mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a messaging server system comprising: receiving a positioning data of a second user from a first device associated with a first user, the first device generating the positioning data based on an analysis of a data stream comprising images of the second user, the second user being associated with a second device; receiving a biometric data of the second user from the second device, the biometric data being based on an output from a sensor or a camera included in the second device; and determining a distance of the second user from the first device using the positioning data and the biometric data of the second user. receiving a positioning data of a second user from a first device associated with a first user, the first device generating the positioning data based on an analysis of a data stream comprising images of the second user, the second user being associated with a second device; receiving a biometric data of the second user from the second device, the biometric data being based on an output from a sensor or a camera included in the second device; and determining a distance of the second user from the first device using the positioning data and the biometric data of the second user.
A device (200; 300; 400) for contactless communication with a terminal (202; 302; 402), the device comprising: an antenna (204; 304; 404; 504) for receiving a wireless signal emitted by the terminal; an embedded chip (206; 306; 406) configured to generate data for communication to the terminal to perform a first function associated with the device; and a module (208; 308; 408; 508) separate from the chip and configured to perform processes as part of a second function associated with the device, the module being connected to the antenna and comprising a power-harvesting unit (212; 316; 420; 520) configured to harvest power from the received wireless signal to power at least the module; characterised in that the embedded chip comprises a first power management unit (218; 318; 432) for controlling the use and/or consumption of power by the embedded chip and the module further comprises a second power management unit (216; 320; 422; 522) for controlling the use and/or consumption of power by the module. an antenna (204; 304; 404; 504) for receiving a wireless signal emitted by the terminal; an embedded chip (206; 306; 406) configured to generate data for communication to the terminal to perform a first function associated with the device; and a module (208; 308; 408; 508) separate from the chip and configured to perform processes as part of a second function associated with the device, the module being connected to the antenna and comprising a power-harvesting unit (212; 316; 420; 520) configured to harvest power from the received wireless signal to power at least the module; characterised in that the embedded chip comprises a first power management unit (218; 318; 432) for controlling the use and/or consumption of power by the embedded chip and the module further comprises a second power management unit (216; 320; 422; 522) for controlling the use and/or consumption of power by the module.
A method for use in a multiple-input multiple-output, MIMO, transmission, comprising: receiving a rank reported by a user equipment; determining a rank at least partly based on a transmission block size, TBS, index generated from link adaption decision; and overriding the reported rank with the determined rank, the method being characterized in that determining the rank comprises: calculating (S302a) a channel quality metric, CQM, for a current sub-frame, at least partly based on said TBS index, the CQM indicating an equivalent channel quality as if in rank 1 transmission; updating (S302b) a CQM of the MIMO transmission with the calculated CQM; and determining (S302c) the rank based on the updated CQM. receiving a rank reported by a user equipment; determining a rank at least partly based on a transmission block size, TBS, index generated from link adaption decision; and overriding the reported rank with the determined rank, the method being characterized in that determining the rank comprises: calculating (S302a) a channel quality metric, CQM, for a current sub-frame, at least partly based on said TBS index, the CQM indicating an equivalent channel quality as if in rank 1 transmission; updating (S302b) a CQM of the MIMO transmission with the calculated CQM; and determining (S302c) the rank based on the updated CQM. calculating (S302a) a channel quality metric, CQM, for a current sub-frame, at least partly based on said TBS index, the CQM indicating an equivalent channel quality as if in rank 1 transmission; updating (S302b) a CQM of the MIMO transmission with the calculated CQM; and determining (S302c) the rank based on the updated CQM.
