mhurhangee/patent-ind-claim-en huggingface dataset:
Adjustment arrangement for an adjustment device of a vehicle seat for adjusting a vehicle seat component , having a transverse pipe and at least one connection portion which is connected to the transverse pipe in a torsion-resistant manner, wherein, when the transverse pipe is twisted, an adjustment of the vehicle seat component can be brought about, wherein the transverse pipe is inserted in a hole in the connection portion for torsion-resistant securing to the connection portion , characterised in that there is formed on the connection portion in the region of the hole a connection portion abutment face which is chamfered by an angle (α) and which a transverse pipe abutment face of the transverse pipe , which face is chamfered in the opposite direction, abuts in order to limit an axial movement of the transverse pipe , and an end region of the transverse pipe on a connection portion rear-side of the connection portion is shaped radially outwards in such a manner that the connection portion is clamped between the transverse pipe abutment face which is chamfered in the opposite direction and which abuts the chamfered connection portion abutment face and the outwardly shaped end region .
An imaging system , comprising: a subject support configured to carry a subject being imaged in an examination region of the imaging system , wherein the subject support comprises a tabletop ; and a subject support controller that is configured to position the subject support in the examination region for scanning the subject based on a motion algorithm , for a given translation duration and a given translation distance and further to identify the motion algorithm based on a type of scan; characterized in that the motion algorithm corresponds to a feed-forward input shaping axial motion algorithm or a time compensated band pass filtered s-curve axial motion algorithm or a low-pass filtered s-curve perfusion motion algorithm; wherein the feed-forward input shaping axial motion algorithm is implemented by convolving a sequence of impulses with a desired motion profile to produce a shaped motion profile input; wherein the time-compensated band pass filtered s-curve axial motion algorithm is implemented by employing a band-stop filter; wherein for one of said axial motion algorithms the motion algorithm is based on a resonant frequency and damping factor of the subject support , which are determined based on a weight carried by the subject support ; and wherein for the low-pass filtered s-curve perfusion motion algorithm the subject support controller is configured to generate a motion profile of the motion algorithm by sampling and low pass filtering a predetermined perfusion motion profile based on a predetermined cut-off frequency. a subject support configured to carry a subject being imaged in an examination region of the imaging system , wherein the subject support comprises a tabletop ; and a subject support controller that is configured to position the subject support in the examination region for scanning the subject based on a motion algorithm , for a given translation duration and a given translation distance and further to identify the motion algorithm based on a type of scan; characterized in that the motion algorithm corresponds to a feed-forward input shaping axial motion algorithm or a time compensated band pass filtered s-curve axial motion algorithm or a low-pass filtered s-curve perfusion motion algorithm; wherein the feed-forward input shaping axial motion algorithm is implemented by convolving a sequence of impulses with a desired motion profile to produce a shaped motion profile input; wherein the time-compensated band pass filtered s-curve axial motion algorithm is implemented by employing a band-stop filter; wherein for one of said axial motion algorithms the motion algorithm is based on a resonant frequency and damping factor of the subject support , which are determined based on a weight carried by the subject support ; and wherein for the low-pass filtered s-curve perfusion motion algorithm the subject support controller is configured to generate a motion profile of the motion algorithm by sampling and low pass filtering a predetermined perfusion motion profile based on a predetermined cut-off frequency.
A method for noise reduction in a robot system , the method comprising: obtaining a gesture to be performed by a robot ; receiving incoming audio, the incoming audio including audio from a user and robot noise caused by the robot's performance of the gesture ; retrieving, from a gesture library , a noise profile (INM N ) associated with the gesture for removing the robot noise caused by the robot's performance of the gesture from the incoming audio , wherein the noise profile associated with the gesture is created using a physics model representative of the noise created by the robot when the robot performs a gesture; and applying the noise profile (INM N ) to remove the robot noise from the incoming audio . obtaining a gesture to be performed by a robot ; receiving incoming audio, the incoming audio including audio from a user and robot noise caused by the robot's performance of the gesture ; retrieving, from a gesture library , a noise profile (INM N ) associated with the gesture for removing the robot noise caused by the robot's performance of the gesture from the incoming audio , wherein the noise profile associated with the gesture is created using a physics model representative of the noise created by the robot when the robot performs a gesture; and applying the noise profile (INM N ) to remove the robot noise from the incoming audio .
