mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, UE, device comprising: a transceiver arranged to receive an initial identifier for the UE device from a mobile wireless communication network; and a processor arranged to: generate a plurality of identifiers for the UE device based on the initial identifier, each of the plurality of identifiers generated based on a previous identifier to form a chain of identifiers; the UE device being characterized in that the processor is further arranged to: assign an identifier that was generated last in the chain of identifiers to the UE device; and periodically assign a different identifier to the UE device from the chain of identifiers, the different identifier comprising an identifier in the chain of identifiers that is used to generate the identifier that is currently assigned to the UE. a transceiver arranged to receive an initial identifier for the UE device from a mobile wireless communication network; and a processor arranged to: generate a plurality of identifiers for the UE device based on the initial identifier, each of the plurality of identifiers generated based on a previous identifier to form a chain of identifiers; the UE device being characterized in that the processor is further arranged to: assign an identifier that was generated last in the chain of identifiers to the UE device; and periodically assign a different identifier to the UE device from the chain of identifiers, the different identifier comprising an identifier in the chain of identifiers that is used to generate the identifier that is currently assigned to the UE. generate a plurality of identifiers for the UE device based on the initial identifier, each of the plurality of identifiers generated based on a previous identifier to form a chain of identifiers; the UE device being characterized in that the processor is further arranged to: assign an identifier that was generated last in the chain of identifiers to the UE device; and periodically assign a different identifier to the UE device from the chain of identifiers, the different identifier comprising an identifier in the chain of identifiers that is used to generate the identifier that is currently assigned to the UE. assign an identifier that was generated last in the chain of identifiers to the UE device; and periodically assign a different identifier to the UE device from the chain of identifiers, the different identifier comprising an identifier in the chain of identifiers that is used to generate the identifier that is currently assigned to the UE.
A method of detecting obscuration of an optical window (1506,1606) in an infrared, IR, imaging system (100,1000), the IR imaging system comprising processing circuitry and a plurality of spatially and spectrally distinct optical channels, each optical channel including a set of lenses (224,128) that focus incident IR light on a respective portion of an optical detector system (136,1015) the method comprising: with the processing circuitry, analyzing a first image and a second image, received from respective first and second optical channels of the plurality of spatially and spectrally distinct optical channels, to detect obscuration that may degrade operation of the IR imaging system; with the processing circuitry, creating first and second gradient images from the first and second images, respectively; with the processing circuitry, cross-correlating the first and second gradient images; and with the processing circuitry, determining that at least one cross-correlation between the first and second gradient images exceeds a first window obscuration threshold and that the first and second gradient images exceed a second window obscuration threshold and, in response, providing an alert that the optical window is obscured. with the processing circuitry, analyzing a first image and a second image, received from respective first and second optical channels of the plurality of spatially and spectrally distinct optical channels, to detect obscuration that may degrade operation of the IR imaging system; with the processing circuitry, creating first and second gradient images from the first and second images, respectively; with the processing circuitry, cross-correlating the first and second gradient images; and with the processing circuitry, determining that at least one cross-correlation between the first and second gradient images exceeds a first window obscuration threshold and that the first and second gradient images exceed a second window obscuration threshold and, in response, providing an alert that the optical window is obscured.
Device for continuous production of metal, preferably steel, which is produced in a smelting vessel for melting down metallic feedstock materials, whereby a molten material comprising liquid metal and slag is produced, and a tundish, wherein the tundish has a weir dividing the tundish into a first collecting space, into which the molten material from the smelting vessel can be continuously introduced via an outflow, and a second collecting space, wherein the two collecting spaces (22a, 22b) are in fluid communication by way of a passage, whereby separation of the slag and the liquid metal takes place in such a way that the slag collects in the first collecting space, whereas substantially no slag is present in the second collecting space, and the device further comprises heating equipment influencing the temperature of the molten material in the first collecting space, characterised in that the weir is movable for setting the passage, whereby the opening cross-section of the passage is settable.
