mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment for beamformed joint communication between a base station and multiple user equipments (111, 112, 113) in a user-equipment-coordination set, the method comprising: receiving an indication to coordinate beam sweeping with the user-equipment-coordination set; in response to receiving the indication to coordinate beam sweeping, directing, over a local wireless network connection (134, 135), each user equipment (111, 112, 113) in the user-equipment-coordination set to perform a beam-training procedure that includes receiving, from the base station, a set of downlink beam transmissions that cover a spatial area according to pre-specified time intervals and directions; forwarding, to the base station and over a wireless network connection, beam report information that indicates beam quality information based on the beam-training procedure; in response to forwarding the beam report information, receiving, from the base station and over the wireless network connection, an indication of one or more beam identities and one or more assigned time slots; and directing at least two user equipments (112, 113) in the user-equipment-coordination set to use specific beams indicated by the one or more beam identities at specific time slots indicated by the one or more assigned time slots by transmitting, over the local wireless network connection (134, 135), a respective beam identity of the one or more beam identities and a respective time slot of the one or more assigned time slots to each user equipment of the at least two user equipments. receiving an indication to coordinate beam sweeping with the user-equipment-coordination set; in response to receiving the indication to coordinate beam sweeping, directing, over a local wireless network connection (134, 135), each user equipment (111, 112, 113) in the user-equipment-coordination set to perform a beam-training procedure that includes receiving, from the base station, a set of downlink beam transmissions that cover a spatial area according to pre-specified time intervals and directions; forwarding, to the base station and over a wireless network connection, beam report information that indicates beam quality information based on the beam-training procedure; in response to forwarding the beam report information, receiving, from the base station and over the wireless network connection, an indication of one or more beam identities and one or more assigned time slots; and directing at least two user equipments (112, 113) in the user-equipment-coordination set to use specific beams indicated by the one or more beam identities at specific time slots indicated by the one or more assigned time slots by transmitting, over the local wireless network connection (134, 135), a respective beam identity of the one or more beam identities and a respective time slot of the one or more assigned time slots to each user equipment of the at least two user equipments.
An electrical circuit for a parallel array of at least two charge accumulators (1, 2), particularly batteries, storage batteries, for the voltage supply of a load and/or for the electrical charging of the charge accumulator (1, 2), with connection terminals (3a, 3b, 4a, 4b) at the charge accumulator end and connection terminals (5a, 5b) at the load or charging ends and with at least one DC converter, characterised in that the DC converter connects one of the connection terminals at the load or charge end to the corresponding matching connection terminals (3a, 4a) at the charge accumulator end, which are each assigned to matching terminals of the charge accumulators (1, 2) or combined charge accumulators, wherein corresponding terminals (3a, 4a) at the charge accumulator end can be controllably connected by switches (S1, S2; S1 - S8) as active elements of the DC converter alternately or overlapping in time via at least one common passive element of the DC converter with the corresponding matching connection terminal at the load or charging end.
An access control method, wherein the method comprises the following steps: a. receiving, at a web service runtime engine and from a client computer operated by a user, a call for a web service operation; b. identifying, by the web service runtime engine, which XML data objects located on an XML server, preferably in a database thereof, are implicated by the web service operation that has been called; c. retrieving (403, 404), by the web service runtime engine and from an access permission store on the XML server, access permissions for the user for the identified XML data objects, wherein the access permissions in the access permission store are generated automatically from XML data structures for corresponding XML data objects; d. generating, at the web service runtime engine, XACML-type policies based on the permissions, e. determining, at the web service runtime engine and based on the retrieved access permissions, whether the called web service operation can be performed on behalf of the user, the XACML policies being consulted in determining whether the called web service operation can be performed on behalf of the user; and f. either permitting or prohibiting the called web service operation based on the determination. a. receiving, at a web service runtime engine and from a client computer operated by a user, a call for a web service operation; b. identifying, by the web service runtime engine, which XML data objects located on an XML server, preferably in a database thereof, are implicated by the web service operation that has been called; c. retrieving (403, 404), by the web service runtime engine and from an access permission store on the XML server, access permissions for the user for the identified XML data objects, wherein the access permissions in the access permission store are generated automatically from XML data structures for corresponding XML data objects; d. generating, at the web service runtime engine, XACML-type policies based on the permissions, e. determining, at the web service runtime engine and based on the retrieved access permissions, whether the called web service operation can be performed on behalf of the user, the XACML policies being consulted in determining whether the called web service operation can be performed on behalf of the user; and f. either permitting or prohibiting the called web service operation based on the determination.
