mhurhangee/patent-ind-claim-en huggingface dataset:
Actuator for process valves with a displacement measuring system comprising a housing , comprising two housing parts and an actuating diaphragm member sealingly mounted between said housing parts and adapted to move up and down which, on the one hand, together with the housing forms a working chamber that can be pressurized, and, on the other hand, is loaded by at least one return spring such that, in the unpressurized state, said actuating diaphragm member is brought into a predefined position by means of the spring bias of the return spring , wherein the actuating diaphragm member is adapted to be connected to a valve shaft connected to the valve body of the process valve , wherein a coupling device is provided having coupling parts arranged on both sides in the stroke direction of the actuating diaphragm member , which coupling parts are adapted to a connection on the valve shaft in such a way that the connection of the valve shaft to the actuating diaphragm member is obtained by means of a one-sided mounting, wherein the valve shaft is adapted to be selectively connected to either of the coupling parts of the coupling device , characterized in that the displacement measuring system is arranged on the actuator , which displacement measuring system comprises a connection that is adapted to be connected to either of the coupling parts of the coupling device by means of a one-sided mounting, wherein the coupling parts are designed to match the respective connections for selectively securing the valve shaft or the displacement measuring system to the coupling device .
A method for facilitating synchronization in a network, comprising, at a network node: receiving (S510) synchronization signals from one or more neighboring network nodes; determining (S520) whether the one or more neighboring network nodes have reached a synchronized state based on the synchronization signals; determining (S540) whether a difference between a current synchronization value of the network node and an average of synchronization values of the one or more neighboring network nodes exceeds a threshold, the synchronization values being estimated based on the synchronization signals; obtaining (S440) an updated synchronization value of the network node based on the synchronization values of the one or more neighboring network nodes, regardless of the current synchronization value, when it is determined that the one or more neighboring network nodes have reached the synchronized state and the difference exceeds the threshold; and characterized by setting (S530) a transmission period at which the network node transmits synchronization signals to a first period when it is determined that the one or more neighboring network nodes have not reached the synchronized state; and setting (S550) the transmission period to a second period longer than the first period when it is determined that the one or more neighboring network nodes have reached the synchronized state and that the difference does not exceed the threshold. receiving (S510) synchronization signals from one or more neighboring network nodes; determining (S520) whether the one or more neighboring network nodes have reached a synchronized state based on the synchronization signals; determining (S540) whether a difference between a current synchronization value of the network node and an average of synchronization values of the one or more neighboring network nodes exceeds a threshold, the synchronization values being estimated based on the synchronization signals; obtaining (S440) an updated synchronization value of the network node based on the synchronization values of the one or more neighboring network nodes, regardless of the current synchronization value, when it is determined that the one or more neighboring network nodes have reached the synchronized state and the difference exceeds the threshold; and characterized by setting (S530) a transmission period at which the network node transmits synchronization signals to a first period when it is determined that the one or more neighboring network nodes have not reached the synchronized state; and setting (S550) the transmission period to a second period longer than the first period when it is determined that the one or more neighboring network nodes have reached the synchronized state and that the difference does not exceed the threshold.
Probe carrier arrangement, especially for an exhaust system of an internal combustion engine, comprising a probe socket (14; 14a) provided at a probe carrier body (12; 12a) with at least one insert-receiving opening (24; 24a) extending in the direction of an insert-receiving opening longitudinal axis (E) and a probe carrier insert (28; 28a) arranged in the insert-receiving opening (24; 24a) with at least one probe-receiving opening (36; 36a) extending in the direction of a probe-receiving opening longitudinal axis (S), wherein an internal thread (38; 38a) is provided at an inner circumference of the probe-receiving opening (36; 36a) and a probe support surface (44; 44a) enclosing the insert-receiving opening (24; 24a) is formed at the probe socket (14; 14a) at an axial end (46; 46a) located at a distance from the probe carrier body (12; 12a), characterized in that the probe carrier insert (28; 28a) at an axial end (34; 34a) remote from the probe carrier body (12; 12a) does not axially protrude over the insert-receiving opening (24; 24a) formed in the probe socket (14; 14a).