An adjustable cable manager (100, 300, 400, 500, 600) comprising: an elongated member (110, 310, 410) extending axially along a length, the elongated member (110, 310, 410) having an adjustment region (A1, A2, A3) that extends along a majority of the length, the elongated member (110, 310, 410) being configured to mount to a surface partially defining a cable management region R on which cables can be stored; and a gate member (120, 320, 420, 520, 620) configured to couple to the elongated member (110, 310, 410), the gate member (120, 320, 420, 520, 622A, 622B) being movable along the adjustment region of the elongated member (110, 310, 410), the gate member (120, 320, 420, 520, 620) being configured to be releasably fixed at any point along the adjustment region, the gate member (120, 320, 420, 520, 620) including a gate (122, 322, 422, 522, 622A, 622B) configured to inhibit access to the cable management region R, the gate (122, 322, 422, 522, 622A, 622B) extending outwardly transverse to the elongated member (110, 310, 410), wherein the gate member (120, 320, 420, 520, 620) is rotatable relative to the elongated member (110, 310, 410) at an upper end of the adjustment region (A1, A2, A3); characterized in that the elongated member (110, 310, 410) and the gate member (120, 320, 420, 520, 620) cooperate to define an alignment arrangement that inhibits rotation of the at least one gate (122, 322, 422, 522, 622A, 622B) relative to the elongated member (110, 310, 410) when the gate member (120, 320, 420, 520, 620) is not disposed at the upper end of the adjustment region (A1, A2, A3). an elongated member (110, 310, 410) extending axially along a length, the elongated member (110, 310, 410) having an adjustment region (A1, A2, A3) that extends along a majority of the length, the elongated member (110, 310, 410) being configured to mount to a surface partially defining a cable management region R on which cables can be stored; and a gate member (120, 320, 420, 520, 620) configured to couple to the elongated member (110, 310, 410), the gate member (120, 320, 420, 520, 622A, 622B) being movable along the adjustment region of the elongated member (110, 310, 410), the gate member (120, 320, 420, 520, 620) being configured to be releasably fixed at any point along the adjustment region, the gate member (120, 320, 420, 520, 620) including a gate (122, 322, 422, 522, 622A, 622B) configured to inhibit access to the cable management region R, the gate (122, 322, 422, 522, 622A, 622B) extending outwardly transverse to the elongated member (110, 310, 410), wherein the gate member (120, 320, 420, 520, 620) is rotatable relative to the elongated member (110, 310, 410) at an upper end of the adjustment region (A1, A2, A3); characterized in that the elongated member (110, 310, 410) and the gate member (120, 320, 420, 520, 620) cooperate to define an alignment arrangement that inhibits rotation of the at least one gate (122, 322, 422, 522, 622A, 622B) relative to the elongated member (110, 310, 410) when the gate member (120, 320, 420, 520, 620) is not disposed at the upper end of the adjustment region (A1, A2, A3).
A wireless transmit/receive unit, WTRU, for performing handover in a wireless communication system, the WTRU comprising: a transceiver configured to receive a handover command from a first evolved Node-B, eNode-B; characterized by a controller configured to: facilitate a handover from the first eNode-B to a second eNode-B in accordance with the handover command, perform timing adjustment with the second eNode-B using a random access channel, RACH, access procedure, and reset radio link control, RLC, and hybrid automatic repeat request, HARQ, after receiving the handover command. a transceiver configured to receive a handover command from a first evolved Node-B, eNode-B; characterized by a controller configured to: facilitate a handover from the first eNode-B to a second eNode-B in accordance with the handover command, perform timing adjustment with the second eNode-B using a random access channel, RACH, access procedure, and reset radio link control, RLC, and hybrid automatic repeat request, HARQ, after receiving the handover command. facilitate a handover from the first eNode-B to a second eNode-B in accordance with the handover command, perform timing adjustment with the second eNode-B using a random access channel, RACH, access procedure, and reset radio link control, RLC, and hybrid automatic repeat request, HARQ, after receiving the handover command.
LED driver comprising an electrically conductive housing; a main board having circuit components for controlling electrical power transmitted between a mains connection and a DC connection of the LED driver; and a conductor track fuse for protecting the LED driver from electrical overload; and at least one film (105, 105', 105") between the housing and the main board; the at least one film (105, 105', 105") being designed such that it substantially fills an air gap between itself and the main board, characterized in that the at least one film (105, 105', 105") is designed such that it shields the mains connection from emissions resulting from triggering of the fuse. an electrically conductive housing; a main board having circuit components for controlling electrical power transmitted between a mains connection and a DC connection of the LED driver; and a conductor track fuse for protecting the LED driver from electrical overload; and at least one film (105, 105', 105") between the housing and the main board; the at least one film (105, 105', 105") being designed such that it substantially fills an air gap between itself and the main board, characterized in that the at least one film (105, 105', 105") is designed such that it shields the mains connection from emissions resulting from triggering of the fuse.
Starter for a heat engine, characterized in that it comprises the association of a dual-contact electromagnetic contactor and an electronic control device said contactor comprising an adjustable core, an inrush winding (La), a holding winding (Lm), a mobile contact plate and first, second and third contact points (PC+, PC1 and PC2) and said electronic control device comprising first transistor switching means (T1, T2, CZ2, RC1, RC3, SL) for controlling the excitation of said inrush winding (L a), said contactor comprising an electrically-controllable micro-actuator of microsolenoid type and said electronic control device comprises second transistor switching means (T3, CZ2, RC2) for controlling the excitation of said micro-actuator, the contactor having three operating states: a first state without electrical contact between the contact points, a second state with an electrical contact between the first and second contact points and a third state with an electrical contact between the first, second and third contact points, said micro-actuator allowing or prohibiting a switchover between the second and third operating states of the contactor according to the electrical control which is applied to it.
