mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method within a communication system comprising a plurality of elementary networks and one or several interconnection nodes , each elementary network including several radiocommunication nodes connected to each other through radiocommunication links according to a same radiocommunication protocol, two neighboring elementary networks being connected via one or several interconnection nodes , the method being applied by each interconnection node and being characterized in that it comprises the following steps: - determining a unique identifier for each elementary network to which the interconnection node is connected; - transmitting each determined identifier to the elementary network(s) other than the elementary network corresponding to the determined identifier; and - computing , from identifiers of elementary networks, a transmission path of at least one data packet between a source node and an destination node, the transmission path passing through one or several elementary networks , the source node and the destination node each being a node from among a radiocommunication node and an interconnection node . - determining a unique identifier for each elementary network to which the interconnection node is connected; - transmitting each determined identifier to the elementary network(s) other than the elementary network corresponding to the determined identifier; and - computing , from identifiers of elementary networks, a transmission path of at least one data packet between a source node and an destination node, the transmission path passing through one or several elementary networks , the source node and the destination node each being a node from among a radiocommunication node and an interconnection node .
A method of obtaining a surface characteristic parameter of a longitudinal orientation marking of a single crystal ingot , such as a silicon single crystal ingot , the method comprising the steps of: - providing a single crystal ingot having a cylindrical shape with a longitudinal centre axis and a radius from the longitudinal centre axis , the radius defining a surface of the single crystal ingot , the single crystal ingot having a longitudinal orientation marking carved into the surface of the single crystal ingot , the longitudinal orientation marking having a width , - rotating the single crystal ingot around a rotational axis , the rotational axis being substantially parallel with the longitudinal centre axis and located within an offset value from the longitudinal centre axis , - recording angular positions of the single crystal ingot , - recording distances from a measuring point located at a measuring distance from the rotational axis to the surface of the single crystal ingot at the angular positions, - providing a data array containing the angular positions and the distances at the corresponding angular positions, - calculating a background shape for the single crystal ingot from the data array, - comparing the distances with the background shape to identify distances deviating from the background shape, - registering the angular position of distances deviating from the background shape and the corresponding distances, and - simultaneously defining the surface characteristic parameter and the width from consecutive angular positions having distances deviating from the background shape and the corresponding distances. - providing a single crystal ingot having a cylindrical shape with a longitudinal centre axis and a radius from the longitudinal centre axis , the radius defining a surface of the single crystal ingot , the single crystal ingot having a longitudinal orientation marking carved into the surface of the single crystal ingot , the longitudinal orientation marking having a width , - rotating the single crystal ingot around a rotational axis , the rotational axis being substantially parallel with the longitudinal centre axis and located within an offset value from the longitudinal centre axis , - recording angular positions of the single crystal ingot , - recording distances from a measuring point located at a measuring distance from the rotational axis to the surface of the single crystal ingot at the angular positions, - providing a data array containing the angular positions and the distances at the corresponding angular positions, - calculating a background shape for the single crystal ingot from the data array, - comparing the distances with the background shape to identify distances deviating from the background shape, - registering the angular position of distances deviating from the background shape and the corresponding distances, and - simultaneously defining the surface characteristic parameter and the width from consecutive angular positions having distances deviating from the background shape and the corresponding distances.