A method of producing bee larvae that are at least one time weight than control larvae comprising feeding young worker bees a HDAC inhibitor or a mixture thereof and feeding bee larvae royal jelly secreted by these young worker bees, while the bee larvae of the control receive the royal jelly produced by young worker bees not fed with a HDAC inhibitor or a mixture thereof.
An intake air delivery system for an engine, the intake air delivery system comprising: a valve seat ring; an intake valve provided in association with the valve seat ring, the intake valve adapted to contact the valve seat ring in a closed position of the intake valve, the intake valve adapted to provide a valve gap with respect to the valve seat ring in an open position of the intake valve; at least one bore provided in the valve seat ring, the at least one bore provided in selective fluid communication with the valve gap; and a conduit provided in fluid communication with the at least one bore and an inlet of a compressor section of a supercharger or an external vacuum pump, wherein each of the conduit and the at least one bore is adapted to provide a suction pressure of the inlet of a compressor section of a supercharger or an external vacuum pump to a portion of the valve gap adjacent to the valve seat ring. a valve seat ring; an intake valve provided in association with the valve seat ring, the intake valve adapted to contact the valve seat ring in a closed position of the intake valve, the intake valve adapted to provide a valve gap with respect to the valve seat ring in an open position of the intake valve; at least one bore provided in the valve seat ring, the at least one bore provided in selective fluid communication with the valve gap; and a conduit provided in fluid communication with the at least one bore and an inlet of a compressor section of a supercharger or an external vacuum pump, wherein each of the conduit and the at least one bore is adapted to provide a suction pressure of the inlet of a compressor section of a supercharger or an external vacuum pump to a portion of the valve gap adjacent to the valve seat ring.
A method for making a composition comprising an amorphous calcium aluminate with a final lime to alumina molar ratio (R F) selected within a predetermined range, which extends between a lower limit (Ri) and an upper limit (Rs), said lower limit (Ri) being different from the upper limit (Rs), wherein, a) a first amorphous calcium aluminate is chosen, with a first lime to alumina molar ratio, strictly lower than the lower limit (Ri) of said predetermined range, and a second amorphous calcium aluminate is chosen, with a second lime to alumina molar ratio, strictly higher than the upper limit (Rs) of said predetermined range, b) the respective amounts of said first and second amorphous calcium aluminates to be combined are determined so that the final lime to alumina molar ratio (R F) of amorphous calcium aluminate corresponding to the average of said first and second lime to alumina molar ratios (R1, R2), weighted by said respective amounts, is within said predetermined range; c) said first and second amorphous calcium aluminates are combined according to the amounts determined in step b). a) a first amorphous calcium aluminate is chosen, with a first lime to alumina molar ratio, strictly lower than the lower limit (Ri) of said predetermined range, and a second amorphous calcium aluminate is chosen, with a second lime to alumina molar ratio, strictly higher than the upper limit (Rs) of said predetermined range, b) the respective amounts of said first and second amorphous calcium aluminates to be combined are determined so that the final lime to alumina molar ratio (R F) of amorphous calcium aluminate corresponding to the average of said first and second lime to alumina molar ratios (R1, R2), weighted by said respective amounts, is within said predetermined range; c) said first and second amorphous calcium aluminates are combined according to the amounts determined in step b).