A computing device comprising: a base member; a display member; a first hinge attached to the base member to rotate the base member and the display member relative to each other about a first pivotal axis of rotation; and a second hinge attached between the first hinge and the display member to rotate the base member and the display member relative to each other about a second pivotal axis of rotation to transition the computing device between a laptop mode and a tablet mode; a stop in the first hinge; a locking arm (164, 166) to engage the stop when the computing device is in the tablet mode to limit rotation of the base member and the display member relative to each other about the first pivotal axis of rotation to prevent the second hinge from contacting base member, the locking arm (164, 166) not to contact the stop when the computing device is in the laptop mode; and a spring attached between the locking arm (164, 166) and the first hinge, the spring to be in a biased position when the locking arm (164, 166) engages the stop, wherein the first hinge is to rotate the base member and the display member relative to each other about the first pivotal axis of rotation to transition the computing device between the laptop mode and a closed mode. a base member; a display member; a first hinge attached to the base member to rotate the base member and the display member relative to each other about a first pivotal axis of rotation; and a second hinge attached between the first hinge and the display member to rotate the base member and the display member relative to each other about a second pivotal axis of rotation to transition the computing device between a laptop mode and a tablet mode; a stop in the first hinge; a locking arm (164, 166) to engage the stop when the computing device is in the tablet mode to limit rotation of the base member and the display member relative to each other about the first pivotal axis of rotation to prevent the second hinge from contacting base member, the locking arm (164, 166) not to contact the stop when the computing device is in the laptop mode; and a spring attached between the locking arm (164, 166) and the first hinge, the spring to be in a biased position when the locking arm (164, 166) engages the stop, wherein the first hinge is to rotate the base member and the display member relative to each other about the first pivotal axis of rotation to transition the computing device between the laptop mode and a closed mode.
A pharmaceutical composition comprising as an active ingredient at least one antibody that binds to a protein of SEQ ID NO: 1, for use in the treatment of cancer.
A ceramic circuit substrate wherein both main surfaces of a ceramic substrate have been bonded to metal plates via a silver-copper brazing material layer, characterized in that the silver-copper brazing material layer is formed from a silver-copper brazing material comprising carbon fibers at 0.3-7.5 parts by mass and titanium at 1.0-9.0 parts by mass with respect to a total of 100 parts by mass of a silver powder at 75-98 parts by mass and a copper powder at 2-25 parts by mass, and in that the carbon fibers have an average length of 15-400 μm, an average diameter of 5-25 μm, and an average aspect ratio of 3-28, wherein the ceramic substrate used in the ceramic circuit is selected from silicon nitride, aluminum nitride, aluminum oxide, zirconium oxide, silicon carbide, and lanthanum boride, and the metal used in the metal plates is selected from a simplex or alloy of copper, aluminum, iron, nickel, chrome, silver, molybdenum, and cobalt.
An apparatus comprising means for: - participating in a cooperative wireless transmission of a data block with peer apparatuses, wherein the cooperative transmission comprises an early transmit opportunity and a late transmit opportunity starting after the early transmit opportunity starts, wherein the cooperative transmission may comprise at least one further late transmission opportunity starting after the late transmit opportunity; - performing (310, 620) a listen-before-talk test to check, if first radio resources are available, - responsive to the listen-before-talk test indicating the first resources are available, initiating a transmission (320, 380) of a data block on the first radio resources during the early transmit opportunity, characterised in that the apparatus further comprises means for - providing a first signal to at least some of the peer apparatuses relating to the transmission of the data block from the apparatus, and - responsive to the listen-before-talk test not indicating the first resources are available, listening for a second signal from at least one of the peer apparatuses, relating to transmission of the data block from the at least one peer apparatus, and initiating the transmission (340, 3110) of the data block from the apparatus during the late transmit opportunity, in accordance with the second signal from the at least one peer apparatus. - participating in a cooperative wireless transmission of a data block with peer apparatuses, wherein the cooperative transmission comprises an early transmit opportunity and a late transmit opportunity starting after the early transmit opportunity starts, wherein the cooperative transmission may comprise at least one further late transmission opportunity starting after the late transmit opportunity; - performing (310, 620) a listen-before-talk test to check, if first radio resources are available, - responsive to the listen-before-talk test indicating the first resources are available, initiating a transmission (320, 380) of a data block on the first radio resources during the early transmit opportunity, characterised in that the apparatus further comprises means for - providing a first signal to at least some of the peer apparatuses relating to the transmission of the data block from the apparatus, and - responsive to the listen-before-talk test not indicating the first resources are available, listening for a second signal from at least one of the peer apparatuses, relating to transmission of the data block from the at least one peer apparatus, and initiating the transmission (340, 3110) of the data block from the apparatus during the late transmit opportunity, in accordance with the second signal from the at least one peer apparatus.
