mhurhangee/ep-ind-claims huggingface dataset:
A method of receiving a downlink signal from a plurality of eNode Bs at a user equipment in an eNode B cooperative wireless communication system, the method comprising: receiving downlink control information including downlink scheduling information for a first eNode B and one or more second eNode Bs from the first eNode B; and receiving a downlink data signal from the first eNode B and the one or more second eNode Bs using the downlink scheduling information through a same component carrier, wherein the downlink control information for the downlink data signal is received through one Physical Downlink Control Channel, wherein, if the downlink control information comprises one resource assignment field, the downlink data signal received from each of the first eNode B and the one or more second eNode Bs is received on an identical frequency band, wherein, if the downlink control information comprises at least two assignment fields, the downlink data signal received from each of the first eNode B and the one or more second eNode Bs is received on a partially overlapped frequency band. receiving downlink control information including downlink scheduling information for a first eNode B and one or more second eNode Bs from the first eNode B; and receiving a downlink data signal from the first eNode B and the one or more second eNode Bs using the downlink scheduling information through a same component carrier, wherein the downlink control information for the downlink data signal is received through one Physical Downlink Control Channel, wherein, if the downlink control information comprises one resource assignment field, the downlink data signal received from each of the first eNode B and the one or more second eNode Bs is received on an identical frequency band, wherein, if the downlink control information comprises at least two assignment fields, the downlink data signal received from each of the first eNode B and the one or more second eNode Bs is received on a partially overlapped frequency band.
A method for authenticating a registered person, comprising the following steps: - recording and digitizing a biometric property of a person to be authenticated, - ascertaining a biometric key from the biometric property (BM; BM2) of the person, - decrypting an encrypted secret with the ascertained biometric key, - computing a hash value of the decrypted secret, - comparing the computed hash value with a reference hash value individual to the registered person, - wherein the step of ascertaining the biometric key comprises the extracting of numerical features from the biometric property (BM; BM2) of the person, wherein a further step of a fault-tolerant decoding of the decrypted secret takes place prior to the step of computing the hash value, and wherein, if the two hash values match, the person concerned is considered correctly authenticated, and characterized in that the steps of recording, of ascertaining, of decrypting, of decoding and of computing are carried out by a local authentication device, wherein the encrypted secret is transmitted from a central database server to the local authentication device and the central database server stores the biometrically encrypted secrets and the associated reference hash values of all the registered persons, and further characterized in that a selection of different encrypted secrets of respectively different registered persons is decrypted with the biometric key ascertained for the person, for each decrypted secret a hash value is computed and each of these hash values is compared with an individual reference hash value of the respectively different registered persons, wherein the selection of the different encrypted secrets is selected on the basis of at least one characteristic selection feature from a multiplicity of encrypted secrets and wherein a selection feature is a particular characteristic and uniquely reproducible feature which is ascertained from the biometric property by the local authentication device and sent to the database server. - recording and digitizing a biometric property of a person to be authenticated, - ascertaining a biometric key from the biometric property (BM; BM2) of the person, - decrypting an encrypted secret with the ascertained biometric key, - computing a hash value of the decrypted secret, - comparing the computed hash value with a reference hash value individual to the registered person, - wherein the step of ascertaining the biometric key comprises the extracting of numerical features from the biometric property (BM; BM2) of the person,
A knocking control device for controlling knocking in a multicylinder engine having a plurality of cylinders, comprising: a knock sensor located so as to correspond to a specific one of said cylinders; advance correcting means for advancing the ignition timing for said specific cylinder as compared with the ignition timing for the other cylinders; knocking detecting means for detecting knocking according to an output signal from said knock sensor; and retard correcting means for retarding the ignition timing for each cylinder when knocking is detected, wherein said knocking detecting means comprises amplitude diminishing means for diminishing the amplitude of a signal input from said knock sensor, wherein the amplitude diminishing means are configured by connecting a resistance component, a switch, and a capacitance component in series between a power supply and a ground so that said resistance component, switch, and capacitance component are arranged in this order from the power supply, wherein the switch is turned on by a CPU when the engine speed is in a predetermined high speed range so that when the engine speed is in the predetermined high speed range, the amplitude of an output from the knock sensor is limited. a knock sensor located so as to correspond to a specific one of said cylinders; advance correcting means for advancing the ignition timing for said specific cylinder as compared with the ignition timing for the other cylinders; knocking detecting means for detecting knocking according to an output signal from said knock sensor; and retard correcting means for retarding the ignition timing for each cylinder when knocking is detected, wherein said knocking detecting means comprises amplitude diminishing means for diminishing the amplitude of a signal input from said knock sensor, wherein the amplitude diminishing means are configured by connecting a resistance component, a switch, and a capacitance component in series between a power supply and a ground so that said resistance component, switch, and capacitance component are arranged in this order from the power supply, wherein the switch is turned on by a CPU when the engine speed is in a predetermined high speed range so that when the engine speed is in the predetermined high speed range, the amplitude of an output from the knock sensor is limited.
