mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit (900, 910, 940), comprising: logic analyzer circuitry having a first input receiving a plurality of system module test signals, the plurality of system module test signals being available to the logic analyzer circuitry for sampling and event triggering, and a first output for providing selected samples of the plurality of signals appearing at the first input, characterized in that the integrated circuit (900, 910, 940) further comprises: a first block (904, 920) having a first input coupled to the logic analyzer circuitry for receiving one or more of the signals appearing at the first input thereof, circuitry for generating a distinct set of one or more test signals based upon the received one or more signals appearing at the first input of the logic analyzer and according to a predetermined function, the predetermined function being configurable, and an output coupled to a second input of the the logic analyzer circuitry for directly providing the generated distinct set of one or more test signals to the logic analyzer circuitry as additional test signals for at least one of sampling thereof and event triggering. logic analyzer circuitry having a first input receiving a plurality of system module test signals, the plurality of system module test signals being available to the logic analyzer circuitry for sampling and event triggering, and a first output for providing selected samples of the plurality of signals appearing at the first input, characterized in that the integrated circuit (900, 910, 940) further comprises: a first block (904, 920) having a first input coupled to the logic analyzer circuitry for receiving one or more of the signals appearing at the first input thereof, circuitry for generating a distinct set of one or more test signals based upon the received one or more signals appearing at the first input of the logic analyzer and according to a predetermined function, the predetermined function being configurable, and an output coupled to a second input of the the logic analyzer circuitry for directly providing the generated distinct set of one or more test signals to the logic analyzer circuitry as additional test signals for at least one of sampling thereof and event triggering. a first block (904, 920) having a first input coupled to the logic analyzer circuitry for receiving one or more of the signals appearing at the first input thereof, circuitry for generating a distinct set of one or more test signals based upon the received one or more signals appearing at the first input of the logic analyzer and according to a predetermined function, the predetermined function being configurable, and an output coupled to a second input of the the logic analyzer circuitry for directly providing the generated distinct set of one or more test signals to the logic analyzer circuitry as additional test signals for at least one of sampling thereof and event triggering.
A method of fabricating a spin-orbit torque-based magnetic tunnel junction, the method comprising: forming a spin-orbit active layer on a substrate; forming a free layer on the spin-orbit active layer; forming a tunnel barrier layer on the free layer; forming a pinned layer on the tunnel barrier layer; and thermal-treating the free layer and the pinned layer to exhibit perpendicular magnetic anisotropy, wherein, in the forming of the spin-orbit active layer, W target and X target are simultaneously sputtered in a vacuum chamber such that a W-X alloy thin film, where W is tungsten and X comprises at least one of group IV semiconductors and group III-V semiconductors, is formed on the substrate disposed in the vacuum chamber. forming a spin-orbit active layer on a substrate; forming a free layer on the spin-orbit active layer; forming a tunnel barrier layer on the free layer; forming a pinned layer on the tunnel barrier layer; and thermal-treating the free layer and the pinned layer to exhibit perpendicular magnetic anisotropy, wherein, in the forming of the spin-orbit active layer, W target and X target are simultaneously sputtered in a vacuum chamber such that a W-X alloy thin film, where W is tungsten and X comprises at least one of group IV semiconductors and group III-V semiconductors, is formed on the substrate disposed in the vacuum chamber.
An antibody or antibody fragment that binds to a SARS-CoV-2 surface spike protein, wherein the antibody or antibody fragment comprises a CDRH1 comprising the amino acid sequence of SEQ ID NO:59, a CDRH2 comprising the amino acid sequence of SEQ ID NO:60, a CDRH3 comprising the amino acid sequence of SEQ ID NO:61, a CDRL1 comprising the amino acid sequence of SEQ ID NO:89, a CDRL2 comprising the amino acid sequence of SEQ ID NO:90, a CDRL3 comprising the amino acid sequence of SEQ ID NO:91.
