mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit located in a base station, said integrated circuit comprising circuitry, which, in operation, is configured to perform a process, said process comprising the steps of: receiving respective reference signals mapped, for each of a plurality of antenna ports, to frequency resources, the respective reference signals being generated using information relating to a first cyclic shift index, the first cyclic shift index being associated with a first antenna port of the plurality of antenna ports; and measuring channel quality using the respective reference signals; wherein, when the first cyclic shift index is less than half of a total number of cyclic shift indexes, the respective reference signals of each of the plurality of antenna ports are mapped to a first frequency resource; and when the first cyclic shift index is greater than or equal to half of the total number of cyclic shift indexes, the respective reference signals of a half of the plurality of antenna ports are mapped to the first frequency resource and the respective reference signals of the remaining half of the plurality of antenna ports are mapped to a second frequency resource that is different from the first frequency resource. receiving respective reference signals mapped, for each of a plurality of antenna ports, to frequency resources, the respective reference signals being generated using information relating to a first cyclic shift index, the first cyclic shift index being associated with a first antenna port of the plurality of antenna ports; and measuring channel quality using the respective reference signals; wherein, when the first cyclic shift index is less than half of a total number of cyclic shift indexes, the respective reference signals of each of the plurality of antenna ports are mapped to a first frequency resource; and when the first cyclic shift index is greater than or equal to half of the total number of cyclic shift indexes, the respective reference signals of a half of the plurality of antenna ports are mapped to the first frequency resource and the respective reference signals of the remaining half of the plurality of antenna ports are mapped to a second frequency resource that is different from the first frequency resource.
A receiver for optical power transmission, said receiver having an entrance pupil, and comprising: a lens having a front surface, said lens being disposed in an optical entrance aperture (56, 76) of said optical receiver; a mirror disposed inwards of said lens relative to the incident direction of said optical power transmission, such that said lens and said mirror define a retro-reflector, said lens being disposed such that the entrance pupil of the optical receiver lies at or close to said front surface of said lens; and at least one photovoltaic cell (50, 58) disposed in or behind said optical aperture for receiving optical power from said transmission; said receiver being characterized in that said photovoltaic cell (50, 58) has an area substantially larger than that of said front surface of said lens, such that a majority of said optical power incident on said entrance aperture is absorbed by said photovoltaic cell. a lens having a front surface, said lens being disposed in an optical entrance aperture (56, 76) of said optical receiver; a mirror disposed inwards of said lens relative to the incident direction of said optical power transmission, such that said lens and said mirror define a retro-reflector, said lens being disposed such that the entrance pupil of the optical receiver lies at or close to said front surface of said lens; and at least one photovoltaic cell (50, 58) disposed in or behind said optical aperture for receiving optical power from said transmission;
A method in a user equipment during a random access procedure, the method comprising: selecting a first downlink transmit antenna port; transmitting a first preamble on one of a first subset of random access channel resources with a first preamble transmit power, wherein the first subset of random access channel resources is associated with the first downlink transmit antenna port; selecting a second downlink transmit antenna port, wherein the second downlink transmit antenna port is different from the first downlink transmit antenna port, when a random access response message including an indication of the first preamble is not received within a random access response reception time window; determining a preamble transmit power adjustment value, based upon one or more downlink transmit antenna port specific parameters received from a wireless communication network; determining a second preamble transmit power based on the determined preamble transmit power adjustment value and the first preamble transmit power; and transmitting a second preamble with the determined second preamble transmit power on one of a second subset of random access channel resources, wherein the second subset of random access channel resources is associated with the second downlink transmit antenna port. selecting a first downlink transmit antenna port; transmitting a first preamble on one of a first subset of random access channel resources with a first preamble transmit power, wherein the first subset of random access channel resources is associated with the first downlink transmit antenna port; selecting a second downlink transmit antenna port, wherein the second downlink transmit antenna port is different from the first downlink transmit antenna port, when a random access response message including an indication of the first preamble is not received within a random access response reception time window; determining a preamble transmit power adjustment value, based upon one or more downlink transmit antenna port specific parameters received from a wireless communication network; determining a second preamble transmit power based on the determined preamble transmit power adjustment value and the first preamble transmit power; and transmitting a second preamble with the determined second preamble transmit power on one of a second subset of random access channel resources, wherein the second subset of random access channel resources is associated with the second downlink transmit antenna port.
