mhurhangee/patent-ind-claim-en huggingface dataset:
A method executed by at least one processor comprising: authenticating a user to a processor-based host , based on a credential, to determine a user authentication status; authenticating the user to a processor-based first service provider based on: (a)(i) the user authenticating status, (a)(ii) a first additional credential that is unequal to the credential, and (a)(iii) a first out-of-band (OOB) communication ; authenticating the user to a processor-based second service provider based on: (b)(i) the user authentication status, (b)(ii) a second additional credential that is unequal to either of the credential or the first additional credential, and (b)(iii) a second OOB communication ; in response to a timed-out session with the first service provider or the second service provider , re-authenticating the user to the first service provider or the second service provider , respectively; without re-authenticating the user to the host . authenticating a user to a processor-based host , based on a credential, to determine a user authentication status; authenticating the user to a processor-based first service provider based on: (a)(i) the user authenticating status, (a)(ii) a first additional credential that is unequal to the credential, and (a)(iii) a first out-of-band (OOB) communication ; authenticating the user to a processor-based second service provider based on: (b)(i) the user authentication status, (b)(ii) a second additional credential that is unequal to either of the credential or the first additional credential, and (b)(iii) a second OOB communication ; in response to a timed-out session with the first service provider or the second service provider , re-authenticating the user to the first service provider or the second service provider , respectively; without re-authenticating the user to the host . (a)(i) the user authenticating status, (a)(ii) a first additional credential that is unequal to the credential, and (a)(iii) a first out-of-band (OOB) communication ; authenticating the user to a processor-based second service provider based on: (b)(i) the user authentication status, (b)(ii) a second additional credential that is unequal to either of the credential or the first additional credential, and (b)(iii) a second OOB communication ; in response to a timed-out session with the first service provider or the second service provider , re-authenticating the user to the first service provider or the second service provider , respectively; without re-authenticating the user to the host .
Sanitary outlet fitting having a water outlet and having a jet regulator , wherein the jet regulator has a jet regulator housing which is releasably inserted into the water outlet and is held therein in frictionally engaging fashion and without a thread, characterized in that the jet regulator is, as viewed in the flow direction, positioned directly downstream of a cross-sectional enlargement in a flow guide of the outlet fitting, in that , at a distance upstream of the jet regulator as viewed in the flow direction, in a partial region of the flow guide which is narrowed in relation to said jet regulator, there is provided a throughflow rate regulator or a throughflow limiter, in that the jet regulator has a distributor surface with a multiplicity of throughflow holes for the distribution of the water jet, and in that the distributor surface has an impingement surface arranged in a central region of the jet cross section and is followed downstream by a plurality of flow-guiding walls which are oriented in the flow direction.
An oil-in-water emulsion cosmetic comprising: (A) 0.05 to 1 % by mass of a hydrophobically modified alkyl cellulose; (B) 5 to 40 % by mass of an oil component; (C) 2.5 to 30 % by mass of an ultraviolet scattering agent having a hydrophobic surface; and (D) a water phase thickener having low salinity tolerance; wherein the (C) ultraviolet scattering agent is dispersed in the oil phase, wherein the (B) oil component comprises polar oil and non-polar oil, and the polar oil has a dielectric constant of about 5 or more and is selected from the group consisting of ester oils and ultraviolet absorbing agents, and the non-polar oil is selected from the group consisting of polydimethylsiloxane, methylphenylpolysiloxane, methyl hydrogen polysiloxane, octamethylcyclotetrasiloxane, decamethylcyclopentasiloxane, dodecamethylcyclohexasiloxane, decane, dodecane, isododecane, isohexadecane, liquid paraffin, squalane, squalene and paraffin, and at least 55 % by mass of the (B) oil component is constituted by a polar oil. (A) 0.05 to 1 % by mass of a hydrophobically modified alkyl cellulose; (B) 5 to 40 % by mass of an oil component; (C) 2.5 to 30 % by mass of an ultraviolet scattering agent having a hydrophobic surface; and (D) a water phase thickener having low salinity tolerance; wherein the (C) ultraviolet scattering agent is dispersed in the oil phase, wherein the (B) oil component comprises polar oil and non-polar oil, and the polar oil has a dielectric constant of about 5 or more and is selected from the group consisting of ester oils and ultraviolet absorbing agents, and the non-polar oil is selected from the group consisting of polydimethylsiloxane, methylphenylpolysiloxane, methyl hydrogen polysiloxane, octamethylcyclotetrasiloxane, decamethylcyclopentasiloxane, dodecamethylcyclohexasiloxane, decane, dodecane, isododecane, isohexadecane, liquid paraffin, squalane, squalene and paraffin, and at least 55 % by mass of the (B) oil component is constituted by a polar oil.