Method for transmitting control commands to at least one actuator in a vehicle, comprising the steps of: a) monitoring a communication bus; b) detecting an event; c) dividing the electrical connection of the communication bus into a first bus segment based on the detection of the event and a second bus segment, wherein the actuator is part of the second bus segment; d) transmitting the control commands to the at least one actuator on the second bus segment, wherein, after the electrical connection of the communication bus has been divided, in a forwarding phase, the transmission is performed in such a way that the control commands are received on the first bus segment and output on the second bus segment; and/or in an absorption phase, at least one control command directed to the actuator is received and acknowledged on the first bus segment but is not output on the second bus segment. a) monitoring a communication bus; b) detecting an event; c) dividing the electrical connection of the communication bus into a first bus segment based on the detection of the event and a second bus segment, wherein the actuator is part of the second bus segment; d) transmitting the control commands to the at least one actuator on the second bus segment, wherein, after the electrical connection of the communication bus has been divided, in a forwarding phase, the transmission is performed in such a way that the control commands are received on the first bus segment and output on the second bus segment; and/or in an absorption phase, at least one control command directed to the actuator is received and acknowledged on the first bus segment but is not output on the second bus segment.
A method, performed by a provider network edge, PE, for storing a media access control, MAC, address entry, where the method is applied in Ethernet virtual private networks, EVPNs, the method comprises: Sending, a first packet to a route reflector, RR, so that the RR determines a MAC address entry according to the first packet, wherein the RR stores a MAC address table, and the MAC address table comprises the MAC address entry; receiving, a packet which comprises the MAC address entry determined and sent by the RR, and storing the MAC address entry. Sending, a first packet to a route reflector, RR, so that the RR determines a MAC address entry according to the first packet, wherein the RR stores a MAC address table, and the MAC address table comprises the MAC address entry; receiving, a packet which comprises the MAC address entry determined and sent by the RR, and storing the MAC address entry.
A feedthrough assembly for an implantable medical device, having an insulator body and a ferrule, the ferrule having a frame body including an upper surface and an opposing lower surface, an interior perimeter surface extending between the upper and lower surfaces (88,90) and defining an interior opening in which the insulator body is disposed, and an exterior perimeter surface extending between the upper and lower surfaces (88,90) for attachment to a housing, and characterized by: a single flange extending from the exterior perimeter surface and having an upper surface facing the upper surface of the frame body, the upper surface of the single flange to serve as a stop against an interior surface of a housing of the implantable medical device to limit a distance of an exterior surface of the housing from the upper surface of the frame body along the exterior perimeter surface in a direction toward the bottom surface of the frame body, wherein a distance from the top surface of the single flange to the top surface of the frame body is not greater than 1.5 times a thickness of the housing to enable a butt weld to be made between exterior perimeter surface and housing.
A vehicle group management method in a Vehicle to Everything, V2X, system, comprising: in a coverage area of a Road Side Unit, RSU, determining, by the RSU, whether state information of a plurality of vehicle groups meets a first preset condition for integrating the plurality of vehicle groups or a second preset condition for splitting the plurality of vehicle groups; if it is determined that the state information of the plurality of vehicle groups meets the first preset condition for integrating the plurality of vehicle groups or the second preset condition for splitting the plurality of vehicle groups, integrating, by the RSU, the plurality of vehicle groups according to the first preset condition, or splitting, by the RSU, the vehicle groups according to the second preset condition; and designating, by the RSU, a vehicle in the integrated vehicle groups or split vehicle groups as a designated vehicle, wherein the designated vehicle has a management right for managing the vehicle groups. in a coverage area of a Road Side Unit, RSU, determining, by the RSU, whether state information of a plurality of vehicle groups meets a first preset condition for integrating the plurality of vehicle groups or a second preset condition for splitting the plurality of vehicle groups; if it is determined that the state information of the plurality of vehicle groups meets the first preset condition for integrating the plurality of vehicle groups or the second preset condition for splitting the plurality of vehicle groups, integrating, by the RSU, the plurality of vehicle groups according to the first preset condition, or splitting, by the RSU, the vehicle groups according to the second preset condition; and designating, by the RSU, a vehicle in the integrated vehicle groups or split vehicle groups as a designated vehicle, wherein the designated vehicle has a management right for managing the vehicle groups.