A method comprising: accessing network traffic from a network; selecting an entity; determining one or more values associated with one or more properties associated with the entity, wherein the one or more values are accessed from the network traffic; determining a classification of the entity; in response to the classification meeting a condition, determining, by a processing device, one or more properties that are unavailable in the network traffic; determining a data source associated with the one or more properties for which a value is not present in the network traffic; storing an identification of the data source associated with the one or more properties that are unavailable in the network traffic; and performing a remediation action with respect to the data source associated with the one or more properties that are unavailable in the network, wherein the remediation action is associated with one or more recommended actions, wherein the one or more recommended actions comprise at least one of changing a configuration of a switched port analyzer, SPAN, or mirror port, adding network infrastructure login information to provide access to network infrastructure, or accessing an updated profile library version comprising profiles against which the one or more values associated with the one or more properties are compared to classify the entity. accessing network traffic from a network; selecting an entity; determining one or more values associated with one or more properties associated with the entity, wherein the one or more values are accessed from the network traffic; determining a classification of the entity; in response to the classification meeting a condition, determining, by a processing device, one or more properties that are unavailable in the network traffic; determining a data source associated with the one or more properties for which a value is not present in the network traffic; storing an identification of the data source associated with the one or more properties that are unavailable in the network traffic; and performing a remediation action with respect to the data source associated with the one or more properties that are unavailable in the network, wherein the remediation action is associated with one or more recommended actions, wherein the one or more recommended actions comprise at least one of changing a configuration of a switched port analyzer, SPAN, or mirror port, adding network infrastructure login information to provide access to network infrastructure, or accessing an updated profile library version comprising profiles against which the one or more values associated with the one or more properties are compared to classify the entity.
A hot air device for thermowelding a thermoweldable membrane, comprising: - an air inlet for receiving air; - a casing in fluid communication with the air inlet; - a combustion chamber mounted within the casing and spaced apart therefrom to define a space therebetween, the chamber being delimited by a wall provided with a plurality of perforations allowing the air to flow into the chamber, the chamber comprising: • an upstream section; • a downstream section; and • a fuel injector provided at the upstream section for providing fuel within the chamber; the perforations allowing a portion of the air to flow into the upstream section of the chamber to produce an ignitable air-fuel mixture for producing a flame proximate the fuel injector, and letting the rest of the air entering the casing into the downstream section, whereby the flame is shortened within the chamber and hot air is produced out of the downstream section thereof; - an outlet portion in fluid communication with the combustion chamber for receiving the hot air from the combustion chamber and comprising a nozzle through which the hot air is expelled, the nozzle being sufficiently remote from the chamber so as to prevent producing the flame out therefrom; - a blower operatively connected to the air inlet to force an airflow from the air inlet through the chamber and out from the nozzle, characterised in that the hot air device further comprises at least one deflector extending transversally with respect to an airflow direction and mounted between the chamber and the casing, to assist in directing the portion of the air entering the casing into the upstream section of the combustion chamber. - an air inlet for receiving air; - a casing in fluid communication with the air inlet; - a combustion chamber mounted within the casing and spaced apart therefrom to define a space therebetween, the chamber being delimited by a wall provided with a plurality of perforations allowing the air to flow into the chamber, the chamber comprising: • an upstream section; • a downstream section; and • a fuel injector provided at the upstream section for providing fuel within the chamber; the perforations allowing a portion of the air to flow into the upstream section of the chamber to produce an ignitable air-fuel mixture for producing a flame proximate the fuel injector, and letting the rest of the air entering the casing into the downstream section, whereby the flame is shortened within the chamber and hot air is produced out of the downstream section thereof; • an upstream section; • a downstream section; and • a fuel injector provided at the upstream section for providing fuel within the chamber; - an outlet portion in fluid communication with the combustion chamber for receiving the hot air from the combustion chamber and comprising a nozzle through which the hot air is expelled, the nozzle being sufficiently remote from the chamber so as to prevent producing the flame out therefrom; - a blower operatively connected to the air inlet to force an airflow from the air inlet through the chamber and out from the nozzle,
A method for operating a CT imaging system comprising a gantry having a detector and a rotary encoder attached to the gantry, the method comprising: modelling, by means of an adaptive digital phase-locked loop, A-DPLL, a gantry rotation of the gantry, the A-DPLL configured to minimize the difference between an actual gantry angle α(t) A and a modeled gantry angle α(t) M; and generating, for each of a plurality of predetermined values of the modeled gantry angle α(t) M, a trigger pulse for the detector; wherein the actual gantry angle α(t) A is obtained by detecting a gantry angle α(t) D by means of the rotary encoder and adapting the detected gantry angle α(t) D to account for a deviation of the actual rotary encoder characteristics from expected rotary encoder characteristics, the adapting being performed using an angular pattern β i of the rotary encoder. modelling, by means of an adaptive digital phase-locked loop, A-DPLL, a gantry rotation of the gantry, the A-DPLL configured to minimize the difference between an actual gantry angle α(t) A and a modeled gantry angle α(t) M; and generating, for each of a plurality of predetermined values of the modeled gantry angle α(t) M, a trigger pulse for the detector; wherein the actual gantry angle α(t) A is obtained by detecting a gantry angle α(t) D by means of the rotary encoder and adapting the detected gantry angle α(t) D to account for a deviation of the actual rotary encoder characteristics from expected rotary encoder characteristics, the adapting being performed using an angular pattern β i of the rotary encoder.
