion , wherein the closure member is moveable with respect to the second housing portion between a closed position in which the closure member at least partially covers the opening when the second housing portion is attached to the first housing portion and an open position in which the opening is uncovered when the second housing portion is attached to the first housing portion .