mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing a vehicle-to-x, V2X, operation in a wireless communication system, the method performed by a user equipment, UE, and comprising: sensing a sensing duration, wherein a plurality of subframes before a K-th subframe is within the sensing duration, wherein the sensing is to perform an energy measurement on the sensing duration; based on a result of the sensing on the sensing duration, selecting (S1010) a specific V2X resource among a plurality of V2X resources on a specific subframe within a selection duration, wherein the selection duration is a duration from a K-th subframe to a (K+Y)-th subframe wherein the Y is a value related to a length of the selection duration and the Y is the value fulfilling a latency requirement, wherein the latency requirement is related to a requirement for a latency of a buffered data, wherein the specific V2X resource is able to be selected in the selection duration, wherein the specific V2X resource is defined based on a time and a frequency in a time division and a frequency division, wherein the selection duration is located after the sensing duration; and performing (S1020) the V2X operation based on the specific V2X resource, wherein the sensing duration has a boundary of a time duration which is specific to the UE. sensing a sensing duration, wherein a plurality of subframes before a K-th subframe is within the sensing duration, wherein the sensing is to perform an energy measurement on the sensing duration; based on a result of the sensing on the sensing duration, selecting (S1010) a specific V2X resource among a plurality of V2X resources on a specific subframe within a selection duration, wherein the selection duration is a duration from a K-th subframe to a (K+Y)-th subframe wherein the Y is a value related to a length of the selection duration and the Y is the value fulfilling a latency requirement, wherein the latency requirement is related to a requirement for a latency of a buffered data, wherein the specific V2X resource is able to be selected in the selection duration, wherein the specific V2X resource is defined based on a time and a frequency in a time division and a frequency division, wherein the selection duration is located after the sensing duration; and performing (S1020) the V2X operation based on the specific V2X resource, wherein the sensing duration has a boundary of a time duration which is specific to the UE.
A method of manufacturing an article of footwear comprising: providing a textile ; applying at least one of heat and pressure to the textile using a texturing device to form a textured area of the textile, the textured area being spaced apart from a substantially smooth area of the textile; and forming at least part of an upper from the textile after applying the at least one of heat and pressure to the textile, the upper having a cavity configured to receive a foot; the substantially smooth area configured to define a reference boundary of the upper , the substantially smooth area and the textured area each configured to be disposed at predetermined regions of the upper ; and wherein forming the textured area includes forming a plurality of projection structures that project outwardly from the reference boundary at varying distances, characterised in that the plurality of projection structures are arranged in a gradient pattern. providing a textile ; applying at least one of heat and pressure to the textile using a texturing device to form a textured area of the textile, the textured area being spaced apart from a substantially smooth area of the textile; and forming at least part of an upper from the textile after applying the at least one of heat and pressure to the textile, the upper having a cavity configured to receive a foot; the substantially smooth area configured to define a reference boundary of the upper , the substantially smooth area and the textured area each configured to be disposed at predetermined regions of the upper ; and wherein forming the textured area includes forming a plurality of projection structures that project outwardly from the reference boundary at varying distances, characterised in that the plurality of projection structures are arranged in a gradient pattern. characterised in that the plurality of projection structures are arranged in a gradient pattern.
A method for marking an article , comprising: providing the article including a substrate , the substrate including a surface and a surface material ; and forming a design on the surface of the substrate by applying a marking material to the surface ; wherein applying the marking material includes an additive manufacturing technique; wherein the surface includes a first surface and a second surface , the second surface defining a depression relative to the first surface ; and wherein forming the design on the surface of the substrate comprises applying the marking material to the second surface , the marking material forming a marking surface , the marking surface being substantially flush with the first surface , wherein the article is a gas turbine component, a steam turbine component, an aviation jet engine component, an internal combustion engine component, a turbine shroud, a turbine blade, a turbine nozzle, a turbine wheel, a near flow pass seal, a compressor blade, a combustion sub-system component, a fuel nozzle, a combustion can, a liner, a transition piece, a cap, or combination thereof. providing the article including a substrate , the substrate including a surface and a surface material ; and forming a design on the surface of the substrate by applying a marking material to the surface ; wherein applying the marking material includes an additive manufacturing technique; wherein the surface includes a first surface and a second surface , the second surface defining a depression relative to the first surface ; and wherein forming the design on the surface of the substrate comprises applying the marking material to the second surface , the marking material forming a marking surface , the marking surface being substantially flush with the first surface , wherein the article is a gas turbine component, a steam turbine component, an aviation jet engine component, an internal combustion engine component, a turbine shroud, a turbine blade, a turbine nozzle, a turbine wheel, a near flow pass seal, a compressor blade, a combustion sub-system component, a fuel nozzle, a combustion can, a liner, a transition piece, a cap, or combination thereof.
