mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a receiver configurable to operate in at least two modes, wherein: while said receiver is configured into a first of said modes, an input filter of said receiver is configured as a near zero positive ISI filter; and while said receiver is configured into a second of said modes, said input filter of said receiver is configured for reception of an inter-symbol correlated (ISC) signal, characterized by a control circuit operable to control the mode of the receiver based on a measured performance indicator and characteristics of received data, in particular quality of service parameters and/or a model of non-linear distortion experienced by the data during transmission; and generate a control message indicating the configured mode of the receiver to a multi-mode transmitter by inserting the control message into a control channel of a beacon signal. while said receiver is configured into a first of said modes, an input filter of said receiver is configured as a near zero positive ISI filter; and while said receiver is configured into a second of said modes, said input filter of said receiver is configured for reception of an inter-symbol correlated (ISC) signal, characterized by a control circuit operable to control the mode of the receiver based on a measured performance indicator and characteristics of received data, in particular quality of service parameters and/or a model of non-linear distortion experienced by the data during transmission; and generate a control message indicating the configured mode of the receiver to a multi-mode transmitter by inserting the control message into a control channel of a beacon signal. control the mode of the receiver based on a measured performance indicator and characteristics of received data, in particular quality of service parameters and/or a model of non-linear distortion experienced by the data during transmission; and generate a control message indicating the configured mode of the receiver to a multi-mode transmitter by inserting the control message into a control channel of a beacon signal.
A hand-held electronic device, comprising: a case having first and second major surfaces ; a visual display disposed on the first major surface; a touch interface disposed on at least one of the major surfaces; a processor operably coupled to the visual display and the touch interface; a prediction engine configured to compute a probability for one or more subsequent actions to be taken by the user based on a past pattern of user behavior following an action of a given type with the device; and instructions executable by the processor configured such that, when executed, the instructions cause the device to: a) present an image on the visual display containing one or more active elements; b) correlate one or more active portions of the touch interface to one or more corresponding active elements in the image on the visual display; and c) adjust a layout of content shown on the display according to the probability, computed by the prediction engine, of the one or more subsequent actions that may be taken with the one or more active elements, wherein the layout is adjusted in a way that facilitates the one or more subsequent actions that are most probable. a case having first and second major surfaces ; a visual display disposed on the first major surface; a touch interface disposed on at least one of the major surfaces; a processor operably coupled to the visual display and the touch interface; a prediction engine configured to compute a probability for one or more subsequent actions to be taken by the user based on a past pattern of user behavior following an action of a given type with the device; and instructions executable by the processor configured such that, when executed, the instructions cause the device to: a) present an image on the visual display containing one or more active elements; b) correlate one or more active portions of the touch interface to one or more corresponding active elements in the image on the visual display; and c) adjust a layout of content shown on the display according to the probability, computed by the prediction engine, of the one or more subsequent actions that may be taken with the one or more active elements, wherein the layout is adjusted in a way that facilitates the one or more subsequent actions that are most probable. a) present an image on the visual display containing one or more active elements; b) correlate one or more active portions of the touch interface to one or more corresponding active elements in the image on the visual display; and c) adjust a layout of content shown on the display according to the probability, computed by the prediction engine, of the one or more subsequent actions that may be taken with the one or more active elements, wherein the layout is adjusted in a way that facilitates the one or more subsequent actions that are most probable.
