mhurhangee/patent-ind-claim-en huggingface dataset:
A method for calculating a corrected temperature value by a microwave generator, the method comprising: determining a measured temperature value from a remote thermocouple probe (RTP measured); characterised by determining a temperature value of a remote thermocouple module (RTM); determining a temperature value of a system controller module (SCM); determining a temperature value of a microwave module (MWM); and calculating the corrected temperature value (RTP corrected) based on the determined temperature value of the remote thermocouple probe (RTP measured), the determined temperature value of the system controller module (SCM), and at least one of the determined temperature value of the remote thermocouple module (RTM) or the determined temperature value of the microwave module (MWM). determining a measured temperature value from a remote thermocouple probe (RTP measured); characterised by determining a temperature value of a remote thermocouple module (RTM); determining a temperature value of a system controller module (SCM); determining a temperature value of a microwave module (MWM); and calculating the corrected temperature value (RTP corrected) based on the determined temperature value of the remote thermocouple probe (RTP measured), the determined temperature value of the system controller module (SCM), and at least one of the determined temperature value of the remote thermocouple module (RTM) or the determined temperature value of the microwave module (MWM).
An apparatus, comprising: a memory device configured to couple to a host , wherein the memory device includes: a memory array of memory cells ; sensing circuitry coupled to the memory array, the sensing circuitry including a sense amplifier and a compute component configured to perform logical operations; and a cache memory , configured to store cache data; and a controller coupled to the cache memory , the controller configured to: create a block select as metadata to a cache line in the cache memory, wherein the block select enables an offset to the cache line; create a subrow select as metadata to the cache line , wherein the subrow select enables multiple sets to a set associative cache; use the block select to control alignment of the cached data in the memory array in the memory device ; and use the subrow select to control resource allocation in the memory array . a memory device configured to couple to a host , wherein the memory device includes: a memory array of memory cells ; sensing circuitry coupled to the memory array, the sensing circuitry including a sense amplifier and a compute component configured to perform logical operations; and a cache memory , configured to store cache data; and a controller coupled to the cache memory , the controller configured to: create a block select as metadata to a cache line in the cache memory, wherein the block select enables an offset to the cache line; create a subrow select as metadata to the cache line , wherein the subrow select enables multiple sets to a set associative cache; use the block select to control alignment of the cached data in the memory array in the memory device ; and use the subrow select to control resource allocation in the memory array . create a block select as metadata to a cache line in the cache memory, wherein the block select enables an offset to the cache line; create a subrow select as metadata to the cache line , wherein the subrow select enables multiple sets to a set associative cache; use the block select to control alignment of the cached data in the memory array in the memory device ; and use the subrow select to control resource allocation in the memory array .
A method by a wireless device for selecting beam-reference signals for channel-state information reference-signal transmission, the method comprising: receiving, from a network node via a plurality of beams, a plurality of beam-reference signals , BRS, each beam-reference signal being associated with one of a plurality of beam groups, and using a sequence that allows identification of its respective beam, wherein each beam-reference signal uses a different sequence to other beam-reference signals within the same beam group; performing, by the wireless device , measurements on the plurality of beam-reference signals ; based on the performed measurements, selecting a preferred beam-reference signal from the plurality of beam-reference signals ; identifying a subset of the plurality of beam-reference signals that are in the same beam group as the preferred beam-reference signal; and transmitting, to the network node , information identifying the subset of the plurality of beam-reference signals. receiving, from a network node via a plurality of beams, a plurality of beam-reference signals , BRS, each beam-reference signal being associated with one of a plurality of beam groups, and using a sequence that allows identification of its respective beam, wherein each beam-reference signal uses a different sequence to other beam-reference signals within the same beam group; performing, by the wireless device , measurements on the plurality of beam-reference signals ; based on the performed measurements, selecting a preferred beam-reference signal from the plurality of beam-reference signals ; identifying a subset of the plurality of beam-reference signals that are in the same beam group as the preferred beam-reference signal; and transmitting, to the network node , information identifying the subset of the plurality of beam-reference signals.