An ethylene/1-butene copolymer having a melt flow rate ratio (MFR 21.6 /MFR 2.16 ) of 30 to 60, as measured at 190°C in accordance with ASTM D1238, a molecular weight distribution (Mw/Mn, PDI) of 8 to 20, a BOCD (Broad Orthogonal Co-monomer Distribution) index of 1 to 2, measured in accordance with the calculation method provided in the description and stress cracking resistance of 1,000 hr to 20,000 hr, as measured by a full notch creep test (FNCT) in accordance with ISO 16770 at 4.0 MPa and 80°C. a molecular weight distribution (Mw/Mn, PDI) of 8 to 20, a BOCD (Broad Orthogonal Co-monomer Distribution) index of 1 to 2, measured in accordance with the calculation method provided in the description and stress cracking resistance of 1,000 hr to 20,000 hr, as measured by a full notch creep test (FNCT) in accordance with ISO 16770 at 4.0 MPa and 80°C.
A method performed by a processor of a portable electronic device having an accelerometer , the method comprising: with the processor , acquiring a sensor reading from the accelerometer , the sensor reading containing data of a proper acceleration vector in two or three dimensions of the portable electronic device ; calibrating the sensor reading based on a current value of gravitational acceleration of the portable electronic device to obtain a net acceleration; determining a position change of the portable electronic device based on the acquired sensor reading by integrating the net acceleration to obtain a velocity and subsequently integrating the obtained velocity with an exponential decay function to obtain a position change vector; and transmitting the determined position change as a user input signal to a computer , the user input signal being used by the computer to control a cursor position on a display of the computer . acquiring a sensor reading from the accelerometer , the sensor reading containing data of a proper acceleration vector in two or three dimensions of the portable electronic device ; calibrating the sensor reading based on a current value of gravitational acceleration of the portable electronic device to obtain a net acceleration; determining a position change of the portable electronic device based on the acquired sensor reading by integrating the net acceleration to obtain a velocity and subsequently integrating the obtained velocity with an exponential decay function to obtain a position change vector; and transmitting the determined position change as a user input signal to a computer , the user input signal being used by the computer to control a cursor position on a display of the computer .
A pressure regulator comprising a main body inside which there is defined at least one chamber , an inlet opening for introducing into the at least one chamber gas at high pressure and an outlet opening for discharging gas at a reduced pressure, means for reducing the pressure of the gas and a safety device comprising a closure member which is capable of intercepting the inlet opening in the event of excess pressures inside the at least one chamber so as to prevent the flow of gas inside the at least one chamber and a reactivation assembly which is configured to reactivate the safety device into an operating condition such that the flow of gas is again allowed inside the at least one chamber , wherein the reactivation assembly comprises a rotatable actuator which is configured so as to urge the closure member in an opening direction of the inlet opening following a rotation thereof about a respective rotation axis (X), wherein the rotatable actuator comprises a cam which is configured so as to abut the closure member following the rotation of the rotatable actuator , characterized in that the cam defines a peripheral surface which includes a concave portion and a convex portion .
A method comprising: detecting, by an apparatus, a short-range wireless connection with a mobile device via a wireless interface of the apparatus; causing, at least in part, by the apparatus, retrieval of at least one unique hardware identifier associated with the mobile device ; causing, at least in part, by the apparatus, transmission of a request for a service status of the mobile device, the request specifying the unique hardware identifier to a service platform; receiving, by the apparatus, a service status of the mobile device derived from the service platform; determining, by the apparatus, whether the mobile device is eligible for a service based on the service status; causing at least in part, by the apparatus, an initiation of a presentation by the apparatus of an activation menu for the service based on the eligibility determination; causing at least in part, by the apparatus, a determining whether user information is available in the mobile device ; causing at least in part, by the apparatus, a retrieving the available user information from the mobile device ; and causing at least in part, by the apparatus, a determining to fill the activation menu based on the retrieved user information. detecting, by an apparatus, a short-range wireless connection with a mobile device via a wireless interface of the apparatus; causing, at least in part, by the apparatus, retrieval of at least one unique hardware identifier associated with the mobile device ; causing, at least in part, by the apparatus, transmission of a request for a service status of the mobile device, the request specifying the unique hardware identifier to a service platform; receiving, by the apparatus, a service status of the mobile device derived from the service platform; determining, by the apparatus, whether the mobile device is eligible for a service based on the service status; causing at least in part, by the apparatus, an initiation of a presentation by the apparatus of an activation menu for the service based on the eligibility determination; causing at least in part, by the apparatus, a determining whether user information is available in the mobile device ; causing at least in part, by the apparatus, a retrieving the available user information from the mobile device ; and causing at least in part, by the apparatus, a determining to fill the activation menu based on the retrieved user information.