A method for provisioning a first communication device with a set of at least one credential required for accessing to a wireless network by using a second communication device provisioned with a cryptographic key K also known by the wireless network , the first communication device being associated with a certificate comprising a public key PK, said certificate being stored with an associated private key PrK in said first communication device , the method comprising the following steps: - receiving by the second communication device a registration request from the first communication device in order to be provisioned with the set of at least one credential; - transmitting to the wireless network by the second communication device the registration request to generate a set of at least one credential associated to the first communication device comprising at least a cryptographic key K", the wireless network being adapted to generate a first random number R1 and a second random number R2, a cryptographic key K' being derived from R1 and K, the cryptographic key K" being derived from R2 and K'; - receiving by the second communication device a response from the wireless network comprising R1 and R2, R2 being ciphered using the public key PK of the certificate associated to the first communication device ; - generating K' by the second communication device using R1 and K; - transmitting by the second communication device to the first communication device K' and the ciphered version of R2 for the first communication device to decipher R2 using its private key PrK and to generate K" using R2 and K'. - receiving by the second communication device a registration request from the first communication device in order to be provisioned with the set of at least one credential; - transmitting to the wireless network by the second communication device the registration request to generate a set of at least one credential associated to the first communication device comprising at least a cryptographic key K", the wireless network being adapted to generate a first random number R1 and a second random number R2, a cryptographic key K' being derived from R1 and K, the cryptographic key K" being derived from R2 and K'; - receiving by the second communication device a response from the wireless network comprising R1 and R2, R2 being ciphered using the public key PK of the certificate associated to the first communication device ; - generating K' by the second communication device using R1 and K; - transmitting by the second communication device to the first communication device K' and the ciphered version of R2 for the first communication device to decipher R2 using its private key PrK and to generate K" using R2 and K'.
A system , comprising: a turbomachine blade segment comprising: a blade ; and a mounting segment coupled to the blade , wherein the mounting segment has a multi-piece assembly configured to mount in a radial direction into a slot of a turbomachine rotor , wherein the mounting segment comprises a first dovetail segment, a second dovetail segment, and a captured spreader piece configured to fit between the first dovetail segment and the second dovetail segment wherein the first dovetail segment, the second dovetail segment, and the spreader piece are configured to insert into the slot of the turbomachine rotor in the radial direction, characterized in that the mounting segment comprises a cover portion configured to couple the first dovetail segment, the second dovetail segment, and the spreader piece to one another when the first dovetail segment, the second dovetail segment, and the spreader piece are disposed within the slot of the turbomachine rotor . a blade ; and a mounting segment coupled to the blade , wherein the mounting segment has a multi-piece assembly configured to mount in a radial direction into a slot of a turbomachine rotor , wherein the mounting segment comprises a first dovetail segment, a second dovetail segment, and a captured spreader piece configured to fit between the first dovetail segment and the second dovetail segment wherein the first dovetail segment, the second dovetail segment, and the spreader piece are configured to insert into the slot of the turbomachine rotor in the radial direction, characterized in that the mounting segment comprises a cover portion configured to couple the first dovetail segment, the second dovetail segment, and the spreader piece to one another when the first dovetail segment, the second dovetail segment, and the spreader piece are disposed within the slot of the turbomachine rotor .
Device comprising a supply line, a measurement unit, and comprising two machine parts that are able to be moved relative to one another and that are connected to one another by means of the supply line, wherein the supply line has a sensor line that is connected to the measurement unit, characterized in that the sensor line is designed to measure the torsion of the supply line using the measurement unit, in that the measurement unit is designed in such a way that an electrical parameter of the sensor line is measured and that the parameter is used to infer the torsion, in that the sensor line has two conductors that are each in the form of a braided conductor and are braided in mutually opposing lay directions, in that the measurement unit is designed in such a way that a signal attenuation of a respective one of the conductors is measured as a parameter, in that the measurement unit is designed in such a way that the two signal attenuations are compared with one another by means of an operational amplifier that outputs a difference as a voltage value, and the torsion is determined depending on a difference between the two signal attenuations by means of a table on the basis of the difference. wherein the supply line has a sensor line that is connected to the measurement unit, characterized in that the sensor line is designed to measure the torsion of the supply line using the measurement unit, in that the measurement unit is designed in such a way that an electrical parameter of the sensor line is measured and that the parameter is used to infer the torsion, in that the sensor line has two conductors that are each in the form of a braided conductor and are braided in mutually opposing lay directions, in that the measurement unit is designed in such a way that a signal attenuation of a respective one of the conductors is measured as a parameter, in that the measurement unit is designed in such a way that the two signal attenuations are compared with one another by means of an operational amplifier that outputs a difference as a voltage value, and the torsion is determined depending on a difference between the two signal attenuations by means of a table on the basis of the difference.
