mhurhangee/patent-ind-claim-en huggingface dataset:
A microfluidic device comprising: an enclosure having a microfluidic structure and a base, wherein the base comprises a common electrical conductor, wherein the microfluidic structure and an outer surface of the base together define a flow path within the enclosure, and wherein the base comprises an array of transistor structures , each said transistor structure in the array comprising a lateral bipolar transistor connecting a corresponding region of the outer surface of the base to the common conductor, wherein each said transistor structure in the array comprises a collector region , a base region , and an emitter region , wherein the base region surrounds the emitter region and comprises a lateral portion and a vertical portion , wherein the collector region surrounds the base region and comprises a lateral portion and a vertical portion , wherein a width of the lateral portion of the base region is between 10 nm and 400 nm, wherein each said transistor structure in the array is physically separated from adjacent transistor structures in the array by a trench, and wherein an electrically insulative material is disposed in the trenches. an enclosure having a microfluidic structure and a base, wherein the base comprises a common electrical conductor, wherein the microfluidic structure and an outer surface of the base together define a flow path within the enclosure, and wherein the base region surrounds the emitter region and comprises a lateral portion and a vertical portion , wherein the collector region surrounds the base region and comprises a lateral portion and a vertical portion , wherein a width of the lateral portion of the base region is between 10 nm and 400 nm, wherein each said transistor structure in the array is physically separated from adjacent transistor structures in the array by a trench, and wherein an electrically insulative material is disposed in the trenches.
A method performed by a low power network node, operable in a wireless communication network, the wireless communication network also comprising a neighbouring macro network node, wherein the low power network node and the neighbouring macro network node are configured with a first set of frequency bands B' and the low power network node is configured with a second set of frequency bands B", the method being performed for providing a primary serving cell by carrier aggregation, to a wireless device associated with the low power network node, the method characterized by : - when a received signal quality for a carrier in the first set of frequency bands, B', used by the low power network node is equal to or higher than a received signal quality for a carrier in the first set of frequency bands, B', used by the neighbouring macro network node as measured by the wireless device , allocating the primary serving cell for the wireless device on the carrier in the first set of frequency bands B' used by the low power network node, - when a received signal quality for a carrier in the second set of frequency bands B" used by the low power network node meets a threshold and the received signal quality for carriers in the first set of frequency bands B' used by the low power network node is lower than the received signal quality for carriers in the first set of frequency bands B' used by the neighbouring macro network node as measured by the wireless device , allocating the primary serving cell for the wireless device on the carrier in the second set of frequency bands B" used by the low power network node. - when a received signal quality for a carrier in the first set of frequency bands, B', used by the low power network node is equal to or higher than a received signal quality for a carrier in the first set of frequency bands, B', used by the neighbouring macro network node as measured by the wireless device , allocating the primary serving cell for the wireless device on the carrier in the first set of frequency bands B' used by the low power network node, - when a received signal quality for a carrier in the second set of frequency bands B" used by the low power network node meets a threshold and the received signal quality for carriers in the first set of frequency bands B' used by the low power network node is lower than the received signal quality for carriers in the first set of frequency bands B' used by the neighbouring macro network node as measured by the wireless device , allocating the primary serving cell for the wireless device on the carrier in the second set of frequency bands B" used by the low power network node.
A plastic injection moulding machine with a machine frame that accommodates an injection moulding arrangement and with a handling device that is arranged on the machine frame above the injection moulding arrangement, wherein the handling device has a linear guide that extends in a first horizontal direction (x) along a longitudinal direction of the machine frame and is fastened on the machine frame, as well as a first carriage that is arranged so as to be displaceable along the linear guide , wherein a linear guiding device with a travel section , which extends along a second horizontal direction (y) and on which a second carriage is displaceably supported, is fastened on the first carriage , and wherein the second carriage carries a handling module , wherein the linear guiding device furthermore has a compensating section , which starting from the linear guide extends along the second horizontal direction (y) opposite of the travel section , and wherein a balancing weight for compensating tilting moments is displaceably arranged on the compensating section .