A heat-insulating sheet for a battery pack, the heat-insulating sheet configured for being interposed between battery cells of the battery pack in which the battery cells are connected in series or in parallel, wherein the heat-insulating sheet for the battery pack contains a first particle made from a silica nanoparticle and a second particle made from a metal oxide, wherein the first particle has an average particle diameter of 1 nm or more and 100 nm or less, wherein average particle diameter is determined by observing particles by means of a microscope, comparing them to a standard scale, and taking the average of 10 arbitrary particles, and wherein a content of the first particle is 60 mass% or more and 90 mass% or less relative to a total mass of the first particle and the second particle. wherein the heat-insulating sheet for the battery pack contains a first particle made from a silica nanoparticle and a second particle made from a metal oxide, wherein the first particle has an average particle diameter of 1 nm or more and 100 nm or less, wherein average particle diameter is determined by observing particles by means of a microscope, comparing them to a standard scale, and taking the average of 10 arbitrary particles, and wherein a content of the first particle is 60 mass% or more and 90 mass% or less relative to a total mass of the first particle and the second particle.
Movable aircraft staircase for boarding and disembarking from an aircraft, with a navigation device, by means of which the aircraft staircase can be positioned and aligned at an aircraft door or aircraft hatch to the exact height required, characterised by two distance measuring devices , which are arranged in a left and right region of the top step of the stair case and are provided to measure each a distance to the aircraft, and a processor-controlled data processing system , which is designed to determine an angle of the aircraft staircase to the object from a comparison of the measured distances of the distance measuring devices.
A terminal comprising: a transmitting section configured to transmit capability information including at least one of: a first Radio Resource Control, RRC, parameter indicating whether or not to support a full power transmission, a second RRC parameter indicating whether or not to support a full power transmission mode 1, in which all antenna ports are used for full power transmission, and a third RRC parameter indicating whether or not to support a full power transmission mode 2, in which part of the antenna ports is used for full power transmission; and a control section configured to control a transmission of an uplink shared channel using at least one of the full power transmission, the full power transmission mode 1, and the full power transmission mode 2, characterized in that when the full power transmission mode 1 or the full power transmission mode 2 is supported, then the transmitting section transmits, instead of the first RRC parameter, capability information including: the second RRC parameter corresponding to the full power transmission mode 1 that is supported, or the third RRC parameter corresponding to the full power transmission mode 2 that is supported. a transmitting section configured to transmit capability information including at least one of: a first Radio Resource Control, RRC, parameter indicating whether or not to support a full power transmission, a second RRC parameter indicating whether or not to support a full power transmission mode 1, in which all antenna ports are used for full power transmission, and a third RRC parameter indicating whether or not to support a full power transmission mode 2, in which part of the antenna ports is used for full power transmission; and a first Radio Resource Control, RRC, parameter indicating whether or not to support a full power transmission, a second RRC parameter indicating whether or not to support a full power transmission mode 1, in which all antenna ports are used for full power transmission, and a third RRC parameter indicating whether or not to support a full power transmission mode 2, in which part of the antenna ports is used for full power transmission; and a control section configured to control a transmission of an uplink shared channel using at least one of the full power transmission, the full power transmission mode 1, and the full power transmission mode 2, characterized in that when the full power transmission mode 1 or the full power transmission mode 2 is supported, then the transmitting section transmits, instead of the first RRC parameter, capability information including: the second RRC parameter corresponding to the full power transmission mode 1 that is supported, or the third RRC parameter corresponding to the full power transmission mode 2 that is supported. the second RRC parameter corresponding to the full power transmission mode 1 that is supported, or the third RRC parameter corresponding to the full power transmission mode 2 that is supported.
A terminal comprising: a control section configured to control reception of a synchronization signal block, SSB, and a channel state information reference signal, CSI-RS, that are allocated to a same time resource, based on a quasi-colocation, QCL, relationship of the SSB and the CSI-RS, and subcarrier spacing of the SSB and subcarrier spacing of the CSI-RS; characterized in that when the SSB and the CSI-RS are in separate cells subjected to carrier aggregation and the SSB and the CSI-RS are not of QCL type D, the control section further is configured to control to receive either of the SSB and the CSI-RS based on usage of the SSB and usage of the CSI-RS. a control section configured to control reception of a synchronization signal block, SSB, and a channel state information reference signal, CSI-RS, that are allocated to a same time resource, based on a quasi-colocation, QCL, relationship of the SSB and the CSI-RS, and subcarrier spacing of the SSB and subcarrier spacing of the CSI-RS; characterized in that when the SSB and the CSI-RS are in separate cells subjected to carrier aggregation and the SSB and the CSI-RS are not of QCL type D, the control section further is configured to control to receive either of the SSB and the CSI-RS based on usage of the SSB and usage of the CSI-RS.
