mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a user equipment , UE, to process a plurality of simultaneous signals in a wireless communication system supporting device-to-device, D2D, communication, the method comprising: prioritizing a first signal over a second signal among the plurality of simultaneous signals, if the plurality of simultaneous signals are to be transmitted in a same time period; characterized by prioritizing the first signal over a third signal among the plurality of simultaneous signals based on a configuration information of a radio resource control, RRC, signaling for the first signal, if the first signal and the third signal are to be received in a same time period; processing the plurality of simultaneous signals based on the prioritization, wherein the first signal comprises a D2D synchronization signal, wherein the second signal comprises a discovery signal for discovering another D2D UE, and wherein the third signal comprises a wide area network, WAN, signal. prioritizing a first signal over a second signal among the plurality of simultaneous signals, if the plurality of simultaneous signals are to be transmitted in a same time period; characterized by prioritizing the first signal over a third signal among the plurality of simultaneous signals based on a configuration information of a radio resource control, RRC, signaling for the first signal, if the first signal and the third signal are to be received in a same time period; processing the plurality of simultaneous signals based on the prioritization, wherein the first signal comprises a D2D synchronization signal, wherein the second signal comprises a discovery signal for discovering another D2D UE, and wherein the third signal comprises a wide area network, WAN, signal.
Floor end strip comprising an extruded angle profile which forms a floor limb and a wall limb projecting from the floor limb and has adhesive surfaces on the inner side of the angle for a floor covering pulled up over the floor limb along the wall limb , characterised in that at least the wall limb of the angle profile has spacer ribs extending in the longitudinal direction of the profile on the outer side of the angle and has punched holes which are distributed over the length of the spacer ribs and interrupt the spacer ribs .
Orthopaedic brace comprising two rigid valves , each having a back portion ; a rigid back plate extending in a longitudinal direction and partially overlapping the back portions of both valves ; front closing devices , configured to tighten the valves at the front in an adjustable manner; back closing devices (9; 15; 21), configured to tighten the valves at the back in an adjustable manner; wherein each back closing device (9; 15; 21) is coupled to the back portion of a respective one of the valves and to the back plate ; characterized in that each back closing device (9; 15; 21) comprises a retaining element (11; 16; 22) connected to the back portion of a respective one of the valves , and a belt (12; 17; 23) connected to the back plate and to the respective retaining element (11; 16; 22); the retaining elements (11; 16; 22) being configured to accommodate the respective belts (12; 17; 23) in a sliding manner in an adjustment position and to lock the respective belts (12; 17; 23) in a position of use. wherein each back closing device (9; 15; 21) is coupled to the back portion of a respective one of the valves and to the back plate ; characterized in that each back closing device (9; 15; 21) comprises a retaining element (11; 16; 22) connected to the back portion of a respective one of the valves , and a belt (12; 17; 23) connected to the back plate and to the respective retaining element (11; 16; 22); the retaining elements (11; 16; 22) being configured to accommodate the respective belts (12; 17; 23) in a sliding manner in an adjustment position and to lock the respective belts (12; 17; 23) in a position of use.
A Brillouin and Rayleigh distributed sensor comprising: a first laser source to emit a first laser beam ; a second laser source to emit a second laser beam ; a photodiode to acquire a beat frequency between the first laser beam and the second laser beam , wherein the beat frequency is used to maintain a predetermined offset frequency shift between the first laser beam and the second laser beam, wherein the predetermined offset frequency shift is relative to a predetermined frequency of either the first laser beam or the second laser beam ; a modulator to modulate the first laser beam , wherein the modulated first laser beam is to be injected into a device under test, i.e., DUT; a coherent receiver to acquire a backscattered signal from the DUT and determine, based on the acquired backscattered signal and the second laser beam , Brillouin and Rayleigh traces with respect to the DUT; a processor; and a non-transitory computer readable medium storing machine readable instructions that when executed by the processor cause the processor to: determine, based on the Brillouin and Rayleigh traces, temperature and strain associated with the DUT. a first laser source to emit a first laser beam ; a second laser source to emit a second laser beam ; a photodiode to acquire a beat frequency between the first laser beam and the second laser beam , wherein the beat frequency is used to maintain a predetermined offset frequency shift between the first laser beam and the second laser beam, wherein the predetermined offset frequency shift is relative to a predetermined frequency of either the first laser beam or the second laser beam ; a modulator to modulate the first laser beam , wherein the modulated first laser beam is to be injected into a device under test, i.e., DUT; a coherent receiver to acquire a backscattered signal from the DUT and determine, based on the acquired backscattered signal and the second laser beam , Brillouin and Rayleigh traces with respect to the DUT; a processor; and a non-transitory computer readable medium storing machine readable instructions that when executed by the processor cause the processor to: determine, based on the Brillouin and Rayleigh traces, temperature and strain associated with the DUT.