A hydraulic valve , comprising: a valve body ; a bistable valve spool disposed within the valve body and including a first permanent magnet attached to a first spool end of the valve spool and a second permanent magnet attached to a second spool end of the valve spool ; a first solenoid positioned adjacent the first spool end ; a second solenoid positioned adjacent the second spool end ; a first plunger and a first sensor provided in the first solenoid ; and a second plunger and a second sensor provided in the second solenoid ; wherein in a first mode of operation, the first solenoid is energized to have a first polarity that attracts the first permanent magnet , and the second solenoid is energized to have an opposite polarity that repels the second permanent magnet to enable the first and second solenoids to concurrently push and pull the valve spool between a first position and a second position; wherein in the first position, a second magnetic face of the second permanent magnet pushes the second plunger at a second solenoid face of the second solenoid to cause the second sensor to detect the first position of the valve spool ; and wherein in the second position, a first magnetic face of the first permanent magnet pushes the first plunger at a first solenoid face of the first solenoid to cause the first sensor to detect the second position of the valve spool . a valve body ; a bistable valve spool disposed within the valve body and including a first permanent magnet attached to a first spool end of the valve spool and a second permanent magnet attached to a second spool end of the valve spool ; a first solenoid positioned adjacent the first spool end ; a second solenoid positioned adjacent the second spool end ; a first plunger and a first sensor provided in the first solenoid ; and a second plunger and a second sensor provided in the second solenoid ; wherein in a first mode of operation, the first solenoid is energized to have a first polarity that attracts the first permanent magnet , and the second solenoid is energized to have an opposite polarity that repels the second permanent magnet to enable the first and second solenoids to concurrently push and pull the valve spool between a first position and a second position; wherein in the first position, a second magnetic face of the second permanent magnet pushes the second plunger at a second solenoid face of the second solenoid to cause the second sensor to detect the first position of the valve spool ; and wherein in the second position, a first magnetic face of the first permanent magnet pushes the first plunger at a first solenoid face of the first solenoid to cause the first sensor to detect the second position of the valve spool .
A drive device for a dynamo-electric machine, comprising: a plurality of voltage generation devices for outputting arbitrary voltages to a plurality of dynamo-electric machines ; and a control device for adjusting the output voltages of the voltage generation devices , wherein the control device is configured to acquire the temperature of each of the plurality of dynamo-electric machines , to select a relatively highly-efficient dynamo-electric machine from among the plurality of dynamo-electric machines based on each temperature, and to increase a torque command value of the selected dynamo-electric machine relative to the plurality of other dynamo-electric machines ; characterized in that the dynamo-electric machines are permanent magnet synchronous motors , and wherein the control device is configured to select a motor with a relatively low temperature among the plurality of permanent magnet synchronous motors when the torque command value is large, and is configured to select a motor with a relatively high temperature among the plurality of permanent magnet synchronous motors when the torque command value is small. a plurality of voltage generation devices for outputting arbitrary voltages to a plurality of dynamo-electric machines ; and a control device for adjusting the output voltages of the voltage generation devices , wherein the control device is configured to acquire the temperature of each of the plurality of dynamo-electric machines , to select a relatively highly-efficient dynamo-electric machine from among the plurality of dynamo-electric machines based on each temperature, and to increase a torque command value of the selected dynamo-electric machine relative to the plurality of other dynamo-electric machines ; characterized in that the dynamo-electric machines are permanent magnet synchronous motors , and wherein the control device is configured to select a motor with a relatively low temperature among the plurality of permanent magnet synchronous motors when the torque command value is large, and is configured to select a motor with a relatively high temperature among the plurality of permanent magnet synchronous motors when the torque command value is small.
A method for monitoring an aircraft turboshaft engine (M) which comprises a vibration sensor capable of outputting a vibration signal and a spark plug , the method comprising, based on the vibration signal output by the vibration sensor, both determining a level of vibration of the turboshaft engine as well as determining a wear indicator (Tre) of the spark plug, the determination of the wear indicator being realized from a breakdown peaks characterization of the spark plug detected in the vibration signal output by the vibration sensor.
A personal mobility device comprising: a frame ; a plurality of wheels attached to the frame and comprising a first drive wheel ; a first pneumatic motor in operative connection with the first drive wheel , the first pneumatic motor comprising a first forward port and a first rearward port ; at least one tank of pressurized gas comprising an outlet; a regulator in fluid connection with the outlet of the tank of pressurized gas, the regulator decreasing pressure from a pressure of the tank of pressurized gas to a lower pressure, and a control system comprising a manually operated actuator , a first forward control valve having an inlet in fluid connection with the regulator and an outlet in fluid connection with the first forward port , a first rearward control valve having an inlet in fluid connection with the regulator and an outlet in fluid connection with the first rearward port , wherein movement of the manually operated actuator controls actuation of the first forward control valve and the first rearward control valve , wherein actuation of the first forward control valve causes pressurized gas to flow from the regulator into first forward port during forward motion of the first drive wheel and actuation of the first rearward control valve causes pressurized gas to flow from the regulator into first rearward port during rearward motion of the first drive wheel . a frame ; a plurality of wheels attached to the frame and comprising a first drive wheel ; a first pneumatic motor in operative connection with the first drive wheel , the first pneumatic motor comprising a first forward port and a first rearward port ; at least one tank of pressurized gas comprising an outlet; a regulator in fluid connection with the outlet of the tank of pressurized gas, the regulator decreasing pressure from a pressure of the tank of pressurized gas to a lower pressure, and a control system comprising a manually operated actuator , a first forward control valve having an inlet in fluid connection with the regulator and an outlet in fluid connection with the first forward port , a first rearward control valve having an inlet in fluid connection with the regulator and an outlet in fluid connection with the first rearward port , wherein movement of the manually operated actuator controls actuation of the first forward control valve and the first rearward control valve , wherein actuation of the first forward control valve causes pressurized gas to flow from the regulator into first forward port during forward motion of the first drive wheel and actuation of the first rearward control valve causes pressurized gas to flow from the regulator into first rearward port during rearward motion of the first drive wheel .