Feed unit for feeding a fluid foodstuff to a beverage dispensing device, having a feed line for feeding the fluid foodstuff from a foodstuff container to the feed unit and having a cleaning agent container for a cleaning agent and also having a cleaning agent pump arranged on or in the feed unit for conveying the cleaning agent out of the cleaning agent container, characterised in that the feed unit has a cleaning agent mixing container which is separate from the cleaning agent container and cleaning agent pump and which, optionally, in a cleaning mode is arrangeable on or in the feed unit and in a foodstuff dispensing mode is removable from the feed unit, wherein, in the cleaning mode, cleaning agent is arranged to be fed from the cleaning agent container to the cleaning agent mixing container by means of the cleaning agent pump and cleaning agent and/or a cleaning mixture are arranged to be discharged from the cleaning agent mixing container by means of the feed line.
Starting material for a sintered body, which comprises particles consisting of a silver carbonate, a silver lactate, a silver stearate, a sodium carbonate and/or a noble metal oxide, wherein the silver carbonate, the silver lactate, the silver stearate, the sodium carbonate and/or the noble metal oxide is converted in a thermal treatment of the starting material into the parent elemental metal and/or noble metal, wherein the particles have a coating containing a reducing agent, wherein the reducing agent is able to reduce the silver carbonate, the silver lactate, the silver stearate, the sodium carbonate and/or the noble metal oxide to the elemental metal and/or noble metal at a temperature below the sintering temperature of the elemental metal and/or noble metal, and wherein the reducing agent comprises at least one alcohol from the group consisting of primary or secondary alcohols and/or an amine and/or a formic acid and/or a fatty acid.
A relay link setup method in an 802.11 wireless communication system, the method comprising, at a source station: receiving capability information of at least one relay supporting station included in the 802.11 wireless communication system from an access point, AP, or a personal basic service set, PBSS, central point, PCP,; selecting one of the at least one relay supporting station as a relay station, using channel measurement information according to beam forming among the source station, a destination station, and the at least one relay supporting station and the capability information; transferring a relay link setup request frame to the destination station; and receiving a relay link setup response frame that includes information on a relay link setup result from the destination station, wherein the relay link setup request frame and the relay link setup response frame pass through the relay station, wherein the capability information refer to relay capability information of the relay supporting station. receiving capability information of at least one relay supporting station included in the 802.11 wireless communication system from an access point, AP, or a personal basic service set, PBSS, central point, PCP,; selecting one of the at least one relay supporting station as a relay station, using channel measurement information according to beam forming among the source station, a destination station, and the at least one relay supporting station and the capability information; transferring a relay link setup request frame to the destination station; and receiving a relay link setup response frame that includes information on a relay link setup result from the destination station, wherein the relay link setup request frame and the relay link setup response frame pass through the relay station, wherein the capability information refer to relay capability information of the relay supporting station.
An electronically controlled pneumatic brake system for an automotive vehicle, said system comprising: - one or more front axle brake module for providing pneumatic control pressure to the left and right front pneumatic brake actuators (FW-L, FW-R), - one or more rear axle brake module for providing pneumatic control pressure to the left and right rear pneumatic brake actuators (RW-L, RW-R), - an air production module selectively providing air under pressure to said front and rear axles electronic brake modules (FBM, RBM) via at least a first air supply circuit for the rear axle and a second air supply circuit for the front axle, - first and second air reservoirs (R1, R2), respectively coupled to first and second air supply circuits, characterized in that the system comprises a third reservoir and a third air supply circuit connected to the third reservoir, for providing a redundant pneumatic supply to the front axle brake module and to the rear axle brake module, wherein the third air supply circuit provides substantially same braking performance as the first air supply circuit for the rear axle at nominal conditions and/or substantially same braking performance as the second air supply circuit for the front axle at nominal conditions. - one or more front axle brake module for providing pneumatic control pressure to the left and right front pneumatic brake actuators (FW-L, FW-R), - one or more rear axle brake module for providing pneumatic control pressure to the left and right rear pneumatic brake actuators (RW-L, RW-R), - an air production module selectively providing air under pressure to said front and rear axles electronic brake modules (FBM, RBM) via at least a first air supply circuit for the rear axle and a second air supply circuit for the front axle, - first and second air reservoirs (R1, R2), respectively coupled to first and second air supply circuits,