A retrofit Light Emitting Diode, LED, tube for replacing a fluorescent tube, wherein said retrofit LED tube is arranged to be connected to a ballast, said retrofit LED tube comprising: - an LED array for emitting light; characterised in that the retrofit LED tube further comprises - a configurable matching circuit (24, 25) for controlling input power from a connected ballast, when connected, towards said LED array; - a power rectifier having an input connected to said matching circuit (24, 25) and an output connected to said LED array, wherein said power rectifier is arranged to receive an AC supply voltage at its input, to convert said AC supply voltage to a DC voltage, and to provide said DC voltage, via its output, to said LED array; - a ballast determining unit (29, 30, 31, 32, 33) arranged for identifying a type of ballast connected to said retrofit LED tube by: - controlling an output voltage of said power rectifier to a first voltage and measuring a first current provided by said power rectifier; - controlling said output voltage of said power rectifier to a second voltage and measuring a second current provided by said power rectifier, wherein said second voltage differs from said first voltage; - determining said type of ballast based on said first and second output voltages and said measured first and second currents; wherein said ballast determining unit (29, 30, 31, 32, 33) is further arranged to configure said configurable matching circuit (24, 25) based on said determined type of ballast. - an LED array for emitting light; - a configurable matching circuit (24, 25) for controlling input power from a connected ballast, when connected, towards said LED array; - a power rectifier having an input connected to said matching circuit (24, 25) and an output connected to said LED array, wherein said power rectifier is arranged to receive an AC supply voltage at its input, to convert said AC supply voltage to a DC voltage, and to provide said DC voltage, via its output, to said LED array; - a ballast determining unit (29, 30, 31, 32, 33) arranged for identifying a type of ballast connected to said retrofit LED tube by: - controlling an output voltage of said power rectifier to a first voltage and measuring a first current provided by said power rectifier; - controlling said output voltage of said power rectifier to a second voltage and measuring a second current provided by said power rectifier, wherein said second voltage differs from said first voltage; - determining said type of ballast based on said first and second output voltages and said measured first and second currents;
Car bodywork comprising four node elements (1, 1.1, 1.2) which are arranged in a rectangle and at least four profiles (2, 3), at least two of the profiles (2, 3) being fastened to each node element (1, 1.1, 1.2), with the result that an open or closed frame is formed by way of the node elements (1, 1.1, 1.2) and the profiles (2, 3), all of the node elements (1, 1.1, 1.2) being of structurally identical and/or mirror-inverted configuration with respect to one another, the profiles comprising a first and second profile (2, 3), characterized in that at least one node element comprises a first main face and a second main face, the two main faces (4, 5) being connected to one another along a contact line and, starting from the contact line, being arranged at an acute angle with respect to one another, the first and second profile (2, 3) being fastened to the node element, the first profile and/or the second profile being fastened to the node element on at least one of the two inner sides (lying within the acute angle) of the two main faces (4, 5).
A method of communicating a secret from a sender to a recipient, the method comprising: sending, from the sender to the recipient, information identifying a plurality of secrets selectable by the recipient; receiving, at the sender, from the recipient, a first public key, corresponding to a first secret selected of the plurality of secrets for access by the recipient, wherein the first public key is part of a public key/private key pair of an elliptic curve cryptography system and a first private key corresponding to said first public key is accessible to the recipient; receiving, at the sender, from the recipient, a second public key, corresponding to a second secret of the plurality of secrets not selected for access by the recipient, wherein the second public key is a public key of said elliptic curve cryptography system and a respective second private key, corresponding to said second public key, is not available to the recipient; sending, from the sender to the recipient, said first secret encrypted by means of the corresponding said first public key; and sending, from the sender to the recipient, said second secret encrypted by means of the corresponding said second public key; wherein the first secret is accessible to said recipient by means of the corresponding said first private key, the second secret is inaccessible to said recipient, and said sender is unable to distinguish between said first secret and said second secret; characterised by generating a third secret, to be shared between the sender and the recipient, wherein the second public key is based on the first public key and said third secret. sending, from the sender to the recipient, information identifying a plurality of secrets selectable by the recipient; receiving, at the sender, from the recipient, a first public key, corresponding to a first secret selected of the plurality of secrets for access by the recipient, wherein the first public key is part of a public key/private key pair of an elliptic curve cryptography system and a first private key corresponding to said first public key is accessible to the recipient; receiving, at the sender, from the recipient, a second public key, corresponding to a second secret of the plurality of secrets not selected for access by the recipient, wherein the second public key is a public key of said elliptic curve cryptography system and a respective second private key, corresponding to said second public key, is not available to the recipient; sending, from the sender to the recipient, said first secret encrypted by means of the corresponding said first public key; and sending, from the sender to the recipient, said second secret encrypted by means of the corresponding said second public key; wherein the first secret is accessible to said recipient by means of the corresponding said first private key, the second secret is inaccessible to said recipient, and said sender is unable to distinguish between said first secret and said second secret; characterised by generating a third secret, to be shared between the sender and the recipient, wherein the second public key is based on the first public key and said third secret.