A method for forwarding network packets at a device , comprising: providing a virtual machine that implements a first router; providing, in a user space of a memory of the device , a plurality of processing pipelines for enabling communications between the first router and a second router implemented in a host software stack of the device , wherein the plurality of processing pipelines includes a first processing pipeline for performing packet switching processing and a second processing pipeline for performing packet routing processing; receiving, at a network port of the device , a network packet; copying, using a device driver from kernel , the network packet from the network port to one of the plurality of processing pipelines ; accessing, by the first router, the network packet from the one of the plurality of processing pipelines ; and processing, by the first router, the network packet using a real-time thread executing on a processor core assigned to the real-time thread for forwarding of the network packet, wherein using the real-time thread comprises assigning higher priority to the real-time thread than other threads. providing a virtual machine that implements a first router; providing, in a user space of a memory of the device , a plurality of processing pipelines for enabling communications between the first router and a second router implemented in a host software stack of the device , wherein the plurality of processing pipelines includes a first processing pipeline for performing packet switching processing and a second processing pipeline for performing packet routing processing; receiving, at a network port of the device , a network packet; copying, using a device driver from kernel , the network packet from the network port to one of the plurality of processing pipelines ; accessing, by the first router, the network packet from the one of the plurality of processing pipelines ; and processing, by the first router, the network packet using a real-time thread executing on a processor core assigned to the real-time thread for forwarding of the network packet, wherein using the real-time thread comprises assigning higher priority to the real-time thread than other threads.
An aqueous ink to be ejected from a recording head of an inkjet system through an action of thermal energy, the aqueous ink comprising: a particulate component; a first surfactant; and a second surfactant, wherein the particulate component comprises at least one kind selected from the group consisting of: a pigment and a resin particle, wherein the first surfactant comprises a compound represented by a following general formula , and wherein the second surfactant comprises an acetylene glycol compound: in the general formula , "m" and "n" each independently represent an integer of 1 or more and satisfy a relationship of m+n≤10, and "a" represents an integer of 10 or more to 20 or less. a particulate component; a first surfactant; and a second surfactant, wherein the particulate component comprises at least one kind selected from the group consisting of: a pigment and a resin particle, wherein the first surfactant comprises a compound represented by a following general formula , and wherein the second surfactant comprises an acetylene glycol compound: in the general formula , "m" and "n" each independently represent an integer of 1 or more and satisfy a relationship of m+n≤10, and "a" represents an integer of 10 or more to 20 or less.
A method for inspecting a lubricant oil composition containing a base oil and a fullerene, the method comprising: measuring at least one of a lamellar length of said lubricating oil composition and a most abundant diameter in a particle size distribution obtained by a dynamic light scattering method; and selecting said lubricating oil composition whose measured value is within a set range. measuring at least one of a lamellar length of said lubricating oil composition and a most abundant diameter in a particle size distribution obtained by a dynamic light scattering method; and selecting said lubricating oil composition whose measured value is within a set range.
Method for operating a transmission system that comprises a first network and at least one further network , wherein data are interchanged between these at least two networks by virtue of data of the first network being supplied to duplicating means , wherein the supplied data are split into two data streams by the duplicating means and are wirelessly transmitted to separating means via at least two transmission links by means of the parallel redundancy protocol, PRP, and forwarded to the connected further network by the separating means , wherein the data are transmitted as data packets and it is ascertained whether or not a data packet was transmitted, and this is taken as a basis for deducing whether or not the transmission system is operating correctly.
A semiconductor device comprising a semiconducting material, wherein the semiconducting material comprises a compound comprising: (i) one or more first monocations [A]; (ii) one or more second monocations [B I ] selected from metal and metalloid monocations; (iii) one or more trications [B III ]; and (iv) one or more halide anions [X]. (i) one or more first monocations [A]; (ii) one or more second monocations [B I ] selected from metal and metalloid monocations; (iii) one or more trications [B III ]; and (iv) one or more halide anions [X].
A boom assembly, comprising: a frame comprising a first portion and a second portion hingeably coupled to the first portion; and a hinge assembly hingeably coupling the first and second portions, the hinge assembly comprising: first and second electromagnets coupled respectively to the first and second portions; a first switch membrane coupled to the second portion and configured to control an energy state of the first and second electromagnets. a frame comprising a first portion and a second portion hingeably coupled to the first portion; and a hinge assembly hingeably coupling the first and second portions, the hinge assembly comprising: first and second electromagnets coupled respectively to the first and second portions; a first switch membrane coupled to the second portion and configured to control an energy state of the first and second electromagnets. first and second electromagnets coupled respectively to the first and second portions; a first switch membrane coupled to the second portion and configured to control an energy state of the first and second electromagnets.
