mhurhangee/patent-ind-claim-en huggingface dataset:
Mounting apparatus for inserting magnets into magnet accommodating portions of a rotor of an electric machine, comprising: - an aligning device configured for accommodating and aligning the magnets , wherein - the aligning device for aligning and accommodating the magnets comprises at least one channel , wherein - a shape of the at least one channel is adapted to a shape of the magnets , wherein - the channel has a channel inlet , which is disposed at an end face of the aligning device and via which the magnets can be fed to the channel , and a channel outlet , which is disposed opposite the channel inlet and is disposed at an end face of the aligning device opposite the end face and via which the magnets can be discharged from the channel , in particular for insertion into the magnet accommodating portions of the rotor , characterized in that - the at least one channel is twisted in itself, in particular in such a way that the channel inlet and the channel outlet , with respect to a plane of the respective end face , are aligned differently to each other. - an aligning device configured for accommodating and aligning the magnets , wherein - the aligning device for aligning and accommodating the magnets comprises at least one channel , wherein - a shape of the at least one channel is adapted to a shape of the magnets , wherein - the channel has a channel inlet , which is disposed at an end face of the aligning device and via which the magnets can be fed to the channel , and a channel outlet , which is disposed opposite the channel inlet and is disposed at an end face of the aligning device opposite the end face and via which the magnets can be discharged from the channel , in particular for insertion into the magnet accommodating portions of the rotor , characterized in that - the at least one channel is twisted in itself, in particular in such a way that the channel inlet and the channel outlet , with respect to a plane of the respective end face , are aligned differently to each other.
A method of operating a rotorcraft , the method comprising: operating the rotorcraft in a speed control mode, wherein a speed of the rotorcraft is proportional to a pilot control command; wherein operating the rotorcraft in the speed control mode comprises: receiving a target longitudinal speed, receiving a measured longitudinal speed, and determining a pitch actuator command based on the target longitudinal speed and the measured longitudinal speed detecting a high longitudinal acceleration condition; upon detection of the high longitudinal acceleration condition, temporarily disabling the speed control mode and stabilizing the rotorcraft while the speed control mode is disabled, wherein stabilizing the rotorcraft while the speed control mode is disabled comprises receiving the measured longitudinal acceleration from an inertial sensor , and determining the pitch actuator command based on the measured longitudinal acceleration; and reestablishing the speed control mode when a measured longitudinal acceleration of the rotorcraft falls below a first threshold. operating the rotorcraft in a speed control mode, wherein a speed of the rotorcraft is proportional to a pilot control command; wherein operating the rotorcraft in the speed control mode comprises: receiving a target longitudinal speed, receiving a measured longitudinal speed, and determining a pitch actuator command based on the target longitudinal speed and the measured longitudinal speed receiving a target longitudinal speed, receiving a measured longitudinal speed, and determining a pitch actuator command based on the target longitudinal speed and the measured longitudinal speed detecting a high longitudinal acceleration condition; upon detection of the high longitudinal acceleration condition, temporarily disabling the speed control mode and stabilizing the rotorcraft while the speed control mode is disabled, wherein stabilizing the rotorcraft while the speed control mode is disabled comprises receiving the measured longitudinal acceleration from an inertial sensor , and determining the pitch actuator command based on the measured longitudinal acceleration; and
A fastener assembly comprising: a stud comprising an elongated shaft , a first head at one end of the shaft and a second head at an opposite end of the shaft , a bearing surface of the first head opposing a bearing surface of the second head ; a threaded sleeve disposed about the elongated shaft of the stud and comprising an exterior surface adapted for connecting to a threaded hole, and having an interior surface with an inwardly projected shoulder , the threaded sleeve having an outer diameter smaller than an outer diameter of the first head of the stud; and a spring disposed about the shaft of the stud and at least partially inside the sleeve , the spring having a first end bearing against the shoulder of the threaded sleeve and having a second end bearing against the bearing surface of the second head of the stud, the spring arranged to press the sleeve against the bearing surface of the first head such that bearing surface of the first head bears against the sleeve under a preload from the spring; such that moving the sleeve away from the first head of the stud causes the spring to compress. a stud comprising an elongated shaft , a first head at one end of the shaft and a second head at an opposite end of the shaft , a bearing surface of the first head opposing a bearing surface of the second head ; a threaded sleeve disposed about the elongated shaft of the stud and comprising an exterior surface adapted for connecting to a threaded hole, and having an interior surface with an inwardly projected shoulder , the threaded sleeve having an outer diameter smaller than an outer diameter of the first head of the stud; and a spring disposed about the shaft of the stud and at least partially inside the sleeve , the spring having a first end bearing against the shoulder of the threaded sleeve and having a second end bearing against the bearing surface of the second head of the stud, the spring arranged to press the sleeve against the bearing surface of the first head such that bearing surface of the first head bears against the sleeve under a preload from the spring; such that moving the sleeve away from the first head of the stud causes the spring to compress.