Device for guiding a fabric that includes two vertical rigid elements that are facing each other, of which one of them is a fixed vertical rigid element while the other one is a mobile vertical rigid element that can slide from an initial position of being in contact with the fixed vertical element or near the fixed vertical rigid element to a final position, getting farther away from the fixed vertical rigid element, with the mobile vertical rigid element including two vertical rails (11, 12), and with its sliding guided by an upper flexible element and a lower flexible element that retract as the device is closed, sliding along two vertical rails (11, 12) of the mobile vertical rigid element, with the upper flexible element connected by one of its ends to the end of the fixed vertical rigid element, with the lower flexible element connected by one of its ends to the fixed vertical rigid element and wherein the upper flexible element and the lower flexible element are connected by their ends to the ends of an intermediate flexible element in such a manner that these upper and lower flexible elements push or pull on the intermediate flexible element, which moves inside the vertical rails (11, 12) turning about a pivot point that is included in the mobile vertical rigid element. and characterized in that the upper flexible element is comprised of at least one curved transversal section sheet.
A method for producing a flexurally rigid consolidated laminated sheet, comprising the following steps: a) providing a nonwoven fiber mat comprising reinforcing fibers; b) subjecting said nonwoven fiber mat to a needling process, thereby obtaining a needled nonwoven fiber mat; c) providing at least one thermoplastic resin sheet and at least one surface sheet, said surface sheet being formed of a non-woven cloth comprising cloth fibers, and arranging said surface sheet and said resin sheet to be substantially co-planar to said needled non-woven fiber mat, thereby obtaining a multilayered sheet, with the provision that said thermoplastic resin has a first softening temperature T1 that is lower than both a second softening temperature T2 of said cloth fibers and a third softening temperature T3 of said reinforcing fibers; d) subjecting said multilayered sheet to a heating and pressure treatment, thereby melting said thermoplastic resin sheet so as to form a fully impregnated laminated sheet; e) subjecting said fully impregnated laminated sheet to a cooling and pressure treatment, thereby solidifying said melted thermoplastic resin, so as to form a consolidated laminated sheet (15, 16) with a porosity not exceeding 5% by volume. wherein at least steps c) to e) are carried out as a continuous process. a) providing a nonwoven fiber mat comprising reinforcing fibers; b) subjecting said nonwoven fiber mat to a needling process, thereby obtaining a needled nonwoven fiber mat; c) providing at least one thermoplastic resin sheet and at least one surface sheet, said surface sheet being formed of a non-woven cloth comprising cloth fibers, and arranging said surface sheet and said resin sheet to be substantially co-planar to said needled non-woven fiber mat, thereby obtaining a multilayered sheet, with the provision that said thermoplastic resin has a first softening temperature T1 that is lower than both a second softening temperature T2 of said cloth fibers and a third softening temperature T3 of said reinforcing fibers; d) subjecting said multilayered sheet to a heating and pressure treatment, thereby melting said thermoplastic resin sheet so as to form a fully impregnated laminated sheet; e) subjecting said fully impregnated laminated sheet to a cooling and pressure treatment, thereby solidifying said melted thermoplastic resin, so as to form a consolidated laminated sheet (15, 16) with a porosity not exceeding 5% by volume.
