mhurhangee/patent-ind-claim-en huggingface dataset:
A communication device comprising a lawful interception, LI, Administration Function, ADMF , the communication device comprising, a processor and a memory , said memory containing instructions executable by said processor , whereby the communication device is operative to: - select information about a type of issue to be sent in a message to the LI ADMF from a network element, NE , over an X1 interface according to ETSI TS 103 221-1, - send a request to the NE , that is configured to perform an action associated with a lawful interception, to add information associated with the LI ADMF and information about one or more interfaces on the NE over which the message will be sent, or modify information associated with the LI ADMF and information about one or more interfaces for the message to be sent from the NE to the LI ADMF over the X1 interface, wherein the request comprises the information about the type of issue in a DeliveryType field or in an X1DeliveryTypeFilter field, - receive a response from the NE to the request, wherein the response comprises a result associated with the request. - select information about a type of issue to be sent in a message to the LI ADMF from a network element, NE , over an X1 interface according to ETSI TS 103 221-1, - send a request to the NE , that is configured to perform an action associated with a lawful interception, to add information associated with the LI ADMF and information about one or more interfaces on the NE over which the message will be sent, or modify information associated with the LI ADMF and information about one or more interfaces for the message to be sent from the NE to the LI ADMF over the X1 interface, wherein the request comprises the information about the type of issue in a DeliveryType field or in an X1DeliveryTypeFilter field, - receive a response from the NE to the request, wherein the response comprises a result associated with the request.
A method of driving a phase modulation active device comprising channels (CH_1 - CH_N) independently modulating a phase of incident light (Li), the method comprising: selecting a first phase value (φ 1 ) and a second phase value (φ 2 ) to be used for the channels; characterized in that the method comprises setting a binary phase profile by allocating the selected first phase value and the selected second phase value to each of the channels quasi-periodically with a period (T k ), in a sequence in which the channels are arranged; and driving the phase modulation active device, based on the set binary phase profile; wherein the setting of the binary phase profile comprises: repeating a process of allocating the selected first phase value to one or more first adjacent channels among the channels with differently adjusted values of (T k ), and allocating the selected second phase value to one or more second adjacent channels among the channels; and wherein the method further comprises adjusting an optical performance of the phase modulation active device, based on an average value (<T k >) of periods (T 1 - T k ) in which an arrangement pattern of the selected first phase value and the selected second phase value is repeated. selecting a first phase value (φ 1 ) and a second phase value (φ 2 ) to be used for the channels; characterized in that the method comprises setting a binary phase profile by allocating the selected first phase value and the selected second phase value to each of the channels quasi-periodically with a period (T k ), in a sequence in which the channels are arranged; and driving the phase modulation active device, based on the set binary phase profile; wherein the setting of the binary phase profile comprises: repeating a process of allocating the selected first phase value to one or more first adjacent channels among the channels with differently adjusted values of (T k ), and allocating the selected second phase value to one or more second adjacent channels among the channels; and repeating a process of allocating the selected first phase value to one or more first adjacent channels among the channels with differently adjusted values of (T k ), and allocating the selected second phase value to one or more second adjacent channels among the channels; and wherein the method further comprises adjusting an optical performance of the phase modulation active device, based on an average value (<T k >) of periods (T 1 - T k ) in which an arrangement pattern of the selected first phase value and the selected second phase value is repeated.
A printing apparatus comprising: n printheads (e.g. 1, 2, 3) arranged along a first direction , each printhead being in fluid communication with at least two different inks (e.g. c1, c2, c3, c4); a printing medium arranged opposite to the printheads, the printing medium including s printing areas (e.g. H, J, K) divided along the first direction such that each printing area is configured to be printed by a printhead, wherein the printing medium has a shape of a conical frustum including: a rotational axis (G); and a first end having a larger diameter than that of an opposing second end , wherein the rotational axis of the conical frustum is inclined relative to the first direction such that a printing distance between the printheads and the printing medium is configured to be substantially constant as the printing medium is rotated about the rotational axis; a motion controller that controls the motion of the printheads and the motion of the printing medium; and a printing driver that controls the printing of the printheads wherein s and n are positive integers greater than 1. n printheads (e.g. 1, 2, 3) arranged along a first direction , each printhead being in fluid communication with at least two different inks (e.g. c1, c2, c3, c4); a printing medium arranged opposite to the printheads, the printing medium including s printing areas (e.g. H, J, K) divided along the first direction such that each printing area is configured to be printed by a printhead, wherein the printing medium has a shape of a conical frustum including: a rotational axis (G); and a first end having a larger diameter than that of an opposing second end , wherein the rotational axis of the conical frustum is inclined relative to the first direction such that a printing distance between the printheads and the printing medium is configured to be substantially constant as the printing medium is rotated about the rotational axis; a motion controller that controls the motion of the printheads and the motion of the printing medium; and a printing driver that controls the printing of the printheads wherein s and n are positive integers greater than 1. a rotational axis (G); and a first end having a larger diameter than that of an opposing second end , wherein the rotational axis of the conical frustum is inclined relative to the first direction such that a printing distance between the printheads and the printing medium is configured to be substantially constant as the printing medium is rotated about the rotational axis; a motion controller that controls the motion of the printheads and the motion of the printing medium; and a printing driver that controls the printing of the printheads wherein s and n are positive integers greater than 1.