A container , comprising: a body having a ring comprising a slot and a pin having a pin head ; a closure comprising a lid that is hinged to the ring and moveable from an open position to a closed position; and a tab hinged to the lid ; wherein the tab secures the lid in the closed position according to: (i) a first mechanism wherein the tab engages the slot , or (ii) a second mechanism wherein the tab engages the pin head of the pin , wherein the pin is configured to detach when the tab and lid are returned to the open position. a body having a ring comprising a slot and a pin having a pin head ; a closure comprising a lid that is hinged to the ring and moveable from an open position to a closed position; and a tab hinged to the lid ; wherein the tab secures the lid in the closed position according to: (i) a first mechanism wherein the tab engages the slot , or (ii) a second mechanism wherein the tab engages the pin head of the pin , wherein the pin is configured to detach when the tab and lid are returned to the open position. (i) a first mechanism wherein the tab engages the slot , or (ii) a second mechanism wherein the tab engages the pin head of the pin , wherein the pin is configured to detach when the tab and lid are returned to the open position.
An exhaust system for the protection of an adjacent surface , the exhaust system comprising: an ejector , the ejector including an engine exhaust nozzle with a core exhaust passage having one side closer to the adjacent surface than an other side of the core exhaust passage and providing a core exhaust flow, when in use; an ejector inlet providing a secondary flow, wherein the core exhaust flow has a higher velocity than the secondary flow; an ejector shroud ; an ejector shroud outlet , the ejector shroud outlet being in fluid communication with the atmosphere; an adjacent surface , wherein the adjacent surface partially bounds a region proximate to and downstream of the ejector shroud outlet; and characterized by : a plurality of forced mixing lobes extending from the engine exhaust nozzle within a region spaced apart from the adjacent surface such that the distribution of forced mixing lobes is asymmetric in the cross section of the ejector shroud proximate the ejector shroud outlet, wherein a region of the ejector shroud outlet closest to the adjacent surface is free from the plurality of forced mixing lobes, such that mixing of the secondary flow and the core exhaust flow proximate the one side closer to the adjacent surface is minimized. an ejector , the ejector including an engine exhaust nozzle with a core exhaust passage having one side closer to the adjacent surface than an other side of the core exhaust passage and providing a core exhaust flow, when in use; an ejector inlet providing a secondary flow, wherein the core exhaust flow has a higher velocity than the secondary flow; an ejector shroud ; an ejector shroud outlet , the ejector shroud outlet being in fluid communication with the atmosphere; an adjacent surface , wherein the adjacent surface partially bounds a region proximate to and downstream of the ejector shroud outlet; and characterized by : a plurality of forced mixing lobes extending from the engine exhaust nozzle within a region spaced apart from the adjacent surface such that the distribution of forced mixing lobes is asymmetric in the cross section of the ejector shroud proximate the ejector shroud outlet, wherein a region of the ejector shroud outlet closest to the adjacent surface is free from the plurality of forced mixing lobes, such that mixing of the secondary flow and the core exhaust flow proximate the one side closer to the adjacent surface is minimized.
System comprising a liquid treatment cartridge and a cap for placement on a cartridge head section of the liquid treatment cartridge , wherein the cartridge head section includes at least one liquid inlet port and at least one liquid outlet port , and wherein the cartridge head section is configured for insertion into a head part of a liquid treatment system whilst the cap remains on the cartridge head section , to establish a liquid-tight connection between both the at least one liquid inlet port and the at least one liquid outlet port of the liquid treatment cartridge and corresponding outlet and inlet ports of the head part of the liquid treatment system that enables a stream of liquid to flow from the outlet port of the head part through the liquid inlet port of the cartridge head section into the liquid treatment cartridge and after a treatment of the liquid within the liquid treatment cartridge from the liquid outlet port of the cartridge head section into the inlet port of the head part of the liquid treatment system , wherein the cap comprises at least one port opening that allows for establishing the liquid-tight connection with the at least one liquid inlet port and the at least one liquid outlet port of the cartridge head section without removing the cap from the cartridge head section , and wherein the cap comprises at least one protruding locking part for releasably locking the cartridge head section within the head part of the liquid treatment system . wherein the cartridge head section includes at least one liquid inlet port and at least one liquid outlet port , and wherein the cartridge head section is configured for insertion into a head part of a liquid treatment system whilst the cap remains on the cartridge head section , to establish a liquid-tight connection between both the at least one liquid inlet port and the at least one liquid outlet port of the liquid treatment cartridge and corresponding outlet and inlet ports of the head part of the liquid treatment system that enables a stream of liquid to flow from the outlet port of the head part through the liquid inlet port of the cartridge head section into the liquid treatment cartridge and after a treatment of the liquid within the liquid treatment cartridge from the liquid outlet port of the cartridge head section into the inlet port of the head part of the liquid treatment system , wherein the cap comprises at least one port opening that allows for establishing the liquid-tight connection with the at least one liquid inlet port and the at least one liquid outlet port of the cartridge head section without removing the cap from the cartridge head section , and wherein the cap comprises at least one protruding locking part for releasably locking the cartridge head section within the head part of the liquid treatment system .