Process for preparing cyanoalkylfluorosilanes of the general formula I N≡C-(CH 2) n -SiF 3-x R x, wherein cyanoalkylchlorosilanes of the general formula II N≡C-(CH 2) n -SiCl 3-x R x, are reacted with metal fluoride, wherein the metal is selected from main group 1 and from the lightest metals of transition groups 8, 1B, and 2B of the periodic table of the elements, R denotes an alkyl radical, methyl, ethyl, n-propyl, isopropyl, 1-n-butyl, 2-n-butyl, isobutyl, tert-butyl, n-pentyl, isopentyl, neopentyl, tert-pentyl radical; hexyl radicals, heptyl radicals, octyl radicals, nonyl radicals, decyl radicals, dodecyl radicals, octadecyl radicals and cycloalkyl radicals, n denotes integral values from 1 to 10, and x denotes the values 0, 1 or 2. R denotes an alkyl radical, methyl, ethyl, n-propyl, isopropyl, 1-n-butyl, 2-n-butyl, isobutyl, tert-butyl, n-pentyl, isopentyl, neopentyl, tert-pentyl radical; hexyl radicals, heptyl radicals, octyl radicals, nonyl radicals, decyl radicals, dodecyl radicals, octadecyl radicals and cycloalkyl radicals, n denotes integral values from 1 to 10, and x denotes the values 0, 1 or 2.
A method performed by a User Equipment, UE, of a wireless communication network for transmitting signals in uplink, wherein an uplink signal structure defines subframes divided into symbols, the method comprising: receiving a control information message from a Base Station, BS, of the wireless communication network, the control information message comprising uplink scheduling information for a short scheduling interval assigned to the UE, the short scheduling interval being shorter in time than a subframe and comprising at least one symbol, the uplink scheduling information indicating: a length of the short scheduling interval in number of symbols; and a position of one or more symbols occupied by a reference signal in the short scheduling interval; and transmitting the reference signal in the short scheduling interval according to the received control information message. receiving a control information message from a Base Station, BS, of the wireless communication network, the control information message comprising uplink scheduling information for a short scheduling interval assigned to the UE, the short scheduling interval being shorter in time than a subframe and comprising at least one symbol, the uplink scheduling information indicating: a length of the short scheduling interval in number of symbols; and a position of one or more symbols occupied by a reference signal in the short scheduling interval; and transmitting the reference signal in the short scheduling interval according to the received control information message.
A positive electrode active material for a secondary battery, comprising: a lithium composite transition metal oxide comprising nickel (Ni), wherein the lithium composite transition metal oxide is represented by Formula 1, and wherein the lithium composite transition metal oxide satisfies Equation 1 and Equation 2: 80 nm ≤ crystallite size FWHM ≤ 150 nm Δ size crystallite size IB − crystallite size FWHM ≤ 20 wherein, in Equation 1 and Equation 2, crystallite size FWHM is a crystallite size obtained by calculating from X-ray diffraction data using a full width at half maximum (FWHM) method, and crystallite size IB is a crystallite size obtained by calculating from XRD data using an integral breadth method; [Formula 1] Li a Ni 1-(x+y+z) Co x M' y M" z O 2+δ wherein, in Formula 1, M' is at least one selected from the group consisting of Mn and Al, M" is at least one selected from the group consisting of barium (Ba), calcium (Ca), zirconium (Zr), titanium (Ti), magnesium (Mg), tantalum (Ta), niobium (Nb), and molybdenum (Mo), 1.0≤a≤1.5, x<y, 0≤z≤0.1, 0.2≤x+y+z≤0.4, and 0≤δ≤1.0. a lithium composite transition metal oxide comprising nickel (Ni), wherein the lithium composite transition metal oxide is represented by Formula 1, and wherein the lithium composite transition metal oxide satisfies Equation 1 and Equation 2: 80 nm ≤ crystallite size FWHM ≤ 150 nm Δ size crystallite size IB − crystallite size FWHM ≤ 20 wherein, in Equation 1 and Equation 2, crystallite size FWHM is a crystallite size obtained by calculating from X-ray diffraction data using a full width at half maximum (FWHM) method, and crystallite size IB is a crystallite size obtained by calculating from XRD data using an integral breadth method; [Formula 1] Li a Ni 1-(x+y+z) Co x M' y M" z O 2+δ wherein, in Formula 1, M' is at least one selected from the group consisting of Mn and Al, M" is at least one selected from the group consisting of barium (Ba), calcium (Ca), zirconium (Zr), titanium (Ti), magnesium (Mg), tantalum (Ta), niobium (Nb), and molybdenum (Mo), 1.0≤a≤1.5, x<y, 0≤z≤0.1, 0.2≤x+y+z≤0.4, and 0≤δ≤1.0.