An electromagnetic switching device comprising: a case defining an outer appearance of the electromagnetic switching device; a fixed contact point assembly received in the case and including a fixed contact point; a coil terminal assembly detachably coupled to one side of the fixed contact point assembly and including a coil; and a shaft assembly detachably inserted into the coil terminal assembly, wherein the shaft assembly includes a shaft movable in the coil terminal assembly, and wherein the coil terminal assembly comprises: a frame receiving the coil; and an internal yoke inserted into the frame from an upper and a lower portion of the frame, wherein the shaft is separably inserted into the internal yoke. a case defining an outer appearance of the electromagnetic switching device; a fixed contact point assembly received in the case and including a fixed contact point; a coil terminal assembly detachably coupled to one side of the fixed contact point assembly and including a coil; and a shaft assembly detachably inserted into the coil terminal assembly, wherein the shaft assembly includes a shaft movable in the coil terminal assembly, and a frame receiving the coil; and an internal yoke inserted into the frame from an upper and a lower portion of the frame, wherein the shaft is separably inserted into the internal yoke.
Fastening device for a sensor housing, having - an engagement region, which is designed to provide an engagement for an external fastening element for a fastening of the fastening device via the external fastening element; - a connecting region, which is designed to provide a splash-proof and dust-proof connection between fastening device and sensor housing; and - a pressure-equalizing line, which is designed to permit pressure equalization between an interior of the sensor housing and an environment of the fastening device, wherein, in the connected state of fastening device and sensor housing, the pressure-equalizing line has at least one environment opening to the environment of the fastening device and at least one housing opening in the connecting region in such a manner that the pressure equalization between the interior of the sensor housing and the environment is possible by the pressure-equalizing line via the environment opening and the housing opening, and wherein the engagement region is designed in such a manner that the sensor housing can be hung on the engagement region via the fastening device, wherein the engagement region is designed as a hook or holding ring, and wherein the at least one environment opening of the pressure-equalizing line is formed on an outer surface of the hook or holding ring in such a manner that the external fastening element can engage in the hook or holding ring such that the environment opening is partially covered. - an engagement region, which is designed to provide an engagement for an external fastening element for a fastening of the fastening device via the external fastening element; - a connecting region, which is designed to provide a splash-proof and dust-proof connection between fastening device and sensor housing; and - a pressure-equalizing line, which is designed to permit pressure equalization between an interior of the sensor housing and an environment of the fastening device, wherein the engagement region is designed as a hook or holding ring, and wherein the at least one environment opening of the pressure-equalizing line is formed on an outer surface of the hook or holding ring in such a manner that the external fastening element can engage in the hook or holding ring such that the environment opening is partially covered.
A tire comprising a tread portion, wherein the tread portion has land portions defined by main grooves (3, 4, 5, 6), the land portions include a crown land portion disposed on a tire equator, the crown land portion includes a first crown edge that extends in a tire circumferential direction on one side of the tire equator, a second crown edge that extends in the tire circumferential direction on the other side of the tire equator, a plurality of crown lateral grooves that extend from the first crown edge beyond the tire equator and terminate in the crown land portion, and crown sipes that include first sipe elements extending from the crown lateral grooves toward the second crown edge, and the first sipe elements intersect the crown lateral grooves at an obtuse angle (α), characterized in that the crown sipes further include second sipe elements that extend so as to be bent relative to the first sipe elements..