A non-aqueous electrolyte secondary battery comprising: a positive electrode with a positive electrode active material layer formed on a positive electrode current collector; a negative electrode with a negative electrode active material layer formed on a negative electrode current collector; a separator provided to be interposed between the positive electrode and the negative electrode; and a non-aqueous electrolyte solution, which are enclosed in an exterior material, wherein: the positive electrode active material layer comprises a lithium transition metal oxide of layered crystal structure; the negative electrode active material layer comprises a lithium titanium oxide of spinel-type crystal structure, and is 20.0 μm or more and 27.8 μm or less in thickness; and a ratio between a thickness of the positive electrode active material layer and the thickness of the negative electrode active material layer meets a requirement of the following formula: 0.59 ≤ thickness of positive electrode active material layer / thickness of negative electrode active material layer ≤ 1.50 the positive electrode active material layer comprises a lithium transition metal oxide of layered crystal structure; the negative electrode active material layer comprises a lithium titanium oxide of spinel-type crystal structure, and is 20.0 μm or more and 27.8 μm or less in thickness; and a ratio between a thickness of the positive electrode active material layer and the thickness of the negative electrode active material layer meets a requirement of the following formula: 0.59 ≤ thickness of positive electrode active material layer / thickness of negative electrode active material layer ≤ 1.50
A method for determining a value of cleaved high molecular weight kininogen (HMWK), intact HMWK, or both, in a sample, the method comprising: contacting a sample containing intact and cleaved HMWK with a detection agent under conditions allowing for interaction between the detection agent and the intact and cleaved HMWK, wherein the detection agent is an antibody; measuring the level of cleaved HMWK and the level of intact HMWK in the sample based on their interaction with the detection agent; and determining a value of the cleaved HMWK, the value of the intact HMWK, or both, in the sample based on the amounts of the cleaved HMWK and intact HMWK, wherein the method relies on separation of the cleaved HMWK and/or intact HMWK, wherein the detection agent has differential sensitivity for cleaved HMWK and intact HMWK under reducing conditions, and wherein the method comprises accounting for the differential sensitivity of the detection agent. contacting a sample containing intact and cleaved HMWK with a detection agent under conditions allowing for interaction between the detection agent and the intact and cleaved HMWK, wherein the detection agent is an antibody; measuring the level of cleaved HMWK and the level of intact HMWK in the sample based on their interaction with the detection agent; and determining a value of the cleaved HMWK, the value of the intact HMWK, or both, in the sample based on the amounts of the cleaved HMWK and intact HMWK, wherein the method relies on separation of the cleaved HMWK and/or intact HMWK, wherein the detection agent has differential sensitivity for cleaved HMWK and intact HMWK under reducing conditions, and wherein the method comprises accounting for the differential sensitivity of the detection agent.
A steam power plant comprising at least one steam turbine comprising: a first low-pressure turbine; and a second low-pressure turbine, characterized in, that it comprises: a main wet condensing system (13, 15) to cool exhaust gas from the first low-pressure turbine; and a second dry condensing system to cool exhaust gas from the second low-pressure turbine. a first low-pressure turbine; and a second low-pressure turbine, characterized in, that it comprises: a main wet condensing system (13, 15) to cool exhaust gas from the first low-pressure turbine; and a second dry condensing system to cool exhaust gas from the second low-pressure turbine. a main wet condensing system (13, 15) to cool exhaust gas from the first low-pressure turbine; and a second dry condensing system to cool exhaust gas from the second low-pressure turbine.
An uninterruptible power supply, comprising: a first input configured to receive input power from a first power source; a second input configured to receive input power from a second power source; an output configured to provide output power to a load derived from power from at least one of the first power source and the second power source; a power conversion circuit coupled with the first input, the second input and the output; and a controller coupled with the power conversion circuit, the controller configured to: in a first mode of operation, control the power conversion circuit to provide an output voltage of the output power at substantially a first voltage level; generate a profile of the load; in a second mode of operation, control the power conversion circuit to provide an output voltage of the output power at substantially a second voltage level, with the second voltage level being less than the first voltage level and based on the profile of the load; detect that a capacity of the load has changed by a threshold amount; and in response to the detection, generate an updated profile of the changed load. a first input configured to receive input power from a first power source; a second input configured to receive input power from a second power source; an output configured to provide output power to a load derived from power from at least one of the first power source and the second power source; a power conversion circuit coupled with the first input, the second input and the output; and a controller coupled with the power conversion circuit, the controller configured to: in a first mode of operation, control the power conversion circuit to provide an output voltage of the output power at substantially a first voltage level; generate a profile of the load; in a second mode of operation, control the power conversion circuit to provide an output voltage of the output power at substantially a second voltage level, with the second voltage level being less than the first voltage level and based on the profile of the load; detect that a capacity of the load has changed by a threshold amount; and in response to the detection, generate an updated profile of the changed load. in a first mode of operation, control the power conversion circuit to provide an output voltage of the output power at substantially a first voltage level; generate a profile of the load; in a second mode of operation, control the power conversion circuit to provide an output voltage of the output power at substantially a second voltage level, with the second voltage level being less than the first voltage level and based on the profile of the load; detect that a capacity of the load has changed by a threshold amount; and in response to the detection, generate an updated profile of the changed load.