A hybrid holographic gun sight (50, 400, 500, 600, 800), comprising: a housing having a viewing end and an opposing target end, a viewing path being defined from the viewing end to the target end; a light source (285, 460, 560, 660, 700, 860) operable to project a light beam along a path; a holographic optical element (295, 420, 520, 620, 730, 820) disposed in the path of the light beam, the HOE (295, 420, 520, 620, 730, 820) reconstructing an image of a reticle; and a non-diffraction element (310, 430, 530, 630, 740, 830) reflecting the image of the reticle, the non-diffraction element (310, 430, 530, 630, 740, 830) being disposed in the viewing path such that a user views a target along the viewing path through the non-diffraction element (310, 430, 530, 630, 740, 830) from the viewing end. a housing having a viewing end and an opposing target end, a viewing path being defined from the viewing end to the target end; a light source (285, 460, 560, 660, 700, 860) operable to project a light beam along a path; a holographic optical element (295, 420, 520, 620, 730, 820) disposed in the path of the light beam, the HOE (295, 420, 520, 620, 730, 820) reconstructing an image of a reticle; and a non-diffraction element (310, 430, 530, 630, 740, 830) reflecting the image of the reticle, the non-diffraction element (310, 430, 530, 630, 740, 830) being disposed in the viewing path such that a user views a target along the viewing path through the non-diffraction element (310, 430, 530, 630, 740, 830) from the viewing end.
A respiratory treatment apparatus configured to provide a flow of breathable gas to a patient, comprising: a gas inlet having a variable aperture that is adjustable between closed and fully open; a gas outlet; and a flow generator adapted to provide a supply of pressurized breathable gas from the gas inlet and to the gas outlet; and a controller to control the level of pressure generated by the flow generator, wherein the variable aperture is configured to, during the inspiration phase of the patient's respiratory cycle, vary proportionally in opening size as a function of a level of flow of breathable gas provided adjacent to the gas outlet, wherein the flow of breathable gas is induced by the patient. a gas inlet having a variable aperture that is adjustable between closed and fully open; a gas outlet; and a flow generator adapted to provide a supply of pressurized breathable gas from the gas inlet and to the gas outlet; and a controller to control the level of pressure generated by the flow generator, wherein the variable aperture is configured to, during the inspiration phase of the patient's respiratory cycle, vary proportionally in opening size as a function of a level of flow of breathable gas provided adjacent to the gas outlet, wherein the flow of breathable gas is induced by the patient.
A aircraft cabin-services system comprising: a first-network subsystem including a first-network device with knowledge of its physical location and assigned logical address within the first-network subsystem, the first-network device being a passenger service unit (208; PSU); and a second-network subsystem including a second-network device initially without knowledge of its physical location and without knowledge of its assigned logical address within the second-network subsystem, the second-network device having a known spatial relationship with the first-network device and being a passenger control unit (206; PCU); wherein the first-network device is configured to communicate its physical location to the second-network device via wireless point-to-point communication, wherein the second-network device is configured to derive at least partially its physical location based on the physical location of the first-network device, and the known spatial relationship between the first-network and second-network devices (104a, 104b), wherein the second-network subsystem further includes a head-end configured to communicate a poll request including a physical location of a network device of the second-network subsystem, and wherein the second-network device is configured to respond to the poll request in an instance in which the physical location in the poll request matches its derived physical location and then to receive an assignment of its logical address within the second-network subsystem using its derived physical location. a first-network subsystem including a first-network device with knowledge of its physical location and assigned logical address within the first-network subsystem, the first-network device being a passenger service unit (208; PSU); and a second-network subsystem including a second-network device initially without knowledge of its physical location and without knowledge of its assigned logical address within the second-network subsystem, the second-network device having a known spatial relationship with the first-network device and being a passenger control unit (206; PCU); wherein the first-network device is configured to communicate its physical location to the second-network device via wireless point-to-point communication, wherein the second-network device is configured to derive at least partially its physical location based on the physical location of the first-network device, and the known spatial relationship between the first-network and second-network devices (104a, 104b), wherein the second-network subsystem further includes a head-end configured to communicate a poll request including a physical location of a network device of the second-network subsystem, and wherein the second-network device is configured to respond to the poll request in an instance in which the physical location in the poll request matches its derived physical location and then to receive an assignment of its logical address within the second-network subsystem using its derived physical location.