A method for transmitting data in the context of a multipath communication from source terminal equipment to destination terminal equipment , characterised in that the method comprises the following steps: - establishing , on at least one path of the multipath communication, a plurality of connections from the source terminal equipment to the destination terminal equipment; - for each path on which a plurality of connections has been established, selecting to make it active at least one connection among said plurality of established connections, the other established connections being put in reserve; and - distributing the data between the selected connections, referred to as active connections, according to at least one predefined distribution rule, and transmitting the distributed data; and, upon detecting a transmission incident via an active connection on a path on which one said plurality of connections has been established: - closing said active connection; and - making active a connection that had been put in reserve on said path. - establishing , on at least one path of the multipath communication, a plurality of connections from the source terminal equipment to the destination terminal equipment; - for each path on which a plurality of connections has been established, selecting to make it active at least one connection among said plurality of established connections, the other established connections being put in reserve; and - distributing the data between the selected connections, referred to as active connections, according to at least one predefined distribution rule, and transmitting the distributed data; - closing said active connection; and - making active a connection that had been put in reserve on said path.
A drive unit comprising: an electric unit , the electric unit including a first electric motor for driving, a deceleration mechanism configured to transmit a rotation torque of the first electric motor to a drive wheel, a second electric motor configured to be driven by an internal combustion engine to generate electric power, and an acceleration mechanism configured to transmit a rotation torque of the internal combustion engine to the second electric motor , wherein the first electric motor , the deceleration mechanism , the second electric motor , and the acceleration mechanism are housed in one housing (H), and in the housing (H), the first electric motor and the second electric motor are arranged in a front-rear direction of a vehicle with their respective rotation shafts parallel, the deceleration mechanism and the acceleration mechanism are arranged in the front-rear direction of the vehicle, the electric unit and the internal combustion engine are connected in a state of being arranged in a left-right direction of the vehicle, a first rotation shaft which is the rotation shaft of the first electric motor and a second rotation shaft which is the rotation shaft of the second electric motor are located on a front side and a rear side in the front-rear direction of the vehicle with a crankshaft rotation axis which is a rotation axis of a crankshaft of the internal combustion engine interposed therebetween, the drive unit being characterized in that when viewed in the left-right direction of the vehicle, the crankshaft rotation axis is located at a midpoint of a motor connecting line (Amg) which is a line connecting the first rotation shaft and the second rotation shaft . the first electric motor , the deceleration mechanism , the second electric motor , and the acceleration mechanism are housed in one housing (H), and in the housing (H), the first electric motor and the second electric motor are arranged in a front-rear direction of a vehicle with their respective rotation shafts parallel, the deceleration mechanism and the acceleration mechanism are arranged in the front-rear direction of the vehicle, the electric unit and the internal combustion engine are connected in a state of being arranged in a left-right direction of the vehicle, a first rotation shaft which is the rotation shaft of the first electric motor and a second rotation shaft which is the rotation shaft of the second electric motor are located on a front side and a rear side in the front-rear direction of the vehicle with a crankshaft rotation axis which is a rotation axis of a crankshaft of the internal combustion engine interposed therebetween, the drive unit being characterized in that when viewed in the left-right direction of the vehicle, the crankshaft rotation axis is located at a midpoint of a motor connecting line (Amg) which is a line connecting the first rotation shaft and the second rotation shaft .