An apparatus for determining unknown concentrations ( X 1 ,X 2 ,X 3 ) of components of a gas mixture which is flowing through a pipeline , wherein an ultrasound flowmeter is provided which determines the speed of sound ( C g ) of the gas mixture flowing in a pipeline , and wherein an evaluation unit is provided which is designed to determine the unknown concentrations ( X 1 ,X 2 ,X 3 ) of the components of the gas mixture by reference to the speed of sound ( C g ) determined via an ultrasound measurement, to a determined or specified pressure (P) of the medium and to a determined or specified temperature (T) of the medium using a mathematical and physical model for real gases, wherein the gas mixture is a biogas is and is essentially made up of three components, which components are methane, carbon dioxide and steam, wherein the evaluation unit establishes the concentration of the steam ( X 3 ) as a function of the temperature (T) and the humidity (RH) of the gas mixture and takes the concentration ( X 3 ) of the steam into consideration when determining the concentrations ( X 1 ,X 2 ) of the other two components, wherein the unknown concentrations ( X 1 ,X 2 ,X 3 ) of the individual components of the gas mixture are established through iterative calculations by reference to specified starting values. wherein an ultrasound flowmeter is provided which determines the speed of sound ( C g ) of the gas mixture flowing in a pipeline , and wherein an evaluation unit is provided which is designed to determine the unknown concentrations ( X 1 ,X 2 ,X 3 ) of the components of the gas mixture by reference to the speed of sound ( C g ) determined via an ultrasound measurement, to a determined or specified pressure (P) of the medium and to a determined or specified temperature (T) of the medium using a mathematical and physical model for real gases, wherein the gas mixture is a biogas is and is essentially made up of three components, which components are methane, carbon dioxide and steam, wherein the evaluation unit establishes the concentration of the steam ( X 3 ) as a function of the temperature (T) and the humidity (RH) of the gas mixture and takes the concentration ( X 3 ) of the steam into consideration when determining the concentrations ( X 1 ,X 2 ) of the other two components, wherein the unknown concentrations ( X 1 ,X 2 ,X 3 ) of the individual components of the gas mixture are established through iterative calculations by reference to specified starting values.
A network node for adaptive co-phasing in Active Antenna System, AAS, for transmissions by a cross-polarization antenna array, the network node comprising processing circuitry including a processor and a memory , the memory containing instructions executable by the processor to configure the network node to: obtain co-phasing information associated with a wireless device; generate at least two co-phasing matrices based on the co-phasing information; and apply the at least two co-phasing matrices to at least two resource structures, wherein the at least two resource structures are one of at least two physical resource blocks, PRBs, and at least two resource elements, REs, characterized in that the applying of the at least two co-phasing matrices to at least two resource structures being transparent to the wireless device receiving at least one transmission, and a sequence of applying the at least two co-phasing matrices to one of the at least two resource structures being chosen randomly by the network node . obtain co-phasing information associated with a wireless device; generate at least two co-phasing matrices based on the co-phasing information; and apply the at least two co-phasing matrices to at least two resource structures, wherein the at least two resource structures are one of at least two physical resource blocks, PRBs, and at least two resource elements, REs, characterized in that the applying of the at least two co-phasing matrices to at least two resource structures being transparent to the wireless device receiving at least one transmission, and a sequence of applying the at least two co-phasing matrices to one of the at least two resource structures being chosen randomly by the network node .
Container packaging comprising a plastically deformable inner container , having an inner container casing and an inner container shoulder , for receiving a filling material, wherein the inner container shoulder comprises a dispensing section having a dispensing opening , a resiliently deformable outer container having an outer container casing , an outer container shoulder , and at least one valve , wherein the outer container shoulder comprises an outer container nipple having an outer container opening , wherein the inner container is arranged completely within the outer container , the dispensing section extends into the outer container nipple , and the dispensing section is connected to the outer container nipple sealed against the outer atmosphere, wherein the valve enables a connection of the space , located between the inner container and the outer container , to the outer atmosphere, wherein the outer container is closed at its end opposite the outer container shoulder and the inner container is closed at its end opposite the inner container shoulder by the formation of a single, joint welded seam, characterized in that the inner container casing comprises a radial fold and the inner container casing is designed to overlap itself in the area of the radial fold .