A first mobile computing device , comprising: a clock ; a memory area storing machine-executable instructions for generating a bulk fine timing measurement, BFTM, allocation message ; and a processor configured to execute the instructions to: identify other mobile computing devices (100B-100E) in an area, determine a time of departure, TOD, for a BFTM allocation message to the other mobile devices in the area, determine a contention-free period for the other computing devices to transmit timing measurement messages, determine a scheduling order for the other mobile computing devices (100B-100E) to transmit the timing measurement messages, characterized in that the processor is further configured to execute instructions to generate the BFTM allocation message to include the TOD , the contention-free period, and the scheduling order, and transmit the BFTM allocation message to the other computing devices (100B-100E) at the time indicated in the TOD . a clock ; a memory area storing machine-executable instructions for generating a bulk fine timing measurement, BFTM, allocation message ; and a processor configured to execute the instructions to: identify other mobile computing devices (100B-100E) in an area, determine a time of departure, TOD, for a BFTM allocation message to the other mobile devices in the area, determine a contention-free period for the other computing devices to transmit timing measurement messages, determine a scheduling order for the other mobile computing devices (100B-100E) to transmit the timing measurement messages, identify other mobile computing devices (100B-100E) in an area, determine a time of departure, TOD, for a BFTM allocation message to the other mobile devices in the area, determine a contention-free period for the other computing devices to transmit timing measurement messages, determine a scheduling order for the other mobile computing devices (100B-100E) to transmit the timing measurement messages, characterized in that the processor is further configured to execute instructions to generate the BFTM allocation message to include the TOD , the contention-free period, and the scheduling order, and transmit the BFTM allocation message to the other computing devices (100B-100E) at the time indicated in the TOD . generate the BFTM allocation message to include the TOD , the contention-free period, and the scheduling order, and transmit the BFTM allocation message to the other computing devices (100B-100E) at the time indicated in the TOD .
An encoding and modulation method, comprising: obtaining an information bit sequence S b , and encoding the information bit sequence S b by using a low-density parity-check, LDPC matrix H , to obtain an encoded code sequence S c , wherein the LDPC matrix H is generated by expanding a base matrix H b by using an expansion factor z , and a value of z is a positive integer; modulating the encoded code sequence S c , to obtain a modulated symbol sequence S M , wherein bits in a least reliable code block in the encoded code sequence S c are mapped, in a modulation process, to non-least reliable bit locations that are used for constellation modulation; and sending the modulated symbol sequence S M to a receive end, wherein that bits in a least reliable code block in the encoded code sequence S c are mapped, in a modulation process, to non-least reliable bit locations that are used for constellation modulation comprises: the bits in the least reliable code block in the encoded code sequence S c are mapped, in the modulation process, to most reliable or second-most reliable bit locations that are used for constellation modulation. obtaining an information bit sequence S b , and encoding the information bit sequence S b by using a low-density parity-check, LDPC matrix H , to obtain an encoded code sequence S c , wherein the LDPC matrix H is generated by expanding a base matrix H b by using an expansion factor z , and a value of z is a positive integer; modulating the encoded code sequence S c , to obtain a modulated symbol sequence S M , wherein bits in a least reliable code block in the encoded code sequence S c are mapped, in a modulation process, to non-least reliable bit locations that are used for constellation modulation; and sending the modulated symbol sequence S M to a receive end, wherein that bits in a least reliable code block in the encoded code sequence S c are mapped, in a modulation process, to non-least reliable bit locations that are used for constellation modulation comprises: the bits in the least reliable code block in the encoded code sequence S c are mapped, in the modulation process, to most reliable or second-most reliable bit locations that are used for constellation modulation.