A method for printing an image on a surface , comprising: printing, using a printhead mounted to an arm of a robot , a new image slice on the surface while moving the printhead over the surface along a rastering path ; printing a reference line on the surface when printing the new image slice ; sensing, using a reference line sensor , the reference line of an existing image slice while printing the new image slice ; and adjusting the lateral position of the new image slice based on a sensed position of the reference line in a manner aligning a side edge of the new image slice with the side edge of the existing image slice , wherein the step of adjusting the lateral position of the new image slice includes electronically shifting nozzles actively ejecting droplets by activating one or more unused nozzles at one end of widthwise ends of the printhead and deactivating an equal number of nozzles at an opposite widthwise end of the printhead while effectively shifting a lateral position of the new image slice without laterally moving the printhead . printing, using a printhead mounted to an arm of a robot , a new image slice on the surface while moving the printhead over the surface along a rastering path ; printing a reference line on the surface when printing the new image slice ; sensing, using a reference line sensor , the reference line of an existing image slice while printing the new image slice ; and adjusting the lateral position of the new image slice based on a sensed position of the reference line in a manner aligning a side edge of the new image slice with the side edge of the existing image slice , wherein the step of adjusting the lateral position of the new image slice includes electronically shifting nozzles actively ejecting droplets by activating one or more unused nozzles at one end of widthwise ends of the printhead and deactivating an equal number of nozzles at an opposite widthwise end of the printhead while effectively shifting a lateral position of the new image slice without laterally moving the printhead .
An aircraft landing gear assembly comprising: a first body having a first side , a second side and a bearing face extending between the sides; a second body having a first side , a second side and a bearing face extending between the sides, the bodies being positioned relative to one another such that the bearing faces are adjacent to one another and the first side of each body is closer to the first side of the other body than it is to the second side of the other body; characterised by a flexible coupling arranged to limit separation of the bearing faces while permitting relative rotational movement between the bodies in a movement plane so as to define a joint between the bodies, the flexible coupling comprising: one or more flexible straps arranged in a first configuration in which the straps are coupled to the first side of the first body and coupled to the second side of the second body; and one or more flexible straps arranged in a second configuration in which the straps are coupled to the second side of the first body and coupled to the first side of the second body, the straps of the first and second configurations being arranged in parallel across the joint. a first body having a first side , a second side and a bearing face extending between the sides; a second body having a first side , a second side and a bearing face extending between the sides, the bodies being positioned relative to one another such that the bearing faces are adjacent to one another and the first side of each body is closer to the first side of the other body than it is to the second side of the other body; characterised by a flexible coupling arranged to limit separation of the bearing faces while permitting relative rotational movement between the bodies in a movement plane so as to define a joint between the bodies, the flexible coupling comprising: one or more flexible straps arranged in a first configuration in which the straps are coupled to the first side of the first body and coupled to the second side of the second body; and one or more flexible straps arranged in a second configuration in which the straps are coupled to the second side of the first body and coupled to the first side of the second body, the straps of the first and second configurations being arranged in parallel across the joint. one or more flexible straps arranged in a first configuration in which the straps are coupled to the first side of the first body and coupled to the second side of the second body; and one or more flexible straps arranged in a second configuration in which the straps are coupled to the second side of the first body and coupled to the first side of the second body, the straps of the first and second configurations being arranged in parallel across the joint.