A computer-implemented method, comprising: receiving, from an entity associated with a customer account with a computing resource service provider, a request to push a software container image to a container registry hosted by the computing resource service provider, the container registry being a scalable distributed data storage service; storing, in the container registry , the software container image in association with the customer account; receiving a command to deploy a software application based at least in part on the software container image ; and deploying, based at least in part on the software container image stored in the container registry , the software application using a cluster of container instances ; scanning the software container image stored in the container registry for potential security vulnerabilities; as a result of said scanning finding a security vulnerability with the software container image , providing notice to the entity indicating that the security vulnerability was found; storing, in the container registry , an updated image without the security vulnerability in association with the customer account; and accessing the updated image. receiving, from an entity associated with a customer account with a computing resource service provider, a request to push a software container image to a container registry hosted by the computing resource service provider, the container registry being a scalable distributed data storage service; storing, in the container registry , the software container image in association with the customer account; receiving a command to deploy a software application based at least in part on the software container image ; and deploying, based at least in part on the software container image stored in the container registry , the software application using a cluster of container instances ; scanning the software container image stored in the container registry for potential security vulnerabilities; as a result of said scanning finding a security vulnerability with the software container image , providing notice to the entity indicating that the security vulnerability was found; storing, in the container registry , an updated image without the security vulnerability in association with the customer account; and accessing the updated image.
A method performed by a user equipment, UE, the method comprising: receiving a grant-free, GF, cell radio network temporary ID, C RNTI; when a resource configuration for type 1 GF transmission is received, retransmitting a first data packet according to a received first downlink control information, DCI, whose cyclic redundancy check, CRC, is scrambled with the GF C RNTI, wherein the first data packet has been initially transmitted based on the resource configuration for type 1 GF transmission, wherein the resource configuration for type 1 GF transmission is received by radio resource control, RRC, signaling without DCI signaling; and when a resource configuration for type 2 GF transmission is received, deactivating the resource configuration for type 2 GF transmission, based on a received second DCI whose CRC is scrambled with the GF C RNTI wherein the resource configuration for type 2 GF transmission is received by both RRC signaling and DCI signaling. receiving a grant-free, GF, cell radio network temporary ID, C RNTI; when a resource configuration for type 1 GF transmission is received, retransmitting a first data packet according to a received first downlink control information, DCI, whose cyclic redundancy check, CRC, is scrambled with the GF C RNTI, wherein the first data packet has been initially transmitted based on the resource configuration for type 1 GF transmission, wherein the resource configuration for type 1 GF transmission is received by radio resource control, RRC, signaling without DCI signaling; and when a resource configuration for type 2 GF transmission is received, deactivating the resource configuration for type 2 GF transmission, based on a received second DCI whose CRC is scrambled with the GF C RNTI wherein the resource configuration for type 2 GF transmission is received by both RRC signaling and DCI signaling.
A method for determining a trajectory of an aircraft intended to fly over a field of operation with a view to performing an action on a target at a given time (Id), said field of operation comprising a plurality of secure areas (Z1, Z3) and a plurality of non-secure areas (Z2, Z4), said trajectory comprising a plurality of intermediate points (P1, P2, P3, P4) between a starting point of said trajectory and the target , said intermediate points (P1, P2, P3, P4, P5) being positioned on borders between secure areas and non-secure areas, said method being implemented by computer means, wherein said determination method comprises a step of computing (E3) a set of sections (T1, T2, T3, T4, T5) between said starting point , said intermediate points (P1, P2, P3, P4) and said target , said set of sections (T1, T2, T3, T4) having a first type of sections (T2, T4) extending over non-secure areas (Z2, Z4) and a second type of sections (T1, T3) extending over secure areas (Z1, Z3), said first type of sections (T2, T4) having an overall rectilinear shape so as to limit the time spent by the aircraft in the non-secure areas (Z2, Z4) and said second type of sections (T1, T3) having a sinuous shape so as to allow a reserve of time for adjusting a position of the aircraft on the target at said given time (T id ) with a view to performing the action.