A power supply control method, comprising: during charging, charging a battery through a charging path of a charger, and supplying power to an electronic device through a power supplying path of the charger, wherein the battery is connected to the charger through the charging path of the charger; and a charging IC of the charger is connected to a power supply end of the electronic device via the power supplying path of the charger; detecting a battery voltage in a process of charging the battery; determining , according to the battery voltage, whether the battery is completely charged or not; and turning off , in response to determining that the battery is completely charged, the power supplying path of the charger and the charging path of the charger, and supplying power to the electronic device through the battery; when the battery voltage is lower than a second preset voltage, turning on the power supplying path of the charger and the charging path of the charger, wherein turning on the power supplying path of the charger and the charging path of the charger comprises: turning on the charging path of the charger; acquiring a voltage difference value between the battery voltage and a first preset voltage; and when the voltage difference value is greater than a preset threshold value, turning on the power supplying path of the charger; and charging the battery through the charging path of the charger, and supplying power to the electronic device through the power supplying path of the charger. during charging, charging a battery through a charging path of a charger, and supplying power to an electronic device through a power supplying path of the charger, wherein the battery is connected to the charger through the charging path of the charger; and a charging IC of the charger is connected to a power supply end of the electronic device via the power supplying path of the charger; detecting a battery voltage in a process of charging the battery; determining , according to the battery voltage, whether the battery is completely charged or not; and turning off , in response to determining that the battery is completely charged, the power supplying path of the charger and the charging path of the charger, and supplying power to the electronic device through the battery; when the battery voltage is lower than a second preset voltage, turning on the power supplying path of the charger and the charging path of the charger, wherein turning on the power supplying path of the charger and the charging path of the charger comprises: turning on the charging path of the charger; acquiring a voltage difference value between the battery voltage and a first preset voltage; and when the voltage difference value is greater than a preset threshold value, turning on the power supplying path of the charger; and charging the battery through the charging path of the charger, and supplying power to the electronic device through the power supplying path of the charger.
Expansion valve arrangement for a cooling or air-conditioning circuit consisting of: a flow housing with an inlet and an outlet , a synchronous motor with a motor housing , which synchronous motor is, via a thread arrangement , operatively connected to a coupling element with a control body , in such a way that the coupling element with the control body can be moved axially, at least one flow cross-section between the inlet and the outlet , which flow cross-section is surrounded by a valve seat and can be closed and opened by means of the control body , wherein the synchronous motor is a canned motor, within a can of which a rotor arrangement is arranged, which rotor arrangement comprises a rotor cylinder part , rotor connecting means , an internal thread part and bearing means , wherein permanent magnet regions , which extend in the longitudinal direction and are arranged alternately with respect to polarity, are provided on the rotor cylinder part , wherein the rotor cylinder part is, via the rotor connecting means , co-rotatably connected with the internal thread part which engages an external thread of the coupling element , wherein the internal thread part is rotatably supported in the flow housing via the bearing means , wherein a Hall sensor is provided in the motor housing for detecting a position of the rotor cylinder part . a flow housing with an inlet and an outlet , a synchronous motor with a motor housing , which synchronous motor is, via a thread arrangement , operatively connected to a coupling element with a control body , in such a way that the coupling element with the control body can be moved axially, at least one flow cross-section between the inlet and the outlet , which flow cross-section is surrounded by a valve seat and can be closed and opened by means of the control body , wherein the synchronous motor is a canned motor, within a can of which a rotor arrangement is arranged, which rotor arrangement comprises a rotor cylinder part , rotor connecting means , an internal thread part and bearing means , wherein permanent magnet regions , which extend in the longitudinal direction and are arranged alternately with respect to polarity, are provided on the rotor cylinder part , wherein the rotor cylinder part is, via the rotor connecting means , co-rotatably connected with the internal thread part which engages an external thread of the coupling element , wherein the internal thread part is rotatably supported in the flow housing via the bearing means , wherein a Hall sensor is provided in the motor housing for detecting a position of the rotor cylinder part .
Method for operating a road-building machine, in particular a road paver or a loader, wherein at least one scraper conveyor is used to transport road-building material from a supply container , which, as viewed in the paving direction , is arranged at the front end of the road-building machine and intended for receiving road-building material, to a rear end of the road-building machine, characterized in that a chain sag of the conveyor chains of the scraper conveyor is determined by at least one sensor and, on the basis of the determined chain sag, the conveyor chains of the scraper conveyor are automatically tensioned by a tensioning device, wherein the conveyor chains are tensioned by a control device in dependence on an operation of the road paver or of the loader, and a wear limit of the conveyor chains of the scraper conveyor are in each case detected by at least one sensor.