Protection method for a rail network, which is divided by track elements (S1, S2, ..., Sp) into track sections (G1, G2, ..., Gq) and on which vehicles (Z1, Z2, ..., Zr) can travel, in which the vehicles (Z1, Z2, ..., Zr) request, from selected track elements, steps (B, R, M) for assignment as a route element wherein - each (Si, where i = 1 to p) of the selected track elements in each case specifies at least one signal (HS; ZS) for each vehicle (Zm, where m = 1 to r), which requests at least one of the steps (B, R, M) for assignment as a route element from it, wherein the respective track element (Si, where i = 1 to p) specifies the type, the position and the status of the at least one signal (HS; ZS) for the respective vehicle (Zm, where m = 1 to r), - at least one of the signals is specified as a virtual main signal (HS) at a braking target point (HP), which is a danger point, and - at least one of the signals is specified as a virtual target signal (ZS) at a braking target point (ZP), which is not a danger point. - each (Si, where i = 1 to p) of the selected track elements in each case specifies at least one signal (HS; ZS) for each vehicle (Zm, where m = 1 to r), which requests at least one of the steps (B, R, M) for assignment as a route element from it, wherein the respective track element (Si, where i = 1 to p) specifies the type, the position and the status of the at least one signal (HS; ZS) for the respective vehicle (Zm, where m = 1 to r), - at least one of the signals is specified as a virtual main signal (HS) at a braking target point (HP), which is a danger point, and - at least one of the signals is specified as a virtual target signal (ZS) at a braking target point (ZP), which is not a danger point.
A mesh for an atomizer assembly comprising a first surface , a second surface and a plurality of nozzles extending between the first surface and the second surface, wherein the first surface is at least partially coated with a hydrophilic coating or the second surface is at least partially coated with a hydrophobic coating, wherein the nozzles define an inner surface and wherein the inner surface is at least partially coated with a hydrophilic coating.
An implantable electrical/electronic biomedical device comprising: a) a reservoir comprising an inlet at a first end and a mechanical support at a second, opposed end, and b) at least one electrode structure deployable by eversion, said electrode structure comprising: i) an elastic polymeric support operatively connected to the reservoir's inlet through a first end and to the mechanical support at a second end , and ii) at least one conductive track disposed on a surface (S) of said elastic polymeric support . a) a reservoir comprising an inlet at a first end and a mechanical support at a second, opposed end, and b) at least one electrode structure deployable by eversion, said electrode structure comprising: i) an elastic polymeric support operatively connected to the reservoir's inlet through a first end and to the mechanical support at a second end , and ii) at least one conductive track disposed on a surface (S) of said elastic polymeric support . i) an elastic polymeric support operatively connected to the reservoir's inlet through a first end and to the mechanical support at a second end , and ii) at least one conductive track disposed on a surface (S) of said elastic polymeric support .
A method comprising: (a) receiving antenna platform format information of a transmitting device having multiple antenna elements, wherein the antenna platform format information comprises antenna platform position and orientation information, a number of antenna elements, and phase center and polarization information for each antenna element, (b) receiving a plurality of direction finding, in the following also referred to as DF, sounding signals transmitted from the transmitting device via the multiple antenna elements; (c) estimating a DF solution by performing a DF algorithm by a receiving device based on the plurality of DF sounding signals and the antenna platform format information to produce an estimated DF solution; and (d) determining location information based on the estimated DF solution, characterized in that the antenna platform format information further comprises an antenna platform format indicator indicating a simplified antenna platform format information. (a) receiving antenna platform format information of a transmitting device having multiple antenna elements, wherein the antenna platform format information comprises antenna platform position and orientation information, a number of antenna elements, and phase center and polarization information for each antenna element, (b) receiving a plurality of direction finding, in the following also referred to as DF, sounding signals transmitted from the transmitting device via the multiple antenna elements; (c) estimating a DF solution by performing a DF algorithm by a receiving device based on the plurality of DF sounding signals and the antenna platform format information to produce an estimated DF solution; and (d) determining location information based on the estimated DF solution, characterized in that the antenna platform format information further comprises an antenna platform format indicator indicating a simplified antenna platform format information. characterized in that the antenna platform format information further comprises an antenna platform format indicator indicating a simplified antenna platform format information.
