mhurhangee/ep-ind-claims huggingface dataset:
A time measurement method, wherein the method comprises: receiving, by a first device, a first packet from a second device by using a first antenna; transmitting, by the first device, a second packet to the second device by using a second antenna, wherein the first antenna and the second antenna are different antennas in the first device; characterized by receiving, by the first device, an indication for a first transceiving delay from the second device, wherein the first transceiving delay is a delay from a time at which the second device transmits the first packet to a time at which the second device receives the second packet; and determining, by the first device, a round-trip time between the first device and the second device based on a calibration delay from the second antenna to the first antenna, a recording moment at which the first device receives the first packet, a recording moment at which the first device transmits the second packet, and the first transceiving delay, wherein the calibration delay from the second antenna to the first antenna is a delay in receiving, by the first device by using the first antenna, a wireless signal transmitted by the second antenna. receiving, by a first device, a first packet from a second device by using a first antenna; transmitting, by the first device, a second packet to the second device by using a second antenna, wherein the first antenna and the second antenna are different antennas in the first device; characterized by receiving, by the first device, an indication for a first transceiving delay from the second device, wherein the first transceiving delay is a delay from a time at which the second device transmits the first packet to a time at which the second device receives the second packet; and determining, by the first device, a round-trip time between the first device and the second device based on a calibration delay from the second antenna to the first antenna, a recording moment at which the first device receives the first packet, a recording moment at which the first device transmits the second packet, and the first transceiving delay, wherein the calibration delay from the second antenna to the first antenna is a delay in receiving, by the first device by using the first antenna, a wireless signal transmitted by the second antenna.
A method for fabrication of a composite material connecting rod comprising a yoke adapted to receive a mechanical shaft, this yoke comprising two parallel arms (7a, 7b) perpendicular to the orientation of the mechanical shaft, the method comprising the steps of: - fabricating a mandrel forming a whole sufficiently rigid to receive layers of fibers (8a-8e, 9a-9d); - applying to this mandrel base layers (8a-8e) of reinforcing fibers constituting the connecting rod and additional layers (9a-9d) interleaved between the base layers (8a-8e) at the level of the yoke (7, 7a, 7b) to constitute increased thicknesses there; - at the level of each arm (7a, 7b) of the yoke, inserting lugs (13a, 13b) passing through the interleaved layers (9a-9d) and the base layers (8a-8e) according to the orientation of the mechanical shaft on which this yoke is to be mounted; - injecting resin into the base layers (8a-8e) and into the interleaved layers (9a-9d) and polymerizing that resin. - fabricating a mandrel forming a whole sufficiently rigid to receive layers of fibers (8a-8e, 9a-9d); - applying to this mandrel base layers (8a-8e) of reinforcing fibers constituting the connecting rod and additional layers (9a-9d) interleaved between the base layers (8a-8e) at the level of the yoke (7, 7a, 7b) to constitute increased thicknesses there; - at the level of each arm (7a, 7b) of the yoke, inserting lugs (13a, 13b) passing through the interleaved layers (9a-9d) and the base layers (8a-8e) according to the orientation of the mechanical shaft on which this yoke is to be mounted; - injecting resin into the base layers (8a-8e) and into the interleaved layers (9a-9d) and polymerizing that resin.
A computerized method for enabling navigation of a playlist of media files stored on a computer-readable medium, said computerized method comprising: identifying one or more media files associated with a playlist; defining media file references for the identified media files; retrieving metadata corresponding to each of the identified media files; and storing the defined media file references and the retrieved metadata in a plurality of playlist units representative of the playlist to enable user selection of the media files prior to rendering the media files, wherein said media file references and said retrieved metadata are stored in a first playlist unit until the playlist unit size has been reached, and a second playlist unit is opened and used for storing remaining media file references and retrieved metadata, wherein all playlist units are equal in size, said size equal to a sector size of the computer-readable medium. identifying one or more media files associated with a playlist; defining media file references for the identified media files; retrieving metadata corresponding to each of the identified media files; and storing the defined media file references and the retrieved metadata in a plurality of playlist units representative of the playlist to enable user selection of the media files prior to rendering the media files, wherein said media file references and said retrieved metadata are stored in a first playlist unit until the playlist unit size has been reached, and a second playlist unit is opened and used for storing remaining media file references and retrieved metadata, wherein all playlist units are equal in size, said size equal to a sector size of the computer-readable medium.