An electrochemical measurement method in which a working electrode that supplies or receives electrons to or from a measurement target to cause an oxidation-reduction reaction and a counter electrode connected to the working electrode through an external power source are provided in an electrolytic solution containing the measurement target, and a measuring voltage is applied between the working electrode and the counter electrode to measure a current flowing between the working electrode and the counter electrode in proportion to the amount of the measurement target, wherein the working electrode is provided on a bottom of an electrolytic solution well containing the electrolytic solution; and a measurement target eliminating thin-wire electrode is provided on the bottom, the measurement target eliminating thin-wire electrode being made of thin wire stretched in such a shape that extends from one point on the bottom upward into space in the electrolytic solution well and back to another point on the bottom, the electrochemical measurement method performs: a measurement target elimination step of eliminating the measurement target by applying an eliminating voltage having the same polarity as the measuring voltage between the measurement target eliminating thin-wire electrode and the counter electrode to oxidize or reduce the measurement target; a measurement target diffusion step of diffusing a new measurement target after stopping the application of the eliminating voltage; and an electrochemical measurement step of measuring the current by applying the measuring voltage between the working electrode and the counter electrode after the new measurement target is diffused. a measurement target elimination step of eliminating the measurement target by applying an eliminating voltage having the same polarity as the measuring voltage between the measurement target eliminating thin-wire electrode and the counter electrode to oxidize or reduce the measurement target; a measurement target diffusion step of diffusing a new measurement target after stopping the application of the eliminating voltage; and an electrochemical measurement step of measuring the current by applying the measuring voltage between the working electrode and the counter electrode after the new measurement target is diffused.
A method for coordinating Wireless Local Area Network, WLAN, sensing resources, performed by a wireless access point, AP, characterized in comprising: determining (S11) a WLAN sensing resource frame, wherein the WLAN sensing resource frame comprises WLAN sensing information, and the WLAN sensing information is configured for coordinating a station to send a WLAN sensing request frame, and the WLAN sensing resource frame comprises duration information and a first capability information element, IE, and the first capability IE has a one-to-one correspondence with the duration information; receiving (S21) a WLAN sensing message comprising WLAN sensing capability information sent by the station, wherein the WLAN sensing capability information is configured to identify a second capability IE about the station supporting WLAN sensing; in response to receiving the WLAN sensing message sent by the station, determining (S22) an AP for providing a WLAN sensing resource to the station among multiple APs, wherein the first capability IE of the AP for providing the WLAN sensing resource to the station matches the second capability IE; and sending (S12) the WLAN sensing resource frame to the station. determining (S11) a WLAN sensing resource frame, wherein the WLAN sensing resource frame comprises WLAN sensing information, and the WLAN sensing information is configured for coordinating a station to send a WLAN sensing request frame, and the WLAN sensing resource frame comprises duration information and a first capability information element, IE, and the first capability IE has a one-to-one correspondence with the duration information; receiving (S21) a WLAN sensing message comprising WLAN sensing capability information sent by the station, wherein the WLAN sensing capability information is configured to identify a second capability IE about the station supporting WLAN sensing; in response to receiving the WLAN sensing message sent by the station, determining (S22) an AP for providing a WLAN sensing resource to the station among multiple APs, wherein the first capability IE of the AP for providing the WLAN sensing resource to the station matches the second capability IE; and sending (S12) the WLAN sensing resource frame to the station.
A method for performing noise reduction in a vehicle comprising a noise reduction system and a cabin comprising a plurality of zones (210, 220, 230, 240, and 250), the method comprising: obtaining a noise reduction criterion for the vehicle; determining, based on the noise reduction criterion, a first one of the plurality of zones (210, 220, 230, 240, and 250) for which noise reduction is to be performed; and controlling the noise-reduction system to perform noise reduction in the first zone, wherein performing noise reduction in the first zone causes the noise reduction system to effect a resultant adjustment in noise level in at least a second one of the plurality of zones (210, 220, 230, 240, and 250); characterized in that the plurality of zones (210, 220, 230, 240, and 250) comprises a seating zone 210, a viewing zone 220, a galley zone 230, a meeting zone 240, and a resting zone 250 of the vehicle, in that the noise reduction system is configured to provide a baseline level of noise reduction in the plurality of zones (210, 220, 230, 240, and 250) and in that the noise reduction system is further configurable to reduce noise in an adjustable manner on a zone-by-zone basis for all zones. obtaining a noise reduction criterion for the vehicle; determining, based on the noise reduction criterion, a first one of the plurality of zones (210, 220, 230, 240, and 250) for which noise reduction is to be performed; and controlling the noise-reduction system to perform noise reduction in the first zone, wherein performing noise reduction in the first zone causes the noise reduction system to effect a resultant adjustment in noise level in at least a second one of the plurality of zones (210, 220, 230, 240, and 250); characterized in that the plurality of zones (210, 220, 230, 240, and 250) comprises a seating zone 210, a viewing zone 220, a galley zone 230, a meeting zone 240, and a resting zone 250 of the vehicle, in that the noise reduction system is configured to provide a baseline level of noise reduction in the plurality of zones (210, 220, 230, 240, and 250) and in that the noise reduction system is further configurable to reduce noise in an adjustable manner on a zone-by-zone basis for all zones.
