mhurhangee/ep-ind-claims huggingface dataset:
Transmission circuitry comprising: power amplifier circuitry configured to amplify a radio frequency input signal for transmission; an output matching network coupled to an output of the power amplifier circuitry and comprising a first plurality of continuously variable impedance elements (V 1, V 2, V 3); and impedance control circuitry configured to generate at least one impedance control signal to dynamically control values of the first plurality of continuously variable impedance elements such that the output matching network substantially continuously provides a desired load impedance at the center frequency of the RF input signal and a desired load impedance at one or more harmonics of the RF input signal as the center frequency of the RF input signal changes during operation. power amplifier circuitry configured to amplify a radio frequency input signal for transmission; an output matching network coupled to an output of the power amplifier circuitry and comprising a first plurality of continuously variable impedance elements (V 1, V 2, V 3); and impedance control circuitry configured to generate at least one impedance control signal to dynamically control values of the first plurality of continuously variable impedance elements such that the output matching network substantially continuously provides a desired load impedance at the center frequency of the RF input signal and a desired load impedance at one or more harmonics of the RF input signal as the center frequency of the RF input signal changes during operation.
An ignition device for a turbomachine combustion chamber, comprising two electrodes (48, 58) forming an ignition plug, and a module for electrically powering said electrodes (48, 58), said module including a piezoelectric element electrically connected to said electrodes (48, 58) and means for intermittently applying a force to said piezoelectric element so as to generate between said electrodes (48, 58) an electric voltage sufficient to cause an electric arc therebetween, said means comprising a fluid flow chamber, including at least two ports for connecting said chamber to a circuit (74, 62, 60) for flowing a pressurized fluid and forming respectively at least one intake port and at least one exhaust port for said fluid; said device being characterised in that it comprises: - a valve for sealing said intake port; - a piston bounding said chamber and displaceable along two opposite directions (85, 87) corresponding to an increase and a decrease in the volume of said chamber respectively; - elastic means biasing said piston into the direction of decrease in the volume of the chamber, and acting on said piezoelectric element; and - means for controlling said valve, configured so as to close said valve when said piston, displacing in said direction of increase in the volume of the chamber under the pressure of a fluid taken in said chamber by said intake port, and thus compressing said elastic means such that the same apply said force onto said piezoelectric element, reaches a first predetermined position, and so as to open said valve when said piston, displacing in said direction of decrease in the volume of the chamber under the pressure of said elastic means and thus inducing a fluid ejection out of said chamber through said exhaust port, goes beyond a second predetermined position. - a valve for sealing said intake port; - a piston bounding said chamber and displaceable along two opposite directions (85, 87) corresponding to an increase and a decrease in the volume of said chamber respectively; - elastic means biasing said piston into the direction of decrease in the volume of the chamber, and acting on said piezoelectric element; and - means for controlling said valve, configured so as to close said valve when said piston, displacing in said direction of increase in the volume of the chamber under the pressure of a fluid taken in said chamber by said intake port, and thus compressing said elastic means such that the same apply said force onto said piezoelectric element, reaches a first predetermined position, and so as to open said valve when said piston, displacing in said direction of decrease in the volume of the chamber under the pressure of said elastic means and thus inducing a fluid ejection out of said chamber through said exhaust port, goes beyond a second predetermined position.
A toilet comprising a bowl, a water trap including a conical part (2; 2') in the form of a curved cone with an inlet (3; 3') connected to the bowl and an outlet (4; 4'), and a flushing system (6; 6'; 20) comprising at least one nozzle (7a-b; 21) arranged to generate a water jet to flush clean the water trap by generating a vortex of water in the conical part (2; 2'), wherein the conical part (2; 2') has a narrow inlet portion and a lower curved portion, wherein the conical part (2; 2') has a tubular wall and said at least one nozzle (7a-b; 21) is arranged to generate the water jet tangentially with an inside of the tubular wall, characterized in that said at least one nozzle (7a-b; 21) is arranged in the narrow inlet portion between the inlet (3; 3') and the lower curved portion, and the conical part is designed with increasing diameter in a direction towards the outlet, wherein the diameter (D2;D2') of the outlet of the conical part is larger than the diameter (D1;D1') of the inlet of the conical part.