A door system for a vehicle, wherein the door system has a door leaf, an electric motor for driving the door leaf, and a braking circuit with an electrical load for braking the door leaf, wherein the braking circuit is configured to detect a generator voltage which is generated on a manual moving of the door leaf by the electric motor in generator operation, and is further configured to switch on the electrical load when the detected generator voltage is situated in an overspeed range, and otherwise to switch off the electrical load, and wherein the door system has a controllable voltage source for generating a motor voltage for a motor operation of the electric motor for moving the door leaf, characterized in that on a motor operation of the electric motor for moving the door leaf, the motor voltage is detected by the braking circuit and that the motor voltage lies outside the overspeed range, whereby the electrical load is switched off and no braking effect occurs.
Apparatus for measuring by spectrometry, comprising a measuring vessel combined with a heating device, said measuring vessel being in the form of a hollow tube, characterized in that the heating device is in the form of a soft optical article, which article comprises a soft flexible support having an upper face and a lower face, the upper face being covered with a reflective material to form an optical reflection layer, a flexible heating element being arranged on at least one of said support faces, said heating device being inserted into said hollow tube such that said reflective material of said soft optical article forms said optical reflection layer.
A computing apparatus, for LTE mobile broadband networks, comprising: scheduling circuitry (708.1) to produce an enhanced physical downlink control channel, EPDCCH transmission to be transmitted in a first subframe and a physical downlink shared channel, PDSCH, transmission to be transmitted in a second subframe, wherein the EPDCCH transmission is to schedule the PDSCH transmission and the second subframe is one or more subframes after the first subframe; transmitter circuitry coupled to the scheduling circuitry (708.1), the transmitter circuitry to transmit the EPDCCH transmission in the first subframe and the PDSCH transmission in the second subframe; and feedback circuitry (708.2) to process a hybrid automatic repeat request-ACKnowledgement, HARQ-ACK, transmission received from a user equipment in a third subframe that is four or more subframes after the first subframe, the HARQ-ACK transmission to correspond to the PDSCH transmission or to the EPDCCH transmission when the EPDCCH transmission includes a downlink semi-persistent scheduling release; wherein: the scheduling circuitry (708.1) is to produce a response EPDCCH transmission to be transmitted in a fourth subframe and a response PDSCH transmission to be transmitted in a fifth subframe, when the HARQ-ACK transmission is a NACK transmission; wherein the response EPDCCH transmission and the response PDSCH transmission are in a same radio frame as the EPDCCH transmission and the PDSCH transmission. scheduling circuitry (708.1) to produce an enhanced physical downlink control channel, EPDCCH transmission to be transmitted in a first subframe and a physical downlink shared channel, PDSCH, transmission to be transmitted in a second subframe, wherein the EPDCCH transmission is to schedule the PDSCH transmission and the second subframe is one or more subframes after the first subframe; transmitter circuitry coupled to the scheduling circuitry (708.1), the transmitter circuitry to transmit the EPDCCH transmission in the first subframe and the PDSCH transmission in the second subframe; and feedback circuitry (708.2) to process a hybrid automatic repeat request-ACKnowledgement, HARQ-ACK, transmission received from a user equipment in a third subframe that is four or more subframes after the first subframe, the HARQ-ACK transmission to correspond to the PDSCH transmission or to the EPDCCH transmission when the EPDCCH transmission includes a downlink semi-persistent scheduling release; wherein: the scheduling circuitry (708.1) is to produce a response EPDCCH transmission to be transmitted in a fourth subframe and a response PDSCH transmission to be transmitted in a fifth subframe, when the HARQ-ACK transmission is a NACK transmission; wherein the response EPDCCH transmission and the response PDSCH transmission are in a same radio frame as the EPDCCH transmission and the PDSCH transmission.
Bearing arrangement for rotatably supporting a shaft relative to a housing, comprising a shaft, a housing and a back-up bearing which is in the form of a roller bearing, wherein the roller bearing, which has an inner ring and outer ring, can take up forces in an axial and radial direction and is in particular in the form of an angular roller bearing or of a two-row angular ball bearing, wherein the roller bearing is substantially free in a radial direction, characterized in that the inner ring of the roller bearing forms with the shaft a first friction face pair and the outer ring of the roller bearing forms with an inner face of a bearing receiving member of the housing a second friction face pair at least indirectly, wherein the friction properties of the two friction face pairs are adjusted for a friction-controlled self-centering action of the inner ring of the roller bearing in relation to the shaft such that the friction properties of the first friction face pair are increased with respect to the friction properties of the second friction face pair.