A use of a system to concentrate and separate particulates from a mixture of a host medium and particulates, the system comprising: a flow chamber through which the mixture flows, the flow chamber comprising one or more flow inlets and flow outlets, wherein the dimensions of the cross-section of the flow chamber are larger than the wavelength corresponding to the generated sound; an ultrasonic transducer in a wall of the flow chamber or located outside of the flow chamber and a reflector located opposite the ultrasonic transducer, wherein the ultrasonic transducer is configured to be driven by an oscillating voltage signal of ultrasonic frequencies with a frequency sweep pattern or step pattern to translate the particulates into a collection pocket and to generate an acoustic standing wave in the host medium perpendicular to a direction of mean flow in the flow chamber; and the collection pocket positioned on the wall of the flow chamber opposite the ultrasonic transducer, wherein the collection pocket has one or more butterfly valves for removing a slurry containing the host medium with a high particulate concentration from the flow chamber; wherein the system is configured so that an acoustic field exerts an acoustophoretic force on the particulates, such that the particulates are trapped in the acoustic field against the host medium drag force, resulting in large scale collection of the particulate over time. a flow chamber through which the mixture flows, the flow chamber comprising one or more flow inlets and flow outlets, wherein the dimensions of the cross-section of the flow chamber are larger than the wavelength corresponding to the generated sound; an ultrasonic transducer in a wall of the flow chamber or located outside of the flow chamber and a reflector located opposite the ultrasonic transducer, wherein the ultrasonic transducer is configured to be driven by an oscillating voltage signal of ultrasonic frequencies with a frequency sweep pattern or step pattern to translate the particulates into a collection pocket and to generate an acoustic standing wave in the host medium perpendicular to a direction of mean flow in the flow chamber; and the collection pocket positioned on the wall of the flow chamber opposite the ultrasonic transducer, wherein the collection pocket has one or more butterfly valves for removing a slurry containing the host medium with a high particulate concentration from the flow chamber; wherein the system is configured so that an acoustic field exerts an acoustophoretic force on the particulates, such that the particulates are trapped in the acoustic field against the host medium drag force, resulting in large scale collection of the particulate over time.
A method for warning the driver of a motor vehicle about the presence of an object in the surroundings of the motor vehicle by displaying images (BA) of the surroundings on a display device of the motor vehicle , comprising the steps of: - capturing a camera image (BK) of the surroundings by means of a camera of the motor vehicle and identifying the object in the camera image (BK) - determining an expected trajectory of the motor vehicle , in particular in dependency on a current steering angle of the motor vehicle , wherein said expected trajectory is represented by a first boundary line and a second boundary line - defining a region of interest (ROI) in said camera image (BK), wherein said region of interest (ROI) comprises a first lower corner and a second lower corner and said first lower corner coincides with said first boundary line and said second lower corner coincides with said second boundary line . - searching for said object in said region of interest (ROI), - generating a display image (BA) based on the camera image (BK), wherein the display image (BA) shows a superimposed optical representation of the expected trajectory , and displaying the display image (BA) on the display device, - determining a current position of the object relative to the expected trajectory and - changing the optical representation of the trajectory in the display image (BA) in dependency on the relative position of the object with respect to the trajectory . - capturing a camera image (BK) of the surroundings by means of a camera of the motor vehicle and identifying the object in the camera image (BK) - determining an expected trajectory of the motor vehicle , in particular in dependency on a current steering angle of the motor vehicle , wherein said expected trajectory is represented by a first boundary line and a second boundary line - defining a region of interest (ROI) in said camera image (BK), wherein said region of interest (ROI) comprises a first lower corner and a second lower corner and said first lower corner coincides with said first boundary line and said second lower corner coincides with said second boundary line . - searching for said object in said region of interest (ROI), - generating a display image (BA) based on the camera image (BK), wherein the display image (BA) shows a superimposed optical representation of the expected trajectory , and displaying the display image (BA) on the display device, - determining a current position of the object relative to the expected trajectory and - changing the optical representation of the trajectory in the display image (BA) in dependency on the relative position of the object with respect to the trajectory .