A Power over Data Lines,PoDL, circuit comprising: a DC power supply having a first terminal DC-coupled to a first conductor and a second terminal DC-coupled to a second conductor , wherein the first conductor and second conductor are for supplying DC power and differential data to a powered device,PD; a first transceiver having a first terminal and a second terminal, the first transceiver for transmitting differential data signals over the first conductor and the second conductor and receiving differential data signals from the first conductor and the second conductor ; a center-tapped first transformer having a primary winding coupled across the first terminal and the second terminal of the first transceiver ; a first AC-coupling capacitor, C1, coupled in series with the first conductor , the first transformer having a first secondary winding coupled between the first AC-coupling capacitor, C1, and a center tap of the first transformer ; a second AC-coupling capacitor, C2, coupled in series with the second conductor , the first transformer having a second secondary winding coupled between the second AC-coupling capacitor, C2, and the center tap of the first transformer ; and characterized by a first voltage divider coupled to the DC power supply , the first voltage divider generating a first divided voltage of approximately one half of a voltage output by the DC power supply , wherein the first divided voltage is applied to the center tap of the first transformer . a DC power supply having a first terminal DC-coupled to a first conductor and a second terminal DC-coupled to a second conductor , wherein the first conductor and second conductor are for supplying DC power and differential data to a powered device,PD; a first transceiver having a first terminal and a second terminal, the first transceiver for transmitting differential data signals over the first conductor and the second conductor and receiving differential data signals from the first conductor and the second conductor ; a center-tapped first transformer having a primary winding coupled across the first terminal and the second terminal of the first transceiver ; a first AC-coupling capacitor, C1, coupled in series with the first conductor , the first transformer having a first secondary winding coupled between the first AC-coupling capacitor, C1, and a center tap of the first transformer ; a second AC-coupling capacitor, C2, coupled in series with the second conductor , the first transformer having a second secondary winding coupled between the second AC-coupling capacitor, C2, and the center tap of the first transformer ; and characterized by a first voltage divider coupled to the DC power supply , the first voltage divider generating a first divided voltage of approximately one half of a voltage output by the DC power supply , wherein the first divided voltage is applied to the center tap of the first transformer .
An information transmission method, comprising: configuring (S501), by a base station, at least one first resource for a terminal device, wherein the first resource is for the terminal device to transmit a first signal, and the first signal is a sounding reference signal, SRS; transmitting (S503), by the base station, first indication information to the terminal device, wherein the first indication information indicates a correspondence between the first resource and a second resource, and the first indication information comprises an identity of each first resource, and an identity of the second resource corresponding to the identity of each first resource; receiving, by the base station, a second signal transmitted by the terminal device on an uplink transmitting beam using the second resource, before transmission of the first signal; receiving, by the base station, the first signal transmitted by the terminal device on the uplink transmitting beam using the first resource, wherein the correspondence is for the terminal device to determine to transmit the first signal on the uplink transmitting beam. configuring (S501), by a base station, at least one first resource for a terminal device, wherein the first resource is for the terminal device to transmit a first signal, and the first signal is a sounding reference signal, SRS; transmitting (S503), by the base station, first indication information to the terminal device, wherein the first indication information indicates a correspondence between the first resource and a second resource, and the first indication information comprises an identity of each first resource, and an identity of the second resource corresponding to the identity of each first resource; receiving, by the base station, a second signal transmitted by the terminal device on an uplink transmitting beam using the second resource, before transmission of the first signal; receiving, by the base station, the first signal transmitted by the terminal device on the uplink transmitting beam using the first resource, wherein the correspondence is for the terminal device to determine to transmit the first signal on the uplink transmitting beam.