Procedure designed to stabilize the electrical resistance between conductive tracks of a printed circuit board, wherein the printed circuit board has a solder mask on surfaces to be isolated between the conductive tracks, said procedure comprising the following steps: treatment of the printed circuit board in a vapor phase soldering system using a heat transfer medium.
A method for transmitting/receiving signals in a mobile communication system using a multiple input multiple output adaptive antenna array scheme, the method comprising the steps of: generating a de-spread signal by de-spreading a reception signal; calculating a reception weight value based on the de-spread signal for generating a reception beam; calculating a transmission weight value based on the calculated reception weight value for generating a transmission beam for a counter part terminal; generating feedback information including the transmission weight value; and transmitting the feedback information to the counter part terminal. generating a de-spread signal by de-spreading a reception signal; calculating a reception weight value based on the de-spread signal for generating a reception beam; calculating a transmission weight value based on the calculated reception weight value for generating a transmission beam for a counter part terminal; generating feedback information including the transmission weight value; and transmitting the feedback information to the counter part terminal.
Method for a washing machine comprising a washing unit for washing items by means of at least one washing liquid and a washing controller for controlling the operation of the machine at least during washing phase periods of a washing program executed by the washing machine, the method comprising: - filling the washing unit with washing liquid up to a predetermined volume; - pumping during a washing phase period a recycling volume of the washing liquid being used through a filtering unit in a recycling loop back into the washing unit, wherein the recycling loop enables repeatedly filtering of the washing liquid volume for microfibers and removing the microfibers, wherein the pumping of the recycling volume through the filtering unit is performed by means of an additional pump beside a pump that is configured for emptying the washing unit or wherein the pumping of the recycling volume through the filtering unit is performed by means of a pump that is configured for emptying the washing unit, and - emptying washing liquid out of the washing unit at the end of the washing phase period, characterized by the filtering unit being comprised in a common detergent and filter unit, which common detergent and filter unit further comprises a detergent compartment, and which common detergent and filter unit is configured to release at least one detergent compound in the washing, cleaning, or after treatment process, and of filtration of washing liquid prior, during, and after washing. - filling the washing unit with washing liquid up to a predetermined volume; - pumping during a washing phase period a recycling volume of the washing liquid being used through a filtering unit in a recycling loop back into the washing unit, wherein the recycling loop enables repeatedly filtering of the washing liquid volume for microfibers and removing the microfibers, wherein the pumping of the recycling volume through the filtering unit is performed by means of an additional pump beside a pump that is configured for emptying the washing unit or wherein the pumping of the recycling volume through the filtering unit is performed by means of a pump that is configured for emptying the washing unit, and - emptying washing liquid out of the washing unit at the end of the washing phase period,
Method for reducing the signalling load of a General Packet Radio Service, GPRS, core network system, the GPRS core network system comprising a first User Entity, UE, a first Radio Network Controller, RNC, a first Serving GPRS Support Node, SGSN, a first core network node, the network node being either a Gateway GPRS Support Node, GGSN, / Packet Data Network Gateway, PGW or a Serving Gateway, SGW, and a first Internet Protocol, IP network, where the first UE is arranged to be in communication with the first RNC, where the first RNC is arranged to be in communication with the SGSN for non-3G Direct Tunnel, 3GDT, communication of the GPRS core network system or the with first core network node for 3GDT communication of the GPRS core network system, where the first SGSN is arranged to be in communication with the first core network node, where the first core network node is arranged to be in contact with the first IP network, where one or more service requests originates from the first UE to the SGSN, characterized in that - the number of service requests from the first UE to the SGSN is measured within a predefined measurement interval; - if the number of service requests from the first UE to the SGSN does not exceed a predetermined threshold value within the predefined measurement interval, setting up a 3GDT communication between the RNC and the first core network if the configuration in the SGSN allows the setup of a 3GDT communication at the RNC, - if the number of service requests from the first UE to the SGSN does exceed the predetermined threshold value within the predefined measurement interval, setting up a non-3GDT communication between the RNC and the SGSN. - the number of service requests from the first UE to the SGSN is measured within a predefined measurement interval; - if the number of service requests from the first UE to the SGSN does not exceed a predetermined threshold value within the predefined measurement interval, setting up a 3GDT communication between the RNC and the first core network if the configuration in the SGSN allows the setup of a 3GDT communication at the RNC, - if the number of service requests from the first UE to the SGSN does exceed the predetermined threshold value within the predefined measurement interval, setting up a non-3GDT communication between the RNC and the SGSN.