An authentication and key management method for a network equipment for convergence of heterogeneous networks, comprising: generating , by the network equipment, a Network Key, NK; performing , by the network equipment, authentication protocol interaction with an opposite communication equipment, and calculating a Basic Session Key, BSK according to parameters for the authentication protocol interaction and the NK; and calculating , by the network equipment, link Encryption Keys, EKs used respectively for two or more Media Access Control, MAC and Physical, PHY layers corresponding to two or more access technologies according to the BSK and according to EK lengths required by the MAC and PHY layers associated with the two or more access technologies; and providing the EKs for respective MAC and PHY layer function modules, wherein each of the EKs used respectively for the two or more MAC and PHY layers corresponding to the two or more access technologies is extracted from any positions of a key string that constitute the respective required EK length, wherein the key string is calculated from the BSK and the key string has a length that is not shorter than the maximal of the required EK lengths. generating , by the network equipment, a Network Key, NK; performing , by the network equipment, authentication protocol interaction with an opposite communication equipment, and calculating a Basic Session Key, BSK according to parameters for the authentication protocol interaction and the NK; and calculating , by the network equipment, link Encryption Keys, EKs used respectively for two or more Media Access Control, MAC and Physical, PHY layers corresponding to two or more access technologies according to the BSK and according to EK lengths required by the MAC and PHY layers associated with the two or more access technologies; and providing the EKs for respective MAC and PHY layer function modules, wherein each of the EKs used respectively for the two or more MAC and PHY layers corresponding to the two or more access technologies is extracted from any positions of a key string that constitute the respective required EK length, wherein the key string is calculated from the BSK and the key string has a length that is not shorter than the maximal of the required EK lengths.
A system, comprising: an armature configured to move a first contact between a first position that electrically couples the armature to the first contact and a second position that electrically couples the armature to a second contact ; a coil configured receive a voltage output by a voltage source, wherein the voltage is configured to magnetize the coil, thereby causing an armature to move between the first position to the second position; and a controller configured to: receive an indication of a presence of an external event that corresponds to physically disrupting a position of the armature ; determine an expected position of the armature prior to the external event; and adjust power provided to the coil based on the expected position and the indication. an armature configured to move a first contact between a first position that electrically couples the armature to the first contact and a second position that electrically couples the armature to a second contact ; a coil configured receive a voltage output by a voltage source, wherein the voltage is configured to magnetize the coil, thereby causing an armature to move between the first position to the second position; and a controller configured to: receive an indication of a presence of an external event that corresponds to physically disrupting a position of the armature ; determine an expected position of the armature prior to the external event; and adjust power provided to the coil based on the expected position and the indication. receive an indication of a presence of an external event that corresponds to physically disrupting a position of the armature ; determine an expected position of the armature prior to the external event; and adjust power provided to the coil based on the expected position and the indication.
A method for partitioning at least two genomic regions of a reference genome into a plurality of portions comprising: a) determining sequencing coverage variability across a reference genome; b) selecting an initial portion length; c) partitioning at least two genomic regions according to the initial portion length in (b), wherein the at least two genomic regions comprise a first genomic region and a second genomic region; d) comparing the sequencing coverage variability determined in (a) for each of the at least two genomic regions by calculating a proportionality factor (P) according to the following equation: P = var 1 / var 2 ∧ 1 / 3 wherein var1 is the sequencing coverage variability of the first genomic region and var2 is the sequencing coverage variability of the second genomic region, thereby generating a comparison; e) recalculating the number of portions for at least one of the genomic regions according to the proportionality factor in (d) and the total number of portions determined from the initial portion length in (b), thereby determining an optimized portion length; and f) re-partitioning at least one of the genomic regions into a plurality of portions according to the optimized portion length in (e). a) determining sequencing coverage variability across a reference genome; b) selecting an initial portion length; c) partitioning at least two genomic regions according to the initial portion length in (b), wherein the at least two genomic regions comprise a first genomic region and a second genomic region; d) comparing the sequencing coverage variability determined in (a) for each of the at least two genomic regions by calculating a proportionality factor (P) according to the following equation: P = var 1 / var 2 ∧ 1 / 3 wherein var1 is the sequencing coverage variability of the first genomic region and var2 is the sequencing coverage variability of the second genomic region, thereby generating a comparison; e) recalculating the number of portions for at least one of the genomic regions according to the proportionality factor in (d) and the total number of portions determined from the initial portion length in (b), thereby determining an optimized portion length; and f) re-partitioning at least one of the genomic regions into a plurality of portions according to the optimized portion length in (e).