A computer-implemented method comprising: receiving data comprising at least one feature associated with a portion of a program, the at least one feature being collected by a feature collector, wherein the feature characterizes the program and an environment in which the program is being executed or to be executed; selecting, by a discernment engine using a model selector, a trained machine learning model from an existing ensemble of multiple, distinct trained machine learning models tailored to suit specialization combinations of features predicated on (i) the at least one feature provided by the feature collector and (ii) a current availability or scarcity of resources, the trained machine learning model configured to discern safe and unsafe programs; determining, by the discernment engine based on the received data and using the output from the selected trained machine learning model from the existing ensemble of distinct trained machine learning models, whether to allow the at least the portion of the program to execute or continue to execute; allowing, by an enforcement system, the at least the portion of the program to execute or continue to execute if it is determined that the at least the portion of the program is allowed to execute; and preventing, by the enforcement system, the at least the portion of the program from executing or continuing to execute if it is determined that the at least the portion of the program is not allowed to execute. receiving data comprising at least one feature associated with a portion of a program, the at least one feature being collected by a feature collector, wherein the feature characterizes the program and an environment in which the program is being executed or to be executed; selecting, by a discernment engine using a model selector, a trained machine learning model from an existing ensemble of multiple, distinct trained machine learning models tailored to suit specialization combinations of features predicated on (i) the at least one feature provided by the feature collector and (ii) a current availability or scarcity of resources, the trained machine learning model configured to discern safe and unsafe programs; determining, by the discernment engine based on the received data and using the output from the selected trained machine learning model from the existing ensemble of distinct trained machine learning models, whether to allow the at least the portion of the program to execute or continue to execute; allowing, by an enforcement system, the at least the portion of the program to execute or continue to execute if it is determined that the at least the portion of the program is allowed to execute; and preventing, by the enforcement system, the at least the portion of the program from executing or continuing to execute if it is determined that the at least the portion of the program is not allowed to execute.
An optical anti-counterfeiting element, comprising: a substrate , comprising a first surface and a second surface that are opposite to each other; a surface micro-structure layer , formed on at least a part of the first surface of the substrate, wherein at least part of the surface micro-structure layer comprises a first set of a micro-prism , the micro-prism has refractive and reflective functions simultaneously, each pixel (A', B') of a first pattern corresponds to refractive illumination spots of one or more micro-prisms in the first set of the micro-prism, so that: when the optical anti-counterfeiting element is irradiated on a first side of the optical anti-counterfeiting element, the refractive illumination spots of the first set of the micro-prism form the first pattern on a receiving carrier in a plane at a first distance from the second surface; characterised in that when the optical anti-counterfeiting element is irradiated on a second side of the optical anti-counterfeiting element, the refractive illumination spots of the first set of the micro-prism form the first pattern on a receiving carrier in a plane at a second distance from the first surface; and a virtual image of the first pattern is observed when observed from the first side and from the second side of the optical anti-counterfeiting element, and the first side is a side at which the first surface is located, and the second side is a side at which the second surface is located. a substrate , comprising a first surface and a second surface that are opposite to each other; a surface micro-structure layer , formed on at least a part of the first surface of the substrate, wherein at least part of the surface micro-structure layer comprises a first set of a micro-prism , the micro-prism has refractive and reflective functions simultaneously, each pixel (A', B') of a first pattern corresponds to refractive illumination spots of one or more micro-prisms in the first set of the micro-prism, so that: when the optical anti-counterfeiting element is irradiated on a first side of the optical anti-counterfeiting element, the refractive illumination spots of the first set of the micro-prism form the first pattern on a receiving carrier in a plane at a first distance from the second surface; characterised in that when the optical anti-counterfeiting element is irradiated on a second side of the optical anti-counterfeiting element, the refractive illumination spots of the first set of the micro-prism form the first pattern on a receiving carrier in a plane at a second distance from the first surface; and a virtual image of the first pattern is observed when observed from the first side and from the second side of the optical anti-counterfeiting element, and the first side is a side at which the first surface is located, and the second side is a side at which the second surface is located.
A recombinant cyanobacterium transformed with a non-native nucleic acid sequence encoding an acyl-ACP thioesterase derived from a higher plant operably linked to a heterologous promoter and a non-native nucleic acid sequence encoding a lysophosphatidic acid acyltransferase (LPAAT) derived from a cyanobacterium operably linked to a heterologous promoter, wherein the cyanobacterium produces at least one free fatty acid or at least one fatty acid derivative, and wherein the LPAAT has at least 85% identity to SEQ ID NO:2, and the thioesterase has at least 85% identity to SEQ ID NO:44.