A metal wire rod composed of iridium or an iridium alloy, the iridium alloy containing at least any of platinum, ruthenium, rhodium, and nickel in a total amount of 1 to 50% by mass, the balance being iridium, wherein the number of crystal grains on any cross-section in a longitudinal direction is 2 to 20 per 0.25 mm 2, and a Vickers hardness at any part is 200 Hv or more and less than 400 Hv.
A discontinuous reception method, wherein the method comprises: a first terminal device determining a target DRX cycle used for the first terminal device to detect a discontinuous reception, DRX, indication signal; the first terminal device detecting the DRX indication signal sent by a network device, in or before the target DRX cycle, wherein, the DRX indication signal is used to indicate that the first terminal device wakes up or sleeps during an active period of M DRX cycles after detection of the DRX indication signal, the M DRX cycles are a DRX indication cycle of the first terminal device, and M is a positive integer not equal to 1; the first terminal device wakes up or sleeps during the active period of the M DRX cycles after the detection of the DRX indication signal, according to the DRX indication signal, characterized in that the first terminal device determining the target discontinuous reception, DRX, cycle used for the first terminal device to detect the DRX indication signal, comprises: the first terminal device determining the target DRX cycle, in a DRX indication signal cycle used for detecting the DRX indication signal, wherein the DRX indication signal cycle comprises N DRX cycles, N is a positive integer, N=M or N≠M. a first terminal device determining a target DRX cycle used for the first terminal device to detect a discontinuous reception, DRX, indication signal; the first terminal device detecting the DRX indication signal sent by a network device, in or before the target DRX cycle, wherein, the DRX indication signal is used to indicate that the first terminal device wakes up or sleeps during an active period of M DRX cycles after detection of the DRX indication signal, the M DRX cycles are a DRX indication cycle of the first terminal device, and M is a positive integer not equal to 1; the first terminal device wakes up or sleeps during the active period of the M DRX cycles after the detection of the DRX indication signal, according to the DRX indication signal, characterized in that the first terminal device determining the target discontinuous reception, DRX, cycle used for the first terminal device to detect the DRX indication signal, comprises: the first terminal device determining the target DRX cycle, in a DRX indication signal cycle used for detecting the DRX indication signal, wherein the DRX indication signal cycle comprises N DRX cycles, N is a positive integer, N=M or N≠M.
A microprocessor, comprising: a predicting unit; and a control unit, configured to: control the predicting unit to accumulate a history of characteristics of instructions executed by the microprocessor and make predictions related to subsequent instructions based on the history while the microprocessor is running a first thread; detect a transition from running the first thread to running a second thread distinct from the first thread; and control the predicting unit to suspend accumulating the history, suspend making the predictions using the history while running the second thread, and make static predictions while running the second thread, as a function of a number of instructions retired during a previous execution of the second thread. a predicting unit; and a control unit, configured to: control the predicting unit to accumulate a history of characteristics of instructions executed by the microprocessor and make predictions related to subsequent instructions based on the history while the microprocessor is running a first thread; detect a transition from running the first thread to running a second thread distinct from the first thread; and control the predicting unit to suspend accumulating the history, suspend making the predictions using the history while running the second thread, and make static predictions while running the second thread, as a function of a number of instructions retired during a previous execution of the second thread. control the predicting unit to accumulate a history of characteristics of instructions executed by the microprocessor and make predictions related to subsequent instructions based on the history while the microprocessor is running a first thread; detect a transition from running the first thread to running a second thread distinct from the first thread; and control the predicting unit to suspend accumulating the history, suspend making the predictions using the history while running the second thread, and make static predictions while running the second thread, as a function of a number of instructions retired during a previous execution of the second thread.