A label-free electrochemical biosensor comprising: a. reduced Graphene Oxide (rGO) screen-printed electrodes (SPEs) disposed on a biosensor substrate, b. primary amines (NH 2) linkers with NH2-groups attached to said SPEs, c. bioreceptor molecules covalently bound to said (NH 2) linkers, d. blocking layer deposited on said rGO SPEs wherein said rGO SPEs and said NH2-groups, are covalently bonded through chemisorption mechanism by immersion of said rGO SPEs in ammonia solution at room temperature. a. reduced Graphene Oxide (rGO) screen-printed electrodes (SPEs) disposed on a biosensor substrate, b. primary amines (NH 2) linkers with NH2-groups attached to said SPEs, c. bioreceptor molecules covalently bound to said (NH 2) linkers, d. blocking layer deposited on said rGO SPEs
A method comprising: sending (202,302), from an orchestration system to a software-defined networking, SDN, controller, a model of a distributed computer program application comprising one or more sources, destinations, and virtualized appliances for initiation by one or more host computers; determining, using the SDN controller, one or more host computers at which to host the virtualized appliances; generating, at the SDN controller, an updated model of the distributed computer program application, the updated model indicating the one or more host computers at which the virtualized appliances are to be hosted; sending (208, 304), from the SDN controller to the orchestration system, the updated model of the distributed computer program application; generating (210, 306), at the orchestration system, a mapping of the virtualized appliances to available host computers of the one or more host computers based, at least in part, on the updated model of the distributed computer program application; and using the mapping of the virtualized appliances to the available host computers, sending (212, 310), from the orchestration system to one or more cloud management systems, instructions to deploy the virtualized appliances on the available host computers. sending (202,302), from an orchestration system to a software-defined networking, SDN, controller, a model of a distributed computer program application comprising one or more sources, destinations, and virtualized appliances for initiation by one or more host computers; determining, using the SDN controller, one or more host computers at which to host the virtualized appliances; generating, at the SDN controller, an updated model of the distributed computer program application, the updated model indicating the one or more host computers at which the virtualized appliances are to be hosted; sending (208, 304), from the SDN controller to the orchestration system, the updated model of the distributed computer program application; generating (210, 306), at the orchestration system, a mapping of the virtualized appliances to available host computers of the one or more host computers based, at least in part, on the updated model of the distributed computer program application; and using the mapping of the virtualized appliances to the available host computers, sending (212, 310), from the orchestration system to one or more cloud management systems, instructions to deploy the virtualized appliances on the available host computers.
A method implemented by a base station for initializing pseudo-random sequence generators on which wireless devices base generation of uplink reference signals, comprising: determining a first sequence from a first subset of possible initialization sequences for a pseudo-random sequence generator of a first wireless device; determining a second sequence from a second subset of possible initialization sequences for a pseudo-random sequence generator of a second wireless device, the range of the second subset spanning at least the range of the first subset; encoding the first sequence as a first set of two or more parameters; encoding the second sequence as a single parameter, wherein the single parameter comprises fewer bits than the first set and is not included in the first set, wherein the second sequence is encoded based on a defined one-to-one mapping of possible initialization sequences within the second subset to possible values for the single parameter, wherein the range of the single parameter is smaller than the range of the second subset; and initializing the sequence generators of the first and second devices with the first and second sequences by transmitting the first and second sets of parameters to the first and second devices. determining a first sequence from a first subset of possible initialization sequences for a pseudo-random sequence generator of a first wireless device; determining a second sequence from a second subset of possible initialization sequences for a pseudo-random sequence generator of a second wireless device, the range of the second subset spanning at least the range of the first subset; encoding the first sequence as a first set of two or more parameters; encoding the second sequence as a single parameter, wherein the single parameter comprises fewer bits than the first set and is not included in the first set, wherein the second sequence is encoded based on a defined one-to-one mapping of possible initialization sequences within the second subset to possible values for the single parameter, wherein the range of the single parameter is smaller than the range of the second subset; and initializing the sequence generators of the first and second devices with the first and second sequences by transmitting the first and second sets of parameters to the first and second devices.