An apparatus for tamping a sealant , comprising: a positioning member ; a catheter hub at a proximal end of the positioning member ; a cartridge having an outer tubular member , wherein the cartridge is movable proximally relative to the catheter hub to expose a sealant ; a pusher member slidably disposed in the outer tubular member , wherein the pusher member is movable distally to compress the sealant ; a tamping device that receives a proximal end of the pusher member ; and a latch having a first position which prevents distal movement of the tamping device and a second position in which the latch is disengaged from the tamping device which allows distal movement of the tamping device ; wherein the latch is moveable from the first position to the second position upon proximal movement of the cartridge relative to the catheter hub . a positioning member ; a catheter hub at a proximal end of the positioning member ; a cartridge having an outer tubular member , wherein the cartridge is movable proximally relative to the catheter hub to expose a sealant ; a pusher member slidably disposed in the outer tubular member , wherein the pusher member is movable distally to compress the sealant ; a tamping device that receives a proximal end of the pusher member ; and a latch having a first position which prevents distal movement of the tamping device and a second position in which the latch is disengaged from the tamping device which allows distal movement of the tamping device ; wherein the latch is moveable from the first position to the second position upon proximal movement of the cartridge relative to the catheter hub .
An imaging device comprising: a first video signal processing unit that generates a first video signal of a first dynamic range from a pixel signal obtained by an imaging unit; and a second video signal processing unit that generates an information signal of a luminance change component in a prescribed luminance region from the first video signal, generates a luminance reduction video signal of a second dynamic range narrower than the first dynamic range from the first video signal, and generates a second video signal by the addition of the luminance reduction video signal to the information signal of the luminance change component; wherein the first dynamic range is High Dynamic Range, HDR; the second dynamic range is Standard Dynamic Range, SDR; and the luminance region is a region of a high luminance portion exceeding a prescribed threshold. a first video signal processing unit that generates a first video signal of a first dynamic range from a pixel signal obtained by an imaging unit; and a second video signal processing unit that generates an information signal of a luminance change component in a prescribed luminance region from the first video signal, generates a luminance reduction video signal of a second dynamic range narrower than the first dynamic range from the first video signal, and generates a second video signal by the addition of the luminance reduction video signal to the information signal of the luminance change component; wherein the first dynamic range is High Dynamic Range, HDR; the second dynamic range is Standard Dynamic Range, SDR; and the luminance region is a region of a high luminance portion exceeding a prescribed threshold.
A method on a first user device for listing an item for sale using an image of the item captured from a camera on a second user device , the method comprising: running an item listing process in an item listing application to publish information concerning the item of goods or services for sale as an item listing on an item listing server; and upon reaching a specified point in the item listing process, spawning a camera application subprocess on the second user device to enable a user to capture images using the camera, wherein the spawning includes transmitting a wireframe overlay to the second user device for display on top of a viewfinder within the camera application subprocess to inform the user as to an angle at which to capture images from the camera, wherein images from the camera of the second user device taken in response to the user depressing a virtual or actual button on the second user device are uploaded by the camera application subprocess of the second user device to the item listing server as part of the item listing published to the item listing server. running an item listing process in an item listing application to publish information concerning the item of goods or services for sale as an item listing on an item listing server; and upon reaching a specified point in the item listing process, spawning a camera application subprocess on the second user device to enable a user to capture images using the camera, wherein the spawning includes transmitting a wireframe overlay to the second user device for display on top of a viewfinder within the camera application subprocess to inform the user as to an angle at which to capture images from the camera, wherein images from the camera of the second user device taken in response to the user depressing a virtual or actual button on the second user device are uploaded by the camera application subprocess of the second user device to the item listing server as part of the item listing published to the item listing server.