A set of connectors for connecting at least two support elements , forming a modular support platform for solar modules , comprising: - A connector element type 1 with a cross shape comprising four connection ports for connecting up to four support elements , and four lateral reinforcements in between each two connection ports, wherein: - Each connection port is formed by a hole in the surface of each of the branches of the cross forming the connector element , which is configured to position and fix a support element by means of a connection mechanism; and - Each lateral reinforcement extends between each branch of the cross and comprises two connection holes in the proximity of said connection ports it is linking, for further fixation of the support element by means of a connection mechanism; and - A connector element type 2 with a rectangular shape made of the same material as connector element type 1 comprising a reticulate surface and two connection ports for connecting up to two support elements , wherein - each connection port is formed by a hole in the surface of the rectangular shaped connector element along a central longitudinal axis, which is configured to position and fix a support element by means of a connection mechanism. - A connector element type 1 with a cross shape comprising four connection ports for connecting up to four support elements , and four lateral reinforcements in between each two connection ports, wherein: - Each connection port is formed by a hole in the surface of each of the branches of the cross forming the connector element , which is configured to position and fix a support element by means of a connection mechanism; and - Each lateral reinforcement extends between each branch of the cross and comprises two connection holes in the proximity of said connection ports it is linking, for further fixation of the support element by means of a connection mechanism; and - Each connection port is formed by a hole in the surface of each of the branches of the cross forming the connector element , which is configured to position and fix a support element by means of a connection mechanism; and - Each lateral reinforcement extends between each branch of the cross and comprises two connection holes in the proximity of said connection ports it is linking, for further fixation of the support element by means of a connection mechanism; and - A connector element type 2 with a rectangular shape made of the same material as connector element type 1 comprising a reticulate surface and two connection ports for connecting up to two support elements , wherein - each connection port is formed by a hole in the surface of the rectangular shaped connector element along a central longitudinal axis, which is configured to position and fix a support element by means of a connection mechanism. - each connection port is formed by a hole in the surface of the rectangular shaped connector element along a central longitudinal axis, which is configured to position and fix a support element by means of a connection mechanism.
A cutting processing apparatus comprising: a cutting tool for cutting a cutting object (W) that is made of a material having a lower degree of hardness than stainless steel, wherein the cutting tool includes a plurality of cutting edges ; a chuck portion configured to hold the cutting tool and be rotationally driven; a fixing portion configured to fix the cutting object (W); a stage configured to move the fixing portion at a processing speed in a direction that is substantially orthogonal to a rotation axis of the chuck portion ; a sensor that is arranged in the vicinity of a position on the fixing portion at which the cutting object (W) is to be fixed, and configured to detect vibration of the cutting tool during cutting processing of the cutting object (W) and output a monitoring signal; and a control circuit configured to convert time waveform data of the monitoring signal to frequency waveform data and extract an impact amount during cutting processing of the cutting object (W) from the frequency waveform data, wherein the control circuit extracts the impact amount using a method of extracting the sum total of impact amounts at a processing frequency and frequencies that are multiples of the processing frequency, the processing frequency being determined from a product of the number of revolutions of the cutting tool and the number of cutting edges . a cutting tool for cutting a cutting object (W) that is made of a material having a lower degree of hardness than stainless steel, wherein the cutting tool includes a plurality of cutting edges ; a chuck portion configured to hold the cutting tool and be rotationally driven; a fixing portion configured to fix the cutting object (W); a stage configured to move the fixing portion at a processing speed in a direction that is substantially orthogonal to a rotation axis of the chuck portion ; a sensor that is arranged in the vicinity of a position on the fixing portion at which the cutting object (W) is to be fixed, and configured to detect vibration of the cutting tool during cutting processing of the cutting object (W) and output a monitoring signal; and a control circuit configured to convert time waveform data of the monitoring signal to frequency waveform data and extract an impact amount during cutting processing of the cutting object (W) from the frequency waveform data, wherein the control circuit extracts the impact amount using a method of extracting the sum total of impact amounts at a processing frequency and frequencies that are multiples of the processing frequency, the processing frequency being determined from a product of the number of revolutions of the cutting tool and the number of cutting edges .