An XDI-terminated polyurethane represented by the following formula: and based on methylene diphenyl diisocyanate (MDI) or based on a mixture of meta-xylylene diisocyanate (XDI) and methylene diphenyl diisocyanate (MDI), said polyurethane not being solid at a temperature ranging from 5°C to 35°C, said polyurethane being such that the NCO function in said formula originates from the reaction between an XDI compound and an OH-terminated preformed polyurethane prepolymer, said polyurethane being characterized in that it is obtained from XDI and MDI such that the XDI/(XDI+MDI) molar ratio ranges from 16% to 25% or is strictly greater than 50%.
Audio playback system for audio content , the audio playback system comprising: an audio source comprising a number of audio output channels , and an audio sink comprising a number of audio input channels and a corresponding number of output channels , a cable that comprises a first connector on a first end and a second connector on a second end for each one of the audio output channels and that couples the respective one of the audio output channels with one of the audio input channels , wherein that audio source is configured to output individual channel test signals on every audio output channel upon connection of a cable to the audio output channels , and wherein the audio sink is configured to analyze signals received on the audio input channels for the presence of the individual channel test signals and map the audio input channels to respective ones of the output channels based on the analysis of the individual channel test signals . an audio source comprising a number of audio output channels , and an audio sink comprising a number of audio input channels and a corresponding number of output channels , a cable that comprises a first connector on a first end and a second connector on a second end for each one of the audio output channels and that couples the respective one of the audio output channels with one of the audio input channels , wherein that audio source is configured to output individual channel test signals on every audio output channel upon connection of a cable to the audio output channels , and wherein the audio sink is configured to analyze signals received on the audio input channels for the presence of the individual channel test signals and map the audio input channels to respective ones of the output channels based on the analysis of the individual channel test signals .
A method, implemented in a quantum device comprising: a register of qubits comprising two control qubits , a target qubit , and an ancilla qubit prepared in an initial state; a plurality of control lines coupled to the register of qubits; a plurality of control circuits coupled to the plurality of control lines, for performing a temporary Toffoli quantum logic gate on the two control qubits and the target qubit, the method comprising: obtaining the ancilla qubit in an |A> state ; computing a logical-AND of the two control qubits and storing the computed logical-AND in the state of the ancilla qubit, comprising replacing the |A> state of the ancilla qubit with the logical-AND of the two control qubits; applying a CNOT quantum logic gate between (i) the ancilla qubit storing the logical-AND of the two control qubits, and (ii) the target qubit, the ancilla qubit acting as a control qubit for the CNOT quantum logic gate; providing the ancilla qubit storing the logical-AND of the two control qubits as a resource for one or more additional operations; uncomputing the logical-AND of the two control qubits, comprising recovering the |A> state of the ancilla qubit by replacing the state of the ancilla qubit storing the computed logical-AND of the two control qubits with an |A> state; and providing the ancilla qubit in the recovered |A> state as a resource for one or more additional operations. obtaining the ancilla qubit in an |A> state ; computing a logical-AND of the two control qubits and storing the computed logical-AND in the state of the ancilla qubit, comprising replacing the |A> state of the ancilla qubit with the logical-AND of the two control qubits; applying a CNOT quantum logic gate between (i) the ancilla qubit storing the logical-AND of the two control qubits, and (ii) the target qubit, the ancilla qubit acting as a control qubit for the CNOT quantum logic gate; providing the ancilla qubit storing the logical-AND of the two control qubits as a resource for one or more additional operations; uncomputing the logical-AND of the two control qubits, comprising recovering the |A> state of the ancilla qubit by replacing the state of the ancilla qubit storing the computed logical-AND of the two control qubits with an |A> state; and providing the ancilla qubit in the recovered |A> state as a resource for one or more additional operations.