A method performed by a wireless device for providing information on a control channel, the method comprising: sampling (S106) one of even samples or odd samples of a base sequence and modulating the sampled one of the even samples or the sampled odd samples to create a first control channel sequence; performing (S108) a second sampling of the other of the odd or even samples of the base sequence to create a second control channel sequence; and frequency division multiplexing (S110) the first and second control channel sequences to produce a control channel transmission, wherein the control channel transmission comprises an uplink control information, UCI, symbol having at least two bits and wherein one of the first or the second bit of the at least two bits determines one of two cyclic shifts of the base sequence and the other of the first or the second bits determines a binary phase shift keying, BPSK, symbol, wherein the modulating of the samples for the first control channel sequence is by the binary phase shift keying, BPSK, symbol; and wherein the second control channel sequence includes a demodulation reference signal, DMRS. sampling (S106) one of even samples or odd samples of a base sequence and modulating the sampled one of the even samples or the sampled odd samples to create a first control channel sequence; performing (S108) a second sampling of the other of the odd or even samples of the base sequence to create a second control channel sequence; and frequency division multiplexing (S110) the first and second control channel sequences to produce a control channel transmission, wherein the control channel transmission comprises an uplink control information, UCI, symbol having at least two bits and wherein one of the first or the second bit of the at least two bits determines one of two cyclic shifts of the base sequence and the other of the first or the second bits determines a binary phase shift keying, BPSK, symbol, wherein the modulating of the samples for the first control channel sequence is by the binary phase shift keying, BPSK, symbol; and wherein the second control channel sequence includes a demodulation reference signal, DMRS.
A receptacle for being used as a portion of a transdermal drug delivery apparatus for being engaged to skin of a user and supplying fluid, the receptacle comprising: a housing for being fastened to the user; a force provider that is elastic; a microneedle assembly movably mounted to the housing for moving inwardly and outwardly relative to the housing ; and characterised by at least one deformable component , wherein the microneedle assembly being movably mounted to the housing is comprised of the force provider being positioned between the housing and the microneedle assembly for forcing the microneedle assembly outwardly relative to the housing and against the skin of the user, and the at least one deformable component being connected between the microneedle assembly and the housing for both allowing relative movement between the microneedle assembly and the housing , and at least partially restricting the microneedle assembly from falling away from the housing . a housing for being fastened to the user; a force provider that is elastic; a microneedle assembly movably mounted to the housing for moving inwardly and outwardly relative to the housing ; and characterised by at least one deformable component , wherein the microneedle assembly being movably mounted to the housing is comprised of the force provider being positioned between the housing and the microneedle assembly for forcing the microneedle assembly outwardly relative to the housing and against the skin of the user, and the at least one deformable component being connected between the microneedle assembly and the housing for both allowing relative movement between the microneedle assembly and the housing , and at least partially restricting the microneedle assembly from falling away from the housing . the force provider being positioned between the housing and the microneedle assembly for forcing the microneedle assembly outwardly relative to the housing and against the skin of the user, and the at least one deformable component being connected between the microneedle assembly and the housing for both allowing relative movement between the microneedle assembly and the housing , and at least partially restricting the microneedle assembly from falling away from the housing . allowing relative movement between the microneedle assembly and the housing , and at least partially restricting the microneedle assembly from falling away from the housing .
Method for the production of artificial wood board without the addition of a binder, wherein the method comprises the following steps; a) milling of lignin containing plant material to obtain a milled mixture, wherein said lignin containing plant material comprises coconut husk pith; b) conditioning of said milled mixture to obtain an equilibrium moisture content of between 16% to 25%; c) homogenising of said conditioned milled mixture; d) cold-pressing of the homogenous mixture obtained in step c to obtain a brittle board; e) hot-pressing of said brittle board to reach a density of between 1.2 to 1.4 g/cm3 to obtain an artificial wood board. a) milling of lignin containing plant material to obtain a milled mixture, wherein said lignin containing plant material comprises coconut husk pith; b) conditioning of said milled mixture to obtain an equilibrium moisture content of between 16% to 25%; c) homogenising of said conditioned milled mixture; d) cold-pressing of the homogenous mixture obtained in step c to obtain a brittle board; e) hot-pressing of said brittle board to reach a density of between 1.2 to 1.4 g/cm3 to obtain an artificial wood board.