Reluctance armature with a shaft hole, into which a shaft is inserted in a torsion-proof manner, at least one carrier body disposed around this shaft, characterised in that on its radial sides viewed in the circumferential direction, it has part segments made of anisotropic soft-magnetic one-piece material in each case, and thus forms an armature segment, wherein this armature segment, viewed in the axial direction, is disposed between two especially disk-shaped edge elements and forms a central section.
Timepiece movement comprising a control stem, a winding mechanism for winding the movement, a date display mechanism and a time display mechanism, characterised in that it comprises a first lever bearing a first drive wheel capable of being kinematically connected to the control stem, a second lever bearing a second wheel for time setting arranged to cooperate with the time display mechanism and capable of being kinematically connected to the first drive wheel, and a third lever bearing a date correction mechanism capable of being kinematically connected to the first drive wheel and also to the date display mechanism, wherein said third lever is mounted to pivot on the second lever and arranged to move between a meshing position, in which the date correction mechanism cooperates with the date display mechanism, and a retraction position, in which the date correction mechanism is disconnected from the date display mechanism, and in that the control stem and said first and second levers are arranged to occupy three positions: - a winding position, in which the control stem is kinematically connected to the winding mechanism for winding the movement and is not kinematically connected to the first drive wheel, - a date correction position, in which the control stem is kinematically connected to the first drive wheel, and the first and second levers are positioned so that said first drive wheel is kinematically connected to the date correction mechanism and is not kinematically connected to the second wheel for time setting, - and a time setting position, in which the control stem is kinematically connected to the first drive wheel and the first and second levers are positioned so that said first drive wheel is kinematically connected to the second wheel for time setting and is not kinematically connected to the date correction mechanism, wherein the position of the first lever is modified by cooperation between the control stem and the first lever and the position of the second lever is modified by cooperation between the first lever and the second lever. - a winding position, in which the control stem is kinematically connected to the winding mechanism for winding the movement and is not kinematically connected to the first drive wheel, - a date correction position, in which the control stem is kinematically connected to the first drive wheel, and the first and second levers are positioned so that said first drive wheel is kinematically connected to the date correction mechanism and is not kinematically connected to the second wheel for time setting, - and a time setting position, in which the control stem is kinematically connected to the first drive wheel and the first and second levers are positioned so that said first drive wheel is kinematically connected to the second wheel for time setting and is not kinematically connected to the date correction mechanism, wherein the position of the first lever is modified by cooperation between the control stem and the first lever and the position of the second lever is modified by cooperation between the first lever and the second lever.
A mobile terminal comprising a main body, wherein a front surface of the main body is provided with a display screen, whereby the display screen comprises a hard display screen connected to the main body and a flexible display screen connected to the hard display screen, the hard display screen is located directly above the main body, the flexible display screen protrudes from the main body, the flexible display screen is seamlessly connected with the hard display screen, the flexible display screen comprises a first flexible display screen connected to the hard display screen and a second flexible display screen connected to the first flexible display screen, a first fold line is formed between the first flexible display screen and the second flexible display screen, and the flexible display screen is foldable along the first fold line; the hard display screen is activated due to an activation signal of the hard display screen which is generated when a physical key of the mobile terminal is pressed or the mobile terminal receives an external call, and the flexible display screen is activated due to a specific gesture input applied to a touch sensing layer provided on the flexible display screen, the flexible display screen may not be activated when the hard display screen is activated, or the flexible display screen may be activated after the hard display screen is activated, the hard display screen may be in an off-screen state when the flexible display screen is activated.
An actuator arrangement comprising a first linear actuator having a first output shaft, a second linear actuator having a second output shaft, the first and second output shafts (14, 18) being pivotally connected to a link, a pivotable output connection provided on the link intermediate the locations at which the first and second output shafts (14, 18) are pivotally connected to the link, wherein in normal use, each linear actuator (12, 16) needs only supply part of the overall required output force of the actuator arrangement, while in the event of the failure of one of the actuators (12, 16) or the associated control arrangement, continued operation of the other of the actuators (12, 16) results in the link pivoting about the point of connection with the failed actuator (12, 16), characterised by a control arrangement adapted to compare the statuses of the first and second actuators (14, 18), and to adjust the operating speeds thereof, in normal use, to limit or avoid tilting movement of the link.