A single fiber optic cable with a multiparameter probe embedded or integrated within the single fiber optic cable; wherein the multiparameter probe is configured as a hermetic container with an inlet for the single fiber optic cable and an outlet for the single fiber optic cable, as well as an inlet for a sample, wherein the multiparameter probe comprises a plurality of capsules which are incorporated inside the multiparameter probe, each of the capsules being independent from the other capsules and modularly structured; wherein each capsule of the plurality of capsules consists of a fiber optic sensor configured to measure a physical, chemical or biological parameter of a sample when it is inside the multiparameter probe; and wherein r each fiber optic sensor is physically encapsulated independently within a capsule within the hermetic container and accessible from outside r of the hermetic container by an operator, but whose input and output signals are multiplexed, in such a way as to permit the continuity of the passage of information through the single fiber optic cable, without the need to externalize the multiparameter probe. as well as an inlet for a sample, wherein the multiparameter probe comprises a plurality of capsules which are incorporated inside the multiparameter probe, each of the capsules being independent from the other capsules and modularly structured; wherein each capsule of the plurality of capsules consists of a fiber optic sensor configured to measure a physical, chemical or biological parameter of a sample when it is inside the multiparameter probe; and wherein r each fiber optic sensor is physically encapsulated independently within a capsule within the hermetic container and accessible from outside r of the hermetic container by an operator, but whose input and output signals are multiplexed, in such a way as to permit the continuity of the passage of information through the single fiber optic cable, without the need to externalize the multiparameter probe.
Assembly for a turbomachine including an exhaust cone and an exhaust case including an annular inner shell, the exhaust cone and the exhaust case extending about an axis, the exhaust cone including an outer surface extending in the projection of said inner shell, the exhaust cone being connected to the exhaust case via a flange, said flange including an upstream portion fastened to the exhaust case and lugs extending downstream from said upstream portion, the exhaust cone being fastened to said lugs, characterized in that the flange is segmented and consists of several angular segments arranged circumferentially adjacent, each flange segment including at least one lug extending in a rectilinear manner along an axis parallel with the axis of the cone.
A circuit for an A-and-not-B gate comprising: an output terminal; a first input terminal (ai) for receiving a first set of single flux quantum, SFQ, pulses; a second input terminal (bi) for receiving a second set of SFQ pulses; a first Josephson junction, JJ, coupled to the output terminal (no) and coupled to receive the first set of SFQ pulses; a second JJ coupled to the first JJ and coupled to the output terminal resulting in a stacked arrangement of the first JJ and the second JJ, wherein the second JJ is configured to negatively bias the first JJ such that the circuit is configured to pass the first set of SFQ pulses to the output terminal (no) except when the second set of SFQ pulses have arrived at the second input terminal (bi) prior to an arrival of the first set of SFQ pulses at the first input terminal (ai); a third JJ coupled to a first node; a first inductor coupled between the first input terminal (ai) and the output terminal (no); a second inductor coupled between the second input terminal (bi) and the first node; a third inductor coupled to a second node, the second node being further coupled to the second JJ; and a fourth inductor coupled to the second node, wherein the fourth inductor is coupled to receive both an alternating current bias and a direct current bias via a transformer. an output terminal; a first input terminal (ai) for receiving a first set of single flux quantum, SFQ, pulses; a second input terminal (bi) for receiving a second set of SFQ pulses; a first Josephson junction, JJ, coupled to the output terminal (no) and coupled to receive the first set of SFQ pulses; a second JJ coupled to the first JJ and coupled to the output terminal resulting in a stacked arrangement of the first JJ and the second JJ, wherein the second JJ is configured to negatively bias the first JJ such that the circuit is configured to pass the first set of SFQ pulses to the output terminal (no) except when the second set of SFQ pulses have arrived at the second input terminal (bi) prior to an arrival of the first set of SFQ pulses at the first input terminal (ai); a third JJ coupled to a first node; a first inductor coupled between the first input terminal (ai) and the output terminal (no); a second inductor coupled between the second input terminal (bi) and the first node; a third inductor coupled to a second node, the second node being further coupled to the second JJ; and a fourth inductor coupled to the second node, wherein the fourth inductor is coupled to receive both an alternating current bias and a direct current bias via a transformer.