An integrated circuit protected against fault-injection attacks, comprising: • a network of optical sensors (S); and • a surveillance flip-flop (FF) connected to the optical sensors for signaling a fault when at least one of the optical sensors changes state; characterized in that it comprises inductive windings connected in the network, each winding configured to generate an induced voltage causing the switching of at least one of the optical sensors when the winding is subjected to an electromagnetic flux capable of causing a fault-injection in the circuit. • a network of optical sensors (S); and • a surveillance flip-flop (FF) connected to the optical sensors for signaling a fault when at least one of the optical sensors changes state;
Brake with an idle roll of a fiber web machine, in particular of a slitter-winder, which idle roll comprises an outer shell surface , which brake comprises a permanent magnet , which is configured to be moved from non-braking position to braking position and vice versa by an actuator , characterized in, that brake is located outside the outer shell surface of the idle roll in close vicinity of the idle roll in a non-contacting position.
A cooling structure , comprising: a flow path configuration member made of resin and forming a flow path through which a refrigerant flows, a cooling target , and a metal layer , wherein: the flow path includes a protrusion that protrudes in a direction outside of the flow path from an inner wall at an upstream side in a direction in which the refrigerant flows, and a rectifier that rectifies the direction in which the refrigerant flows toward the protrusion , the cooling target is disposed to face at least a part of an inner wall of the protrusion , and the cooling target is cooled by the refrigerant flowing through the protrusion , and the metal layer is at least provided on an outer wall of the flow path configuration member opposite to a side on which the cooling target is disposed. a flow path configuration member made of resin and forming a flow path through which a refrigerant flows, a cooling target , and a metal layer , wherein: the flow path includes a protrusion that protrudes in a direction outside of the flow path from an inner wall at an upstream side in a direction in which the refrigerant flows, and a rectifier that rectifies the direction in which the refrigerant flows toward the protrusion , the cooling target is disposed to face at least a part of an inner wall of the protrusion , and the cooling target is cooled by the refrigerant flowing through the protrusion , and the metal layer is at least provided on an outer wall of the flow path configuration member opposite to a side on which the cooling target is disposed. the flow path includes a protrusion that protrudes in a direction outside of the flow path from an inner wall at an upstream side in a direction in which the refrigerant flows, and a rectifier that rectifies the direction in which the refrigerant flows toward the protrusion , the cooling target is disposed to face at least a part of an inner wall of the protrusion , and the cooling target is cooled by the refrigerant flowing through the protrusion , and the metal layer is at least provided on an outer wall of the flow path configuration member opposite to a side on which the cooling target is disposed.
A device , comprising: a processor ; and a protocol stack to: receive information from the processor ; generate one or more transaction layer packets based on the information; generate one or more flits comprising the transaction layer packets, each flit protected by a flit-level cyclic redundancy check, CRC, scheme; and transmit the one or more flits across one or more lanes of a link to a receiving device , wherein each flit comprises one or more flit-level CRC codes, the protocol stack to further transmit the one or more flit-level CRC codes across the one or more lanes, characterized in that each flit is further protected by a forward error correction, FEC, scheme applied on a per-lane basis. a processor ; and a protocol stack to: receive information from the processor ; generate one or more transaction layer packets based on the information; generate one or more flits comprising the transaction layer packets, each flit protected by a flit-level cyclic redundancy check, CRC, scheme; and transmit the one or more flits across one or more lanes of a link to a receiving device , receive information from the processor ; generate one or more transaction layer packets based on the information; generate one or more flits comprising the transaction layer packets, each flit protected by a flit-level cyclic redundancy check, CRC, scheme; and transmit the one or more flits across one or more lanes of a link to a receiving device , wherein each flit comprises one or more flit-level CRC codes, the protocol stack to further transmit the one or more flit-level CRC codes across the one or more lanes, characterized in that each flit is further protected by a forward error correction, FEC, scheme applied on a per-lane basis.