The use of an adhesive comprising: - at least one epoxy resin (A) selected from bisphenol A epoxy resins, bisphenol F epoxy resins, and phenol novolac epoxy resins; - a polyamine compound (B) wherein two or more amino groups are bonded together through an aliphatic hydrocarbon group, and all amino groups are primary amino groups; and - a compound (C) of formula : where n is an integer of 1-6, and R is an aliphatic hydrocarbon group, an alicyclic hydrocarbon group, an aromatic hydrocarbon group, an aromatic heterocyclic group, or a combination thereof, the groups and the combination each having a valence of n, provided that R does not adopt a -phenylene-methylene-phenylene- structure or bind to an epoxy group in the formula to form a ring, for fixing an endoscope-constituting member. - at least one epoxy resin (A) selected from bisphenol A epoxy resins, bisphenol F epoxy resins, and phenol novolac epoxy resins; - a polyamine compound (B) wherein two or more amino groups are bonded together through an aliphatic hydrocarbon group, and all amino groups are primary amino groups; and - a compound (C) of formula : where n is an integer of 1-6, and R is an aliphatic hydrocarbon group, an alicyclic hydrocarbon group, an aromatic hydrocarbon group, an aromatic heterocyclic group, or a combination thereof, the groups and the combination each having a valence of n, provided that R does not adopt a -phenylene-methylene-phenylene- structure or bind to an epoxy group in the formula to form a ring, where n is an integer of 1-6, and R is an aliphatic hydrocarbon group, an alicyclic hydrocarbon group, an aromatic hydrocarbon group, an aromatic heterocyclic group, or a combination thereof, the groups and the combination each having a valence of n, provided that R does not adopt a -phenylene-methylene-phenylene- structure or bind to an epoxy group in the formula to form a ring,
A packet cache system comprising: a memory allocator for assigning a memory address to a packet; a cache memory allocator for receiving the memory address corresponding to a non-cache memory and allocated to the packet, and associating the memory address with a cache memory address; a hash table for storing the memory address and the cache memory address, with the memory address as a key and the cache memory address as a value; a cache memory for storing the packet at a location indicated by the cache memory address; and an eviction engine for determining one or more cached packets to remove from the cache memory and place in the non-cache memory when occupancy of the cache memory is high, characterized in that the memory allocator is operable to form the packet into one or more cells, the one or more cells comprising a control cell when the packet is formed into one cell, and comprising a control cell and one or more data cells when the packet is formed into more than one cell, wherein the memory allocator assigns the memory address to the control cell, and respectively assigns one or more additional memory addresses to the one or more data cells. a memory allocator for assigning a memory address to a packet; a cache memory allocator for receiving the memory address corresponding to a non-cache memory and allocated to the packet, and associating the memory address with a cache memory address; a hash table for storing the memory address and the cache memory address, with the memory address as a key and the cache memory address as a value; a cache memory for storing the packet at a location indicated by the cache memory address; and an eviction engine for determining one or more cached packets to remove from the cache memory and place in the non-cache memory when occupancy of the cache memory is high, characterized in that the memory allocator is operable to form the packet into one or more cells, the one or more cells comprising a control cell when the packet is formed into one cell, and comprising a control cell and one or more data cells when the packet is formed into more than one cell, wherein the memory allocator assigns the memory address to the control cell, and respectively assigns one or more additional memory addresses to the one or more data cells.
A fluid meter comprising: • a first communication interface arranged both to communicate via a radio link with a communication interface of a cut-off unit comprising an electromechanical valve , and also to transmit electrical energy via the radio link, the electrical energy being adapted to power the communication interface of the cut-off unit; • a first processor module arranged: • to evaluate a flow rate of fluid being supplied to an installation connected to the fluid meter and, if the flow rate of fluid remains greater than a first predetermined flow rate threshold for at least a first predetermined duration, to detect that there is a leak of fluid in the installation and transmit an internal command frame via the first communication interface to the communication interface of the cut-off unit, the internal command frame incorporating a closing command in order to close the electromechanical valve; • following closing of the electromechanical valve, to acquire a first external command frame via the first communication interface, the first external command frame incorporating an opening command and being produced by the cut-off unit following a manual action on an actuator member of the cut-off unit, to produce an internal command frame incorporating the opening command, and to transmit said internal command frame via the first communication interface to the communication interface of the cut-off unit in order to reopen the electromechanical valve. • a first communication interface arranged both to communicate via a radio link with a communication interface of a cut-off unit comprising an electromechanical valve , and also to transmit electrical energy via the radio link, the electrical energy being adapted to power the communication interface of the cut-off unit; • a first processor module arranged: • to evaluate a flow rate of fluid being supplied to an installation connected to the fluid meter and, if the flow rate of fluid remains greater than a first predetermined flow rate threshold for at least a first predetermined duration, to detect that there is a leak of fluid in the installation and transmit an internal command frame via the first communication interface to the communication interface of the cut-off unit, the internal command frame incorporating a closing command in order to close the electromechanical valve; • following closing of the electromechanical valve, to acquire a first external command frame via the first communication interface, the first external command frame incorporating an opening command and being produced by the cut-off unit following a manual action on an actuator member of the cut-off unit, to produce an internal command frame incorporating the opening command, and to transmit said internal command frame via the first communication interface to the communication interface of the cut-off unit in order to reopen the electromechanical valve.