A LTA4H inhibitor for use in the treatment or the prevention of hidradenitis suppurativa in a patient in need of such treatment or prevention, wherein said LTA4H inhibitor is ( S )-3-amino-4-(5-(4-((5-chloro-3-fluoropyridin-2-yl)oxy)phenyl)-2 H- tetrazol-2-yl)butanoic acid, or a pharmaceutically acceptable salt thereof; or a crystalline form of ( S )-3-amino-4-(5-(4-((5-chloro-3-fluoropyridin-2-yl)oxy)phenyl)-2 H -tetrazol-2-yl)butanoic acid in its free form.
Distance measuring device comprising a first magnetic field sensor , wherein the first magnetic field sensor provides a first measurement signal in dependence on the strength of the magnetic field, at least one permanent magnet with a first magnetic pole with a first pole surface and a second magnetic pole with a second pole surface, a semiconductor body with a monolithically integrated evaluating circuit, wherein the evaluating circuit is in electrically operative connection with the first magnetic field sensor and the semiconductor body has a surface formed in the X-Y plane, characterised in that a second magnetic field sensor based on the same physical operating principle as the first magnet field sensor is provided and the second magnetic field sensor provides a second measurement signal in dependence on the strength of the magnetic field and the second magnetic field sensor is in operative connection with the evaluating circuit and the evaluating circuit for suppression of magnetic constant fields determines a difference signal and provides an output signal as a result of the determination, wherein the value of the output signal based on neutralisation of a region free of magnetic flux depends on a spacing of a ferromagnetic transmitter from the two magnetic field sensors and the two magnetic field sensors are connected with the surface of the semiconductor body by friction couple and in order to measure the same component of the magnetic field have the same arrangement, and in order to measure the magnitude of the flux change in the case of a transmitter acting with different strength on the two magnetic field sensors the permanent magnet is magnetised in Z direction, the semiconductor body is arranged between U-shaped pole limbs above the base region of the magnet magnetised in Z direction, one of the two pole surfaces is formed in the X-Y plane and the magnetic field sensors are arranged along one pole surface, wherein the first magnetic field sensor and the second magnetic field sensor are arranged in an area lying between two mutually opposite limbs of the first pole.
A transport device unit for a transport device assembled using a plurality of transport device units , wherein the transport device unit comprises - a base plate module with a base plate for fixing the transport device unit to a support frame, - an actuator module with a plurality of electro-magnetic actuators , which actuator module is supported by the base plate module , and - a driving surface module with a driving surface element , which driving surface element is arranged above the actuator module covering the actuators and adapted to carry sample container carriers, characterized in that the base plate module and the actuator module are provided with cooperating male and female coupling elements (25, 26; 33, 34), wherein the male and female coupling elements (25, 26; 33, 34) assume shapes and/or are arranged for a mechanical coding not having rotational symmetry for ensuring a correct alignment of the base plate module and the actuator module . - a base plate module with a base plate for fixing the transport device unit to a support frame, - an actuator module with a plurality of electro-magnetic actuators , which actuator module is supported by the base plate module , and - a driving surface module with a driving surface element , which driving surface element is arranged above the actuator module covering the actuators and adapted to carry sample container carriers,
An electronic device , comprising a frame , a sliding seat , and a receiver accommodated in the sliding seat; the frame comprising a pair of side walls oppositely disposed and a top wall , the top wall defining an accommodating groove ; and the sliding seat being slidably disposed in the accommodating groove of the frame; the sliding seat defining a first receiving hole (D1), and the receiver being sealed and covering the first receiving hole of the sliding seat, whereby a sound signal of the receiver is transmitted to outside through the first receiving hole when the sliding seat extends from the accommodating groove; characterized in that the accommodating groove extends through the pair of side walls, wherein a length of the accommodating groove along a width direction of the electronic device is equal to a length of the frame along the width direction of the electronic device, and the frame defines a second receiving hole (D2), and the second receiving hole communicates with the first receiving hole when the sliding seat is accommodated in the accommodating groove, whereby the sound signal of the receiver is output to the second receiving hole via the first receiving hole when the sliding seat is accommodated in the accommodating groove, wherein the second receiving hole is a semi-closed hole defined on an edge of the top wall of the frame.