Method for handling faults in industrial trucks , in particular in driverless transport systems which are equipped with at least one sensor unit for detecting the surroundings of the industrial truck , the method comprising: - during a regular operation of the industrial truck , permanent monitoring of the surroundings by means of the at least one sensor unit ; - checking the sensor data obtained in such a manner for a presence of an obstacle (H); and - in the event of an obstacle (H) being ascertained, triggering a time measurement, wherein the operation of the industrial truck and the monitoring of the surroundings are continued during the time measurement; characterised in that if, during a predetermined time span after the triggering of the time measurement, the obstacle (H) is no longer ascertained, the time measurement is terminated and the operation of the industrial truck is continued, and if, after the predetermined time span after the triggering of the time measurement, the obstacle (H) is still ascertained, the industrial truck is switched into a fault mode. - during a regular operation of the industrial truck , permanent monitoring of the surroundings by means of the at least one sensor unit ; - checking the sensor data obtained in such a manner for a presence of an obstacle (H); and - in the event of an obstacle (H) being ascertained, triggering a time measurement, wherein the operation of the industrial truck and the monitoring of the surroundings are continued during the time measurement;
Vehicle having at least one lockable door and a key , said door being locked or unlocked by the key , where each door is arranged in an opening being carved in a wall in the vehicle, said opening further comprising a moveable motorized shutter , where a driving mechanism is adapted to move the shutter between an open or shielded position in the opening, characterised in that the movement of the shutter is determined by the key to the lockable door, said key has a number of positions adapted to determine the opening or shielding position of the shutter, or the movement of the shutter is determined independent of the key to the lockable door, where a first position of the key opens the shutter when the lockable door is unlocked and a second position of the key shields the opening when the lockable door is locked, and in that a third position of the key moves the shutter to shielding after the lockable door has been unlocked.
A method for installing offshore wind power generation floating body , comprising steps of: manufacturing a lower structure comprising a damping plate having a circular plate shape, a guide beam configured to support each of a top surface and a bottom surface of the damping plate and comprising a plurality of protruding portions formed on a side surface of the damping plate , and a slot for fixing an upper structure , which is formed in the top surface of the damping plate and has an empty space at a central portion thereof; coupling a temporary buoyancy tank to each of the plurality of protruding portions; installing a concrete block mounting structure in the empty space of the slot for fixing the upper structure ; transporting the lower structure on the sea until a destination by a towing vessel; fixing the lower structure between a first work barge and a second work barge by a link bridge connected to each of the first work barge and the second work barge; and seating a concrete block connected to a second wire of a second crane seated on the second work barge on the concrete block mounting structure in a state in which a plurality of first wires of a first crane seated on the first work barge are connected to the lower structure to maintain a tension equal to or greater than a set magnitude. manufacturing a lower structure comprising a damping plate having a circular plate shape, a guide beam configured to support each of a top surface and a bottom surface of the damping plate and comprising a plurality of protruding portions formed on a side surface of the damping plate , and a slot for fixing an upper structure , which is formed in the top surface of the damping plate and has an empty space at a central portion thereof; coupling a temporary buoyancy tank to each of the plurality of protruding portions; installing a concrete block mounting structure in the empty space of the slot for fixing the upper structure ; transporting the lower structure on the sea until a destination by a towing vessel; fixing the lower structure between a first work barge and a second work barge by a link bridge connected to each of the first work barge and the second work barge; and seating a concrete block connected to a second wire of a second crane seated on the second work barge on the concrete block mounting structure in a state in which a plurality of first wires of a first crane seated on the first work barge are connected to the lower structure to maintain a tension equal to or greater than a set magnitude.