A network controller, comprising: a first transmitter, configured to: when receiving a first type of data stream of a first service, send combination configuration information to a first ingress node, wherein the combination configuration information is used to instruct the first ingress node to combine received data packets of the first service; a second transmitter, configured to instruct a software-defined networking, SDN, controller to perform flow entry configuration on a router or a switch, or a router and a switch in a software-defined network by using the configuration information; and a third transmitter, configured to: when a destination node of a data packet of the first service belongs to the software-defined network, send data packet splitting configuration information to the destination node; or when a destination node of a data packet of the first service does not belong to the software-defined network, send data packet splitting configuration information to a distribution node of the first service in the software-defined network, wherein the data packet splitting configuration information is used to instruct the destination node or the distribution node to split a combined data packet into said data packets of the first service before being combined, wherein the first transmitter is further configured to: when the ingress node of the first service is switched from the first ingress node to a second ingress node, send the combination configuration information to the second ingress node, wherein the second ingress node is an ingress node in the SDN network. a first transmitter, configured to: when receiving a first type of data stream of a first service, send combination configuration information to a first ingress node, wherein the combination configuration information is used to instruct the first ingress node to combine received data packets of the first service; a second transmitter, configured to instruct a software-defined networking, SDN, controller to perform flow entry configuration on a router or a switch, or a router and a switch in a software-defined network by using the configuration information; and a third transmitter, configured to: when a destination node of a data packet of the first service belongs to the software-defined network, send data packet splitting configuration information to the destination node; or when a destination node of a data packet of the first service does not belong to the software-defined network, send data packet splitting configuration information to a distribution node of the first service in the software-defined network, wherein the data packet splitting configuration information is used to instruct the destination node or the distribution node to split a combined data packet into said data packets of the first service before being combined, wherein the first transmitter is further configured to: when the ingress node of the first service is switched from the first ingress node to a second ingress node, send the combination configuration information to the second ingress node, wherein the second ingress node is an ingress node in the SDN network.