A system , comprising a camera for capturing an image, at least one processor and at least one memory , the at least one memory storing instructions configured to cause the processor to: obtain an image of a scene captured using the camera, the scene comprising a footprint of a user of the system; identify the footprint in the image; identify a first plurality of reference points each having a fixed position relative to the footprint in the image; identify a second plurality of reference points each having a fixed position relative to a three-dimensional model of the user's foot constructed based on at least one known dimension of the user's foot; determine a transformation matrix by mapping the second plurality of reference points of the three-dimensional model to the first plurality of reference points; and determine, based on the transformation matrix, a three-dimensional position of the camera relative to the footprint in the scene at the time of capturing the image. a camera for capturing an image, at least one processor and at least one memory , the at least one memory storing instructions configured to cause the processor to: obtain an image of a scene captured using the camera, the scene comprising a footprint of a user of the system; identify the footprint in the image; identify a first plurality of reference points each having a fixed position relative to the footprint in the image; identify a second plurality of reference points each having a fixed position relative to a three-dimensional model of the user's foot constructed based on at least one known dimension of the user's foot; determine a transformation matrix by mapping the second plurality of reference points of the three-dimensional model to the first plurality of reference points; and determine, based on the transformation matrix, a three-dimensional position of the camera relative to the footprint in the scene at the time of capturing the image. obtain an image of a scene captured using the camera, the scene comprising a footprint of a user of the system; identify the footprint in the image; identify a first plurality of reference points each having a fixed position relative to the footprint in the image; identify a second plurality of reference points each having a fixed position relative to a three-dimensional model of the user's foot constructed based on at least one known dimension of the user's foot; determine a transformation matrix by mapping the second plurality of reference points of the three-dimensional model to the first plurality of reference points; and determine, based on the transformation matrix, a three-dimensional position of the camera relative to the footprint in the scene at the time of capturing the image.
A nuclear power plant , comprising: a reactor pressure vessel ; a steam generator arranged to generate steam utilising thermal energy generated within the reactor pressure vessel ; a fluid circuit for transferring thermal energy from the reactor pressure vessel to the steam generator ; and a coolant reservoir being adapted for storing coolant for supply to the steam generator under gravity in emergency conditions; wherein the steam generator comprises a steam drying zone comprising one or more steam separators configured to dry steam; and wherein the steam generator and coolant reservoir are configured such that when coolant is supplied from the coolant reservoir to the steam generator in emergency conditions the coolant stays below a threshold level defined by the steam drying zone . a reactor pressure vessel ; a steam generator arranged to generate steam utilising thermal energy generated within the reactor pressure vessel ; a fluid circuit for transferring thermal energy from the reactor pressure vessel to the steam generator ; and a coolant reservoir being adapted for storing coolant for supply to the steam generator under gravity in emergency conditions; wherein the steam generator comprises a steam drying zone comprising one or more steam separators configured to dry steam; and wherein the steam generator and coolant reservoir are configured such that when coolant is supplied from the coolant reservoir to the steam generator in emergency conditions the coolant stays below a threshold level defined by the steam drying zone .
A mechanically programmable lock cylinder, having a stator and a rotor , which is rotatable in the stator, with a key channel into which a key can be inserted, wherein the rotor has a plurality of rotor bores running transversely to the key channel and opening into the same, and wherein the stator has a plurality of stator bores, wherein, in an initial state, a plurality of the stator bores align with respectively one of the rotor bores such that a common tumbler bore results in each case, wherein the lock cylinder also has at least one tumbler element , which is present in one of the tumbler bores and has a main body , which defines a tumbler axis, wherein the main body has a radially inner end part , which protrudes into the key channel in order to scan the coding of the key , wherein the main body also has a plurality of predetermined break points , characterized in that the tumbler element has a programming part arrangement, wherein the programming part arrangement is held by the main body and has at least one separating joint , and wherein the programming part arrangement can be displaced along the tumbler axis relative to the main body such that the separating joint can be aligned selectively on one of the predetermined break points .