An authenticity determining member (100, 500) comprising: a substrate layer (10, 510) that is a reflective circular polarizer; a first print layer (20, 520) that contains a resin pigment including flakes of a resin layer A1 having cholesteric regularity, the first print layer (20, 520) being provided on the substrate layer (10, 510); and a second print layer (30, 530) that contains a metal pigment having no circularly polarized light separation function, the second print layer (30, 530) being provided on the substrate layer (10, 510). a substrate layer (10, 510) that is a reflective circular polarizer; a first print layer (20, 520) that contains a resin pigment including flakes of a resin layer A1 having cholesteric regularity, the first print layer (20, 520) being provided on the substrate layer (10, 510); and a second print layer (30, 530) that contains a metal pigment having no circularly polarized light separation function, the second print layer (30, 530) being provided on the substrate layer (10, 510).
Robot cleaner, comprising: a main body: a traveling unit configured to move the main body; a cleaning unit configured to execute cleaning; a controller; at least one sensor (180, 190, 195, 230) sensing the floor to be cleaned and providing cleanliness information to the controller; a communication unit adapted to transmit cleaning status information to a remote device and to receive cleaning command information from a remote device characterized in that the controller is adapted to determine whether to stop cleaning operation or whether to continue the cleaning operation based on the cleaning command information. a main body: a traveling unit configured to move the main body; a cleaning unit configured to execute cleaning; a controller; at least one sensor (180, 190, 195, 230) sensing the floor to be cleaned and providing cleanliness information to the controller; a communication unit adapted to transmit cleaning status information to a remote device and to receive cleaning command information from a remote device characterized in that the controller is adapted to determine whether to stop cleaning operation or whether to continue the cleaning operation based on the cleaning command information. a traveling unit configured to move the main body; a cleaning unit configured to execute cleaning; a controller; at least one sensor (180, 190, 195, 230) sensing the floor to be cleaned and providing cleanliness information to the controller; a communication unit adapted to transmit cleaning status information to a remote device and to receive cleaning command information from a remote device characterized in that the controller is adapted to determine whether to stop cleaning operation or whether to continue the cleaning operation based on the cleaning command information.
A device for monitoring an operation of a nuclear plant, the device comprising: a first operating console having a regular-use-system control function of monitoring an operation of the nuclear plant in a normal state and a security-system control function of leading the nuclear plant in an abnormal state to a safe state; a second operating console having a security-system control function of leading the nuclear plant in an abnormal state to a safe state; and a block device for inhibiting an operation of the security-system control function by the first operating console when the security-system control function in the first operating console is in an abnormal state. a first operating console having a regular-use-system control function of monitoring an operation of the nuclear plant in a normal state and a security-system control function of leading the nuclear plant in an abnormal state to a safe state; a second operating console having a security-system control function of leading the nuclear plant in an abnormal state to a safe state; and a block device for inhibiting an operation of the security-system control function by the first operating console when the security-system control function in the first operating console is in an abnormal state.
A method for determining a measured value of at least one measured variable, which is selected from a group of measured variables that comprises an effective measured density value ρ eff and a density-dependent measured variable of a flowing medium using Coriolis mass flow meter with two oscillators, each of which exhibits two measuring pipes, wherein the measuring pipes of the two oscillators each vibrate against one another in pairs, wherein the four measuring pipes are arranged in parallel in terms of flow and are each arranged in a collector on both the inlet and outlet side, wherein the method exhibits the following steps: Recording a first measured partial mass flow rate value m 1 of a first partial flow through the measuring pipes of the first oscillator and a second measured partial mass flow rate value m 2 of a second partial flow through the measuring pipes of the second oscillator, wherein the sum of the two measured partial mass flow rate values results in a total measured mass flow rate value; Recording a first measured partial density value ρ 1 of the medium in the first partial flow and a second measured partial density value ρ 2 of the medium in the second partial flow; and characterized through calculation of the effective measured density value ρ eff on the basis of the two measured partial density values ρ 1, ρ 2 with weightings that are dependent on the measured partial mass flow rate values m 1, m 2, wherein various weighting functions are used to determine the weightings on the basis of the measured partial mass flow rate values. Recording a first measured partial mass flow rate value m 1 of a first partial flow through the measuring pipes of the first oscillator and a second measured partial mass flow rate value m 2 of a second partial flow through the measuring pipes of the second oscillator, wherein the sum of the two measured partial mass flow rate values results in a total measured mass flow rate value; Recording a first measured partial density value ρ 1 of the medium in the first partial flow and a second measured partial density value ρ 2 of the medium in the second partial flow; and characterized through calculation of the effective measured density value ρ eff on the basis of the two measured partial density values ρ 1, ρ 2 with weightings that are dependent on the measured partial mass flow rate values m 1, m 2, wherein various weighting functions are used to determine the weightings on the basis of the measured partial mass flow rate values.