A method of wireless communication for a wireless device, comprising: maintaining first information associated with a correlation between at least one of a plurality of wireless device positions and/or wireless device orientations, and a plurality of nodes (504, 506), at least one subarray at the wireless device and a corresponding beamforming direction associated with at least one of a particular position and/or orientation of the wireless device; determining a first position and a first orientation of the wireless device based on second information from one or more sensors; determining a first node, a first subarray, and a first beamforming direction associated with the first position and the first orientation of the wireless device based on the first information and the second information; and updating the first information based on the determined first node, the determined first subarray, and the determined first beamforming direction associated with the first position and the first orientation of the wireless device, wherein the updating the first information comprises refining the first information for selection of a preferred node, a preferred subarray, and a preferred orientation in communicating with the plurality of nodes (504, 506) as the wireless device changes position and orientation, wherein the preferred node, the preferred subarray, and the preferred orientation are selected based on a particular signal parameter associated with a particular node, a particular subarray and/or a particular orientation. maintaining first information associated with a correlation between at least one of a plurality of wireless device positions and/or wireless device orientations, and a plurality of nodes (504, 506), at least one subarray at the wireless device and a corresponding beamforming direction associated with at least one of a particular position and/or orientation of the wireless device; determining a first position and a first orientation of the wireless device based on second information from one or more sensors; determining a first node, a first subarray, and a first beamforming direction associated with the first position and the first orientation of the wireless device based on the first information and the second information; and updating the first information based on the determined first node, the determined first subarray, and the determined first beamforming direction associated with the first position and the first orientation of the wireless device, wherein the updating the first information comprises refining the first information for selection of a preferred node, a preferred subarray, and a preferred orientation in communicating with the plurality of nodes (504, 506) as the wireless device changes position and orientation, wherein the preferred node, the preferred subarray, and the preferred orientation are selected based on a particular signal parameter associated with a particular node, a particular subarray and/or a particular orientation.
A battery module, comprising: a battery cell assembly including at least one battery cell; a base plate configured to support a lower side of the battery cell assembly; and a pressing pulley unit elastically connected to the base plate and configured to cover an upper side of the battery cell assembly, the pressing pulley unit being elastically deformable in a vertical direction of the battery cell assembly according to cell swelling of the battery cell assembly; wherein the pressing pulley unit includes: a pressing plate disposed at an upper side of the battery cell assembly and configured to be movable along the vertical direction; a pair of pulley units (330, 340) connected to the pressing plate and disposed at both sides of the battery cell assembly; and a pair of elastic straps (350, 360) connected to the pair of pulley units and fixed to the base plate. a battery cell assembly including at least one battery cell; a base plate configured to support a lower side of the battery cell assembly; and a pressing pulley unit elastically connected to the base plate and configured to cover an upper side of the battery cell assembly, the pressing pulley unit being elastically deformable in a vertical direction of the battery cell assembly according to cell swelling of the battery cell assembly; wherein the pressing pulley unit includes: a pressing plate disposed at an upper side of the battery cell assembly and configured to be movable along the vertical direction; a pair of pulley units (330, 340) connected to the pressing plate and disposed at both sides of the battery cell assembly; and a pair of elastic straps (350, 360) connected to the pair of pulley units and fixed to the base plate. a pressing plate disposed at an upper side of the battery cell assembly and configured to be movable along the vertical direction; a pair of pulley units (330, 340) connected to the pressing plate and disposed at both sides of the battery cell assembly; and a pair of elastic straps (350, 360) connected to the pair of pulley units and fixed to the base plate.
An Ag-In alloy sputtering target consisting of: 0.1 at% to 1.5 at% of In and optionally 0.2 at% to 2.0 at% of Sb, with the balance being Ag and inevitable impurities, wherein the amount of each of elements Si, Cr, Fe, and Ni is 30 ppm or less. 0.1 at% to 1.5 at% of In and optionally 0.2 at% to 2.0 at% of Sb, with the balance being Ag and inevitable impurities, wherein the amount of each of elements Si, Cr, Fe, and Ni is 30 ppm or less.