A flow sensor unit having: a flow sensor having: a sensor chip in which a flow rate detecting section is formed on an electric insulating film applied to cover at least a part of a concave portion formed on an upper surface of a substrate; and a flow path forming member which is provided on the sensor chip and has a flow path of the fluid flowing through the flow rate detecting section formed therein; and a metal flow path body which accommodates the flow sensor and has an accommodating portion accommodating the flow sensor in a state where an inner peripheral surface of the flow path body is separated from an outer peripheral portion of the flow sensor formed therein, characterized in that the flow sensor unit comprises: a metal attachment plate which is fixed to the flow path body so as to accommodate the flow sensor in a state where the flow sensor is fixed and held in the accommodating portion of the flow path body; and an insulating member having thermal insulation and electrical insulation which is sandwiched between the sensor chip of the flow sensor and the attachment plate, bonded to the sensor chip, and also bonded to the attachment plate. a flow sensor having: a sensor chip in which a flow rate detecting section is formed on an electric insulating film applied to cover at least a part of a concave portion formed on an upper surface of a substrate; and a flow path forming member which is provided on the sensor chip and has a flow path of the fluid flowing through the flow rate detecting section formed therein; and a metal flow path body which accommodates the flow sensor and has an accommodating portion accommodating the flow sensor in a state where an inner peripheral surface of the flow path body is separated from an outer peripheral portion of the flow sensor formed therein, characterized in that the flow sensor unit comprises: a metal attachment plate which is fixed to the flow path body so as to accommodate the flow sensor in a state where the flow sensor is fixed and held in the accommodating portion of the flow path body; and an insulating member having thermal insulation and electrical insulation which is sandwiched between the sensor chip of the flow sensor and the attachment plate, bonded to the sensor chip, and also bonded to the attachment plate. a metal attachment plate which is fixed to the flow path body so as to accommodate the flow sensor in a state where the flow sensor is fixed and held in the accommodating portion of the flow path body; and an insulating member having thermal insulation and electrical insulation which is sandwiched between the sensor chip of the flow sensor and the attachment plate, bonded to the sensor chip, and also bonded to the attachment plate.
A method for providing operation for a terminal device comprising a user interface comprising: providing for operation in a first operational state; receiving a user input at a user input interface; determining if the user input is of a first input type; determining a second operational state based on the user input in response to the user input being of the first input type; and providing for operation in the second operational state, different from the first operational state, in response to receiving the user input of the first input type, wherein the second operational state precludes input of a second input type and allows input of a first input type, wherein the second input type comprises an input type different from the first input type. providing for operation in a first operational state; receiving a user input at a user input interface; determining if the user input is of a first input type; determining a second operational state based on the user input in response to the user input being of the first input type; and providing for operation in the second operational state, different from the first operational state, in response to receiving the user input of the first input type, wherein the second operational state precludes input of a second input type and allows input of a first input type, wherein the second input type comprises an input type different from the first input type.
A method for a user equipment, UE, to communicate with a network that includes a number of cells, the method comprising: acquiring by the UE from the network a configuration set with a first reserved power for transmission on a first group of cells and a second reserved power for transmission on a second group of cells; and transmitting from the UE on the first group of cells in a first transmission time interval, TTI, and on the second group of cells in a second TTI, according to the configuration, wherein: when, for dual connectivity, the first group is a master cell group, MCG, and the second group is a secondary cell group, SCG, in case the first TTI and the second TTI are different, the configuration is set with the first reserved power and the second reserved power respectively, and when, for carrier aggregation, the first group is a first cell group for physical uplink control channel, PUCCH, and the second group is a second cell group for PUCCH, in case the first TTI and the second TTI are an identical TTI, the configuration is set with both of the first reserved power and the second reserved power as zero. acquiring by the UE from the network a configuration set with a first reserved power for transmission on a first group of cells and a second reserved power for transmission on a second group of cells; and transmitting from the UE on the first group of cells in a first transmission time interval, TTI, and on the second group of cells in a second TTI, according to the configuration, wherein: when, for dual connectivity, the first group is a master cell group, MCG, and the second group is a secondary cell group, SCG, in case the first TTI and the second TTI are different, the configuration is set with the first reserved power and the second reserved power respectively, and when, for carrier aggregation, the first group is a first cell group for physical uplink control channel, PUCCH, and the second group is a second cell group for PUCCH, in case the first TTI and the second TTI are an identical TTI, the configuration is set with both of the first reserved power and the second reserved power as zero. when, for dual connectivity, the first group is a master cell group, MCG, and the second group is a secondary cell group, SCG, in case the first TTI and the second TTI are different, the configuration is set with the first reserved power and the second reserved power respectively, and when, for carrier aggregation, the first group is a first cell group for physical uplink control channel, PUCCH, and the second group is a second cell group for PUCCH, in case the first TTI and the second TTI are an identical TTI, the configuration is set with both of the first reserved power and the second reserved power as zero.