A rotorcraft, comprising: an avionics control unit; and a plurality of power distribution units (PDUs) (311, 313, 315) electrically connected to an electrical bus, wherein each PDU of the plurality of PDUs is electrically connected to a respective plurality of electrical loads (431a-e; 433a-e; 435a-e), wherein each PDU of the plurality of PDUs (311, 313, 315) is configured to receive commands from the ACU to couple or decouple one or more of its respectively connected plurality of electrical loads (431a-e; 433a-e; 435a-e) from the electrical bus; and wherein the ACU is configured to: associate a first set of electrical loads with a first safety priority; associate a second set of electrical loads with a second safety priority; and decouple the sets of electrical loads from the electrical bus until the used electrical power of the rotorcraft is less than a first electrical power threshold, and wherein the sets of electrical loads are decoupled in an order based on the safety priorities assigned to the sets of electrical loads. an avionics control unit; and a plurality of power distribution units (PDUs) (311, 313, 315) electrically connected to an electrical bus, wherein each PDU of the plurality of PDUs is electrically connected to a respective plurality of electrical loads (431a-e; 433a-e; 435a-e), wherein each PDU of the plurality of PDUs (311, 313, 315) is configured to receive commands from the ACU to couple or decouple one or more of its respectively connected plurality of electrical loads (431a-e; 433a-e; 435a-e) from the electrical bus; and wherein the ACU is configured to: associate a first set of electrical loads with a first safety priority; associate a second set of electrical loads with a second safety priority; associate a first set of electrical loads with a first safety priority; associate a second set of electrical loads with a second safety priority; and decouple the sets of electrical loads from the electrical bus until the used electrical power of the rotorcraft is less than a first electrical power threshold, and wherein the sets of electrical loads are decoupled in an order based on the safety priorities assigned to the sets of electrical loads.
An actuating system for a window shade, comprising: an axle coupling part rotatable for raising or lowering a bottom part of a window shade; an arresting part and an arrester coupling part connected with each other, the arresting part having a braking state and a release state; a clutching part carried with the arrester coupling part, the clutching part being movable relative to the arrester coupling part between a retracted state where the clutching part is disengaged from the axle coupling part and an extended state where the clutching part is engaged with the axle coupling part; and an actuating wheel movably linked to the clutching part, the actuating wheel being rotatable in a first direction to urge the clutching part to move from the retracted state to the extended state, and in a second direction opposite to the first direction to urge the clutching part to move from the extended state to the retracted state; characterized in that the arresting part is a spring that is disposed in tight contact with a housing and has an end anchored to the arrester coupling part, the arresting part being switched from the braking state to the release state by loosening a frictional contact of the spring with the housing. an axle coupling part rotatable for raising or lowering a bottom part of a window shade; an arresting part and an arrester coupling part connected with each other, the arresting part having a braking state and a release state; a clutching part carried with the arrester coupling part, the clutching part being movable relative to the arrester coupling part between a retracted state where the clutching part is disengaged from the axle coupling part and an extended state where the clutching part is engaged with the axle coupling part; and an actuating wheel movably linked to the clutching part, the actuating wheel being rotatable in a first direction to urge the clutching part to move from the retracted state to the extended state, and in a second direction opposite to the first direction to urge the clutching part to move from the extended state to the retracted state; characterized in that the arresting part is a spring that is disposed in tight contact with a housing and has an end anchored to the arrester coupling part, the arresting part being switched from the braking state to the release state by loosening a frictional contact of the spring with the housing.