A method for controlling a device, the method comprising: sending a command signed by an operator's signature to a server; verifying, in the server, that the operator is authenticated to transmit the command; assigning, in the server, a criticality level and an authorization level to the command; depending on the criticality level and the authorization level, sending an approval request relating to the command to at least one control user; approving or denying the approval request by at least a subset of the at least one control user; sending the denied or approved approval request back to the server; determining, in the server, whether the command was approved by sufficiently many control users based on the criticality level and the authorization level; and sending the command to the device for being carried out by the device in case the command was approved by sufficiently many control users, wherein at last one of the at least one control user and the operator is remote from each other, wherein determining whether the command was approved by sufficiently many control users includes comparing the amount and/or authorization level of denied and/or approved approval requests to a threshold, wherein the threshold depends on the criticality level. sending a command signed by an operator's signature to a server; verifying, in the server, that the operator is authenticated to transmit the command; assigning, in the server, a criticality level and an authorization level to the command; depending on the criticality level and the authorization level, sending an approval request relating to the command to at least one control user; approving or denying the approval request by at least a subset of the at least one control user; sending the denied or approved approval request back to the server; determining, in the server, whether the command was approved by sufficiently many control users based on the criticality level and the authorization level; and sending the command to the device for being carried out by the device in case the command was approved by sufficiently many control users, wherein at last one of the at least one control user and the operator is remote from each other, wherein determining whether the command was approved by sufficiently many control users includes comparing the amount and/or authorization level of denied and/or approved approval requests to a threshold, wherein the threshold depends on the criticality level.
A method of reducing matrix effects in an analytical sample, the method comprising: contacting a sample comprising an matrix-interfering agent and an analyte with α-cyclodextrin modified particles to produce a contacted sample wherein the matrix-interfering agent binds to the α-cyclodextrin modified particles, wherein the matrix-interfering agent is a lipid, preferably a phospholipid; separating the α-cyclodextrin modified particles from the contacted sample to produce a matrix-reduced composition; and detecting the analyte in the matrix-reduced composition, wherein the matrix-reduced composition has a reduced deleterious effect on sensitivity of the detecting the analyte; wherein the α-cyclodextrin modified particles are surface modified with an α-cyclodextrin moiety, wherein the α-cyclodextrin moiety is covalently linked to the surface of the silica particles via a carbamate, a thiocarbamate, an ester, an amide, a thioamide, a thiourea, an amino, or a keto linking group, wherein the particles comprise the formula: wherein: L is a linker; α-CD is the α-cyclodextrin moiety and n is 0, or an integer from 1 to 6. contacting a sample comprising an matrix-interfering agent and an analyte with α-cyclodextrin modified particles to produce a contacted sample wherein the matrix-interfering agent binds to the α-cyclodextrin modified particles, wherein the matrix-interfering agent is a lipid, preferably a phospholipid; separating the α-cyclodextrin modified particles from the contacted sample to produce a matrix-reduced composition; and detecting the analyte in the matrix-reduced composition, wherein the matrix-reduced composition has a reduced deleterious effect on sensitivity of the detecting the analyte; wherein the α-cyclodextrin modified particles are surface modified with an α-cyclodextrin moiety, wherein the α-cyclodextrin moiety is covalently linked to the surface of the silica particles via a carbamate, a thiocarbamate, an ester, an amide, a thioamide, a thiourea, an amino, or a keto linking group, wherein the particles comprise the formula: wherein: L is a linker; α-CD is the α-cyclodextrin moiety and n is 0, or an integer from 1 to 6. L is a linker; α-CD is the α-cyclodextrin moiety and n is 0, or an integer from 1 to 6.
A computer-implemented method for capturing network data during a network usage anomaly based on a network usage model, the method being performed by a network node and comprising the steps of: establishing a baseline usage by applying at least one baselining rule to network traffic to generate baseline statistics; detecting an anomaly usage by applying at least one anomaly rule to network traffic and generating an anomaly event; capturing network data according to the anomaly event by triggering at least one capturing rule to be applied to network traffic when an associated anomaly event is generated, the network traffic including data packets at link layer, network layer or application layer, the at least one capturing rule including an action indicating a data capturing action, the at least one capturing rule including a filter to be applied to the network traffic when the action is used to capture the network data; and sending the baseline statistics, the anomaly event, and the captured network data to a network controller for storage or for further processing. establishing a baseline usage by applying at least one baselining rule to network traffic to generate baseline statistics; detecting an anomaly usage by applying at least one anomaly rule to network traffic and generating an anomaly event; capturing network data according to the anomaly event by triggering at least one capturing rule to be applied to network traffic when an associated anomaly event is generated, the network traffic including data packets at link layer, network layer or application layer, the at least one capturing rule including an action indicating a data capturing action, the at least one capturing rule including a filter to be applied to the network traffic when the action is used to capture the network data; and sending the baseline statistics, the anomaly event, and the captured network data to a network controller for storage or for further processing.