A liquid dispensing device, comprising: a pressure chamber (660; 4970) and a dispensing head; said pressure chamber (660; 4970) comprising a pressure spring and a pressure piston (670; 4980; 6325); and said dispensing head comprising: a piston (630; 4940; 6313) and a piston chamber (17; 617; 4917; 6317), a first outlet channel in fluid communication with the pressure chamber (660; 4970); a piston chamber outlet valve (650; 4960; 6319) provided between said first outlet channel and said piston chamber (17; 617; 4917; 6317); an outlet valve (610; 4920; 6305); and a second outlet channel between said outlet valve (610; 4920; 6305) and an orifice (620; 6307), characterized in that the outlet valve (610; 4920; 6305) is a dome valve. a pressure chamber (660; 4970) and a dispensing head; said pressure chamber (660; 4970) comprising a pressure spring and a pressure piston (670; 4980; 6325); and said dispensing head comprising: a piston (630; 4940; 6313) and a piston chamber (17; 617; 4917; 6317), a first outlet channel in fluid communication with the pressure chamber (660; 4970); a piston chamber outlet valve (650; 4960; 6319) provided between said first outlet channel and said piston chamber (17; 617; 4917; 6317); an outlet valve (610; 4920; 6305); and a second outlet channel between said outlet valve (610; 4920; 6305) and an orifice (620; 6307), a piston (630; 4940; 6313) and a piston chamber (17; 617; 4917; 6317), a first outlet channel in fluid communication with the pressure chamber (660; 4970); a piston chamber outlet valve (650; 4960; 6319) provided between said first outlet channel and said piston chamber (17; 617; 4917; 6317); an outlet valve (610; 4920; 6305); and a second outlet channel between said outlet valve (610; 4920; 6305) and an orifice (620; 6307), characterized in that the outlet valve (610; 4920; 6305) is a dome valve.
A cellular communication apparatus comprising: antenna circuitry ; a transceiver to receive or transmit a signal using the antenna circuitry on a chosen channel of a portion of a radio spectrum, wherein the portion of the radio spectrum is divided into one or more channels, including the chosen channel, each occupying a bandwidth of the portion of the radio spectrum; control circuitry to dynamically change a configuration of the one or more channels of the radio spectrum; and communication circuitry to communicate the configuration of the one or more channels of the radio spectrum to one or more items of user equipment, wherein the control circuitry is adapted to dynamically change the configuration of the one or more channels of the radio spectrum in response to unsolicited interference. antenna circuitry ; a transceiver to receive or transmit a signal using the antenna circuitry on a chosen channel of a portion of a radio spectrum, wherein the portion of the radio spectrum is divided into one or more channels, including the chosen channel, each occupying a bandwidth of the portion of the radio spectrum; control circuitry to dynamically change a configuration of the one or more channels of the radio spectrum; and communication circuitry to communicate the configuration of the one or more channels of the radio spectrum to one or more items of user equipment, wherein the control circuitry is adapted to dynamically change the configuration of the one or more channels of the radio spectrum in response to unsolicited interference.
A method comprising: generating a transformed downlink signal by performing a frequency transform on a downlink signal, wherein the transformed downlink signal represents the downlink signal in a frequency domain; determining that at least one sub-band of the transformed downlink signal includes data to be transmitted via a distributed antenna system ; extracting the at least one sub-band from the transformed downlink signal for transmission via the distributed antenna system , wherein the extracting comprises: determining that at least one additional sub-band lacks data to be transmitted via the distributed antenna system; and modifying the transformed downlink signal to exclude the at least one additional sub-band. generating a transformed downlink signal by performing a frequency transform on a downlink signal, wherein the transformed downlink signal represents the downlink signal in a frequency domain; determining that at least one sub-band of the transformed downlink signal includes data to be transmitted via a distributed antenna system ; extracting the at least one sub-band from the transformed downlink signal for transmission via the distributed antenna system , wherein the extracting comprises: determining that at least one additional sub-band lacks data to be transmitted via the distributed antenna system; and modifying the transformed downlink signal to exclude the at least one additional sub-band. determining that at least one additional sub-band lacks data to be transmitted via the distributed antenna system; and modifying the transformed downlink signal to exclude the at least one additional sub-band.