A memory controller circuit coupleable to a first memory circuit , the memory controller comprising: a first memory control circuit coupleable to the first memory circuit, the first memory control circuit adapted to read or load requested data from the first memory circuit in response to a read request and to write or store requested data to the first memory circuit in response to a write request; a second memory circuit ; characterized by : programmable atomic operations circuitry coupled to the first memory control circuit, the programmable atomic operations circuitry adapted to perform at least one programmable atomic operation of a plurality of programmable atomic operations in response to an atomic operation request designating the at least one programmable atomic operation; and a second memory control circuit coupled to the second memory circuit and to the first memory control circuit, the second memory control circuit adapted, in response to an atomic operation request designating the at least one programmable atomic operation and a memory address, to transfer the atomic operation request to the programmable atomic operations circuitry and to set a hazard bit stored in a memory hazard register corresponding to the memory address. a first memory control circuit coupleable to the first memory circuit, the first memory control circuit adapted to read or load requested data from the first memory circuit in response to a read request and to write or store requested data to the first memory circuit in response to a write request; a second memory circuit ; programmable atomic operations circuitry coupled to the first memory control circuit, the programmable atomic operations circuitry adapted to perform at least one programmable atomic operation of a plurality of programmable atomic operations in response to an atomic operation request designating the at least one programmable atomic operation; and a second memory control circuit coupled to the second memory circuit and to the first memory control circuit, the second memory control circuit adapted, in response to an atomic operation request designating the at least one programmable atomic operation and a memory address, to transfer the atomic operation request to the programmable atomic operations circuitry and to set a hazard bit stored in a memory hazard register corresponding to the memory address.
Aircraft automatic braking system, comprising means for acquiring deceleration rates (Rd) suitable for being imparted to the aircraft by the automatic braking system , and separate functional modules comprising: - a first functional module arranged in order to implement a state machine that includes a first branch comprising first states corresponding to a landing of the aircraft, a second branch comprising second states corresponding to a rejected take-off of the aircraft, and transitions between the first states and the second states , the first states, the second states and the transitions being defined independently of the deceleration rates; - a second functional module arranged in order to define a target deceleration (Td) of the aircraft on the basis of at least the deceleration rates and a current state of the state machine , said current state being either one of the first states or one of the second states ; - a third functional module arranged in order to define, on the basis of at least the current state and the target deceleration, an automatic braking command (Comm) in order to control actuators of wheel brakes of the aircraft. - a first functional module arranged in order to implement a state machine that includes a first branch comprising first states corresponding to a landing of the aircraft, a second branch comprising second states corresponding to a rejected take-off of the aircraft, and transitions between the first states and the second states , the first states, the second states and the transitions being defined independently of the deceleration rates; - a second functional module arranged in order to define a target deceleration (Td) of the aircraft on the basis of at least the deceleration rates and a current state of the state machine , said current state being either one of the first states or one of the second states ; - a third functional module arranged in order to define, on the basis of at least the current state and the target deceleration, an automatic braking command (Comm) in order to control actuators of wheel brakes of the aircraft.
A method for communication in a wireless telecommunication system that employs Time Division Duplex, TDD, carrier aggregation, comprising a network element , the method comprising: determining , by the network element , that a physical uplink shared channel, PUSCH, transmission scheduled on a subframe of a secondary cell, SCell, requires an acknowledgement/negative acknowledgement, ACK/NACK, on a downlink subframe of a primary cell, PCell, associated with the network element , wherein no resource is provisioned in a control region of the downlink subframe of the PCell for a physical hybrid automatic repeat request, HARQ, Indicator Channel, PHICH, for the ACK/NACK of the PUSCH transmission on the SCell; multiplexing, by the network element , at least one symbol of the PHICH onto at least one resource element of a physical control format indicator channel, PCFICH, in the control region of the downlink subframe of the PCell, such that the at least one resource element is shared by the PHICH and PCFICH, the at least one resource element of the PCFICH being for conveying up to six ACK/NACKs of the SCell for a user equipment, UE, and transmitting, by the network element to the UE , the multiplexed symbol of the PHICH. determining , by the network element , that a physical uplink shared channel, PUSCH, transmission scheduled on a subframe of a secondary cell, SCell, requires an acknowledgement/negative acknowledgement, ACK/NACK, on a downlink subframe of a primary cell, PCell, associated with the network element , wherein no resource is provisioned in a control region of the downlink subframe of the PCell for a physical hybrid automatic repeat request, HARQ, Indicator Channel, PHICH, for the ACK/NACK of the PUSCH transmission on the SCell; multiplexing, by the network element , at least one symbol of the PHICH onto at least one resource element of a physical control format indicator channel, PCFICH, in the control region of the downlink subframe of the PCell, such that the at least one resource element is shared by the PHICH and PCFICH, the at least one resource element of the PCFICH being for conveying up to six ACK/NACKs of the SCell for a user equipment, UE, and transmitting, by the network element to the UE , the multiplexed symbol of the PHICH.