An in-vitro diagnostic device comprising a plurality of functional units including a pipetting unit comprising a pipetting probe for penetrating a lid of a liquid container and for pipetting a liquid through the lid of the liquid container , and further comprising a pressure sensor for detecting a pressure in the liquid container ; a controller configured to schedule process operations for the plurality of functional units to handle the liquid container in a first cycle time, and to control the pipetting unit according to the scheduled process operations to penetrate the lid of the liquid container with the pipetting probe ; and upon detecting a pressure within a predefined pressure range (200-202) to aspirate an aliquot of the liquid by the pipetting probe for carrying out an in-vitro diagnostic test; characterized in that the controller is further configured to prevent the pipetting unit from aspirating an aliquot of the liquid upon detecting a pressure outside of a predefined pressure range (200-202) in the liquid container , and to reschedule process operations for the plurality of functional units to handle the liquid container in a next possible cycle time, in which the pipetting unit does not yet have any assigned process operations, wherein handling the liquid container includes controlling the pipetting unit to repeat penetration of the lid of the liquid container in order to reduce pressure differences or achieve pressure equilibration between the interior of the liquid container and ambient conditions. a plurality of functional units including a pipetting unit comprising a pipetting probe for penetrating a lid of a liquid container and for pipetting a liquid through the lid of the liquid container , and further comprising a pressure sensor for detecting a pressure in the liquid container ; a controller configured to schedule process operations for the plurality of functional units to handle the liquid container in a first cycle time, and to control the pipetting unit according to the scheduled process operations to penetrate the lid of the liquid container with the pipetting probe ; and upon detecting a pressure within a predefined pressure range (200-202) to aspirate an aliquot of the liquid by the pipetting probe for carrying out an in-vitro diagnostic test; characterized in that the controller is further configured to prevent the pipetting unit from aspirating an aliquot of the liquid upon detecting a pressure outside of a predefined pressure range (200-202) in the liquid container , and to reschedule process operations for the plurality of functional units to handle the liquid container in a next possible cycle time, in which the pipetting unit does not yet have any assigned process operations, wherein handling the liquid container includes controlling the pipetting unit to repeat penetration of the lid of the liquid container in order to reduce pressure differences or achieve pressure equilibration between the interior of the liquid container and ambient conditions.
A polylactic acid composite, characterized in that , the polylactic acid composite comprises the following components in parts by weight: (A) 89 to 98 parts by weight of polylactic acid; (B) 1-4 parts by weight of talcum powder; and (C) 1-7 parts by weight of a plasticizer; wherein in the component (A), a polydispersity index P of the polylactic acid satisfies the following relationship: 1.55≤P≤2.02; in the component (B), a particle size D of the talcum powder satisfies: 1 μ m ≤ D 50 ≤ 2.6 μ m ; in the component (C), a relative molecular weight M of the plasticizer satisfies: 180 ≤ M ≤ 670 ; wherein the polydispersity index is measured as decribed in the description and wherein the particle size of talcum powder is measured referring to the method of GB/T 19077.1. (A) 89 to 98 parts by weight of polylactic acid; (B) 1-4 parts by weight of talcum powder; and (C) 1-7 parts by weight of a plasticizer; wherein in the component (A), a polydispersity index P of the polylactic acid satisfies the following relationship: 1.55≤P≤2.02; in the component (B), a particle size D of the talcum powder satisfies: 1 μ m ≤ D 50 ≤ 2.6 μ m ; in the component (C), a relative molecular weight M of the plasticizer satisfies: 180 ≤ M ≤ 670 ; wherein the polydispersity index is measured as decribed in the description and wherein the particle size of talcum powder is measured referring to the method of GB/T 19077.1.
A semiconductor FET , comprising a resonant gate and source and drain electrodes, wherein the resonant gate includes integrally constructed passive components connected in series or parallel with gate segments which cause the gate to be electromagnetically resonant at one or more predetermined frequencies.
A conveyor ride system , comprising: a ride vehicle ; and a generally cylindrical conveyor structure comprising a plurality of conveyor beams and a plurality of conveyor grooves , wherein the plurality of conveyor beams and the plurality of conveyor grooves are configured to direct the ride vehicle along a surface of the conveyor structure , wherein the surface of the conveyor structure defines at least a portion of a ride path of the conveyor ride system , and wherein the plurality of conveyor beams is configured to direct the ride vehicle linearly along the surface of the conveyor structure , and wherein a segment of a conveyor beam of the plurality of conveyor beams is configured to move along a conveyor groove of the plurality of conveyor grooves in a circumferential direction about the conveyor structure . a ride vehicle ; and a generally cylindrical conveyor structure comprising a plurality of conveyor beams and a plurality of conveyor grooves , wherein the plurality of conveyor beams and the plurality of conveyor grooves are configured to direct the ride vehicle along a surface of the conveyor structure , wherein the surface of the conveyor structure defines at least a portion of a ride path of the conveyor ride system , and wherein the plurality of conveyor beams is configured to direct the ride vehicle linearly along the surface of the conveyor structure , and wherein a segment of a conveyor beam of the plurality of conveyor beams is configured to move along a conveyor groove of the plurality of conveyor grooves in a circumferential direction about the conveyor structure .