A user equipment, UE , configured for exchanging control signals, in uplink, UL, and/or downlink, DL, with a first cell and at least one second cell , wherein the first cell is a licensed or unlicensed cell and the at least one second cell is an unlicensed cell, wherein the UE is configured to exchange control signals with the first cell and, meanwhile: receive, from the first cell , assistance information for assisting the UE in receiving a discovery reference signal , wherein the assistance information includes at least timing information regarding a timing of the discovery reference signal periodically sent by the at least one second cell ; perform at least one measurement on the discovery reference signal as acquired by the UE , from the at least one second cell , using the timing information included in the assistance information , characterized by being further configured to perform a handover, HO, decision by deciding whether to initiate a HO procedure , so that the UE communicates with the at least one second cell , wherein the HO procedure is based on the performed at least one measurement on the discovery reference signal , wherein the HO decision is based at least on the performed at least one measurement on the discovery reference signal as acquired, so that the HO decision follows the performed at least one measurement being over a measurement threshold indicative of an increased quality. receive, from the first cell , assistance information for assisting the UE in receiving a discovery reference signal , wherein the assistance information includes at least timing information regarding a timing of the discovery reference signal periodically sent by the at least one second cell ; perform at least one measurement on the discovery reference signal as acquired by the UE , from the at least one second cell , using the timing information included in the assistance information , characterized by being further configured to perform a handover, HO, decision by deciding whether to initiate a HO procedure , so that the UE communicates with the at least one second cell , wherein the HO procedure is based on the performed at least one measurement on the discovery reference signal , wherein the HO decision is based at least on the performed at least one measurement on the discovery reference signal as acquired, so that the HO decision follows the performed at least one measurement being over a measurement threshold indicative of an increased quality.
Electrical machine , in particular a starter device such as a starter, for starting an internal combustion engine, comprising a housing which has a cylindrical housing part in which an electrical starter motor and a planetary transmission are accommodated and which is closed at the rear by a cover and at the front by an bearing plate , wherein an armature shaft of the electrical starter motor is mounted at the rear on the cover and an output shaft of the planetary transmission is mounted at the front on the bearing plate , and comprising an intermediate bearing of circular disc-shaped design arranged on the bearing plate side on the cylindrical housing part , and comprising a bearing fixed to the housing and arranged at the front in the cylindrical housing part comprising an insertable bearing block for movably supporting a lever coupled to a relay armature , , characterized in that the bearing block is formed integrally with the intermediate bearing and projects from the intermediate bearing in the radial direction and comprises a shoulder or taper in the axial direction, on the bearing block at least one longitudinally aligned or transversely aligned compensating element and/or sealing element is formed for the play-free and/or sealed arrangement of the bearing block in the bearing , wherein the at least one compensating element and/or the at least one sealing element is formed integrally in the bearing block and is designed to be at least partially deformable.
A boron concentration monitor for measuring, in real time, the boron concentration of coolant within a piping servicing a primary loop of a nuclear reactor comprising: an acoustic transmitter acoustically coupled to or through the piping operable to transmit an acoustic signal through an interior of the piping; an acoustic receiver supported at a location around a circumference of the piping that is spaced from the acoustic transmitter , for receiving the acoustic signal; a temperature sensor configured for determining a coolant temperature of coolant flowing in the piping at the location of the acoustic transmitter and acoustic receiver ; a communication mechanism in electrical communication with the acoustic transmitter , the acoustic receiver and the temperature sensor, and configured to convey the transmitted acoustic signal, the received acoustic signal and a signal representative of the coolant temperature to a remote location; and an analyzer is structured to be in communication with the remote location and is configured to receive the received acoustic signal, the transmitted acoustic signal, and the signal representative of the coolant temperature from the communication mechanism and compare the received acoustic signal and the transmitted acoustic signal and from the comparison and the signal representative of the coolant temperature, determine a temperature corrected boron concentration within the piping . an acoustic transmitter acoustically coupled to or through the piping operable to transmit an acoustic signal through an interior of the piping; an acoustic receiver supported at a location around a circumference of the piping that is spaced from the acoustic transmitter , for receiving the acoustic signal; a temperature sensor configured for determining a coolant temperature of coolant flowing in the piping at the location of the acoustic transmitter and acoustic receiver ; a communication mechanism in electrical communication with the acoustic transmitter , the acoustic receiver and the temperature sensor, and configured to convey the transmitted acoustic signal, the received acoustic signal and a signal representative of the coolant temperature to a remote location; and an analyzer is structured to be in communication with the remote location and is configured to receive the received acoustic signal, the transmitted acoustic signal, and the signal representative of the coolant temperature from the communication mechanism and compare the received acoustic signal and the transmitted acoustic signal and from the comparison and the signal representative of the coolant temperature, determine a temperature corrected boron concentration within the piping .