A method (1400, 1500) for transferring a lock assembly into an unlocking state and/or locking state, wherein the lock assembly comprises a lock for an active wing door and a counter-lock for an inactive wing door, wherein the lock comprises at least one locking element, wherein the locking element engages in an opening of the counter-lock in a locking position of the locking element, wherein the counter-lock comprises at least one locking bar connection for connection to a first locking bar, wherein the counter-lock comprises an electromechanical counter-lock actuator for moving the first locking bar, wherein the lock comprises an electromechanical lock actuator for moving the locking element, wherein the counter-lock actuator is activated to move the first locking bar in such a way that the lock actuator at least partially causes a movement of the locking element, characterized in that when the lock assembly is unlocked, the lock actuator is activated before the counter-lock actuator is activated. wherein the lock assembly comprises a lock for an active wing door and a counter-lock for an inactive wing door, wherein the lock comprises at least one locking element, wherein the locking element engages in an opening of the counter-lock in a locking position of the locking element, wherein the counter-lock comprises at least one locking bar connection for connection to a first locking bar, wherein the counter-lock comprises an electromechanical counter-lock actuator for moving the first locking bar, wherein the lock comprises an electromechanical lock actuator for moving the locking element, wherein the counter-lock actuator is activated to move the first locking bar in such a way that the lock actuator at least partially causes a movement of the locking element, characterized in that when the lock assembly is unlocked, the lock actuator is activated before the counter-lock actuator is activated.
A method of manufacturing a seamless multilayer composite pipe comprising the steps of a) providing a seamless metal pipe formed by extrusion with at least one continuous layer covering its inner surface by co-extruding adhesive material and material for the at least one continuous layer onto the inner surface of the seamless metal pipe, and b) passing the seamless metal pipe covered with the at least one continuous layer through a unit in order to reduce the diameter of the seamless metal pipe by cold working, characterised in that in step a) said seamless metal pipe is provided with said at least one continuous layer covering its inner surface by the further steps of: a1) adjusting a distance d between a hot-extrusion die and a co-extrusion head in the direction of extrusion of the seamless metal pipe; a2) feeding metal material to the hot-extrusion die; a3) feeding the adhesive material through a channel and feeding the material for the continuous layer through a channel to the co-extrusion head; a4) extruding the metal material through the hot-extrusion die and cooling the hot seamless metal pipe through its external surface; a5) co-extruding the adhesive material and the material for the inner continuous layer through the co-extrusion head onto the inner surface of the cooled seamless metal pipe, simultaneously to extruding the seamless metal pipe. a) providing a seamless metal pipe formed by extrusion with at least one continuous layer covering its inner surface by co-extruding adhesive material and material for the at least one continuous layer onto the inner surface of the seamless metal pipe, and b) passing the seamless metal pipe covered with the at least one continuous layer through a unit in order to reduce the diameter of the seamless metal pipe by cold working, a1) adjusting a distance d between a hot-extrusion die and a co-extrusion head in the direction of extrusion of the seamless metal pipe; a2) feeding metal material to the hot-extrusion die; a3) feeding the adhesive material through a channel and feeding the material for the continuous layer through a channel to the co-extrusion head; a4) extruding the metal material through the hot-extrusion die and cooling the hot seamless metal pipe through its external surface; a5) co-extruding the adhesive material and the material for the inner continuous layer through the co-extrusion head onto the inner surface of the cooled seamless metal pipe, simultaneously to extruding the seamless metal pipe.
An apparatus, comprising at least one processor, and at least one memory storing instructions, the at least one memory and the instructions configured to, with the at least one processor, cause a base station (12; 12') to determine a first information (I-1) which characterizes at least one of a) a position of a user equipment establishing access (A-1) to the base station (12; 12') relative to at least one component (12; 12b) of the base station (12; 12'), b) radio conditions experienced by a user equipment, and to determine, based on the first information (I-1), whether to perform a single phase configuration or a multi-phase configuration for the user equipment.
A composition containing Lactobacillus casei ssp. paracasei strain CNCM I-1518 and Lactobacillus bulgaricus and Streptococcus thermophilus bacteria, for use in the prevention or treatment of an upper respiratory tract infection in an adult individual by stimulating the natural killer cell response and/or the neutrophilic leukocytes count, said individual being a tobacco smoker.