A control network for a wind turbine system , the wind turbine system comprising multiple rotor-nacelle assemblies mounted on a support structure , the control network is configured as a safety network, and comprising: a respective local network associated with each rotor-nacelle assembly , each local network comprising multiple nodes , wherein a node of each local network is a safety controller , and each local network comprises a node being operated as a slave clock that is synchronised to a master node; a central network that is connected to each local network , the central network comprising multiple nodes , wherein at least one node of the central network is a safety controller , the central network comprises a synchronisation device configured as a master node that sets a network clock for synchronisation. a respective local network associated with each rotor-nacelle assembly , each local network comprising multiple nodes , wherein a node of each local network is a safety controller , and each local network comprises a node being operated as a slave clock that is synchronised to a master node; a central network that is connected to each local network , the central network comprising multiple nodes , wherein at least one node of the central network is a safety controller , the central network comprises a synchronisation device configured as a master node that sets a network clock for synchronisation.
An antenna assembly , comprising: a non-conductive housing having an open end; an antenna element positioned inside the non-conductive housing; an electrical cable having a first end electrically coupled to the antenna element and a second end extending out from the open end of the non-conductive housing; one or more dielectric materials positioned inside the non-conductive housing; and a conductive gasket coupled to a portion of the electrical cable positioned adjacent to the open end and outside the non-conductive housing, wherein the electrical cable is a coaxial cable comprising a non-conductive jacket , an inner shield , and a conductive core , and the inner shield is the portion of the electrical cable coupled to the conductive gasket, and wherein the conductive gasket comprises a central slot sized and shaped to securely fit around and contact the inner shield, and wherein the conductive gasket is thereby configured to seal the inner shield of the electrical cable from radio frequency, RF, interference. a non-conductive housing having an open end; an antenna element positioned inside the non-conductive housing; an electrical cable having a first end electrically coupled to the antenna element and a second end extending out from the open end of the non-conductive housing; one or more dielectric materials positioned inside the non-conductive housing; and a conductive gasket coupled to a portion of the electrical cable positioned adjacent to the open end and outside the non-conductive housing, wherein the electrical cable is a coaxial cable comprising a non-conductive jacket , an inner shield , and a conductive core , and the inner shield is the portion of the electrical cable coupled to the conductive gasket, and wherein the conductive gasket comprises a central slot sized and shaped to securely fit around and contact the inner shield, and wherein the conductive gasket is thereby configured to seal the inner shield of the electrical cable from radio frequency, RF, interference.
Procedure to produce the locking parts catch and pawl of a motor vehicle latch , whereby - catch and pawl are stamped out resulting in vertical or virtually vertical edges with corresponding latch surfaces for the catch and pawl and are then equipped with a casing , with the latch surfaces being kept free; - after stamping of the locking parts the edge surface of one of the locking parts is processed in the latch area with a tool which produces oblique contours ; - as a result of stamping straight stamping grooves are moulded into the latch surface of the other locking part ; - grooves and/or milling grooves are entered into the locking part latch area as an oblique contour which in contrast to the straight stamping grooves is moulded at an angle into the latch surface of the locking part ; - the angle is 5 to 15°. - catch and pawl are stamped out resulting in vertical or virtually vertical edges with corresponding latch surfaces for the catch and pawl and are then equipped with a casing , with the latch surfaces being kept free; - after stamping of the locking parts the edge surface of one of the locking parts is processed in the latch area with a tool which produces oblique contours ; - as a result of stamping straight stamping grooves are moulded into the latch surface of the other locking part ; - grooves and/or milling grooves are entered into the locking part latch area as an oblique contour which in contrast to the straight stamping grooves is moulded at an angle into the latch surface of the locking part ; - the angle is 5 to 15°.
Method for predicting a fuel quality of a fuel , which is supplied in gaseous form to an internal combustion engine , at a future time or determining the development of the fuel quality of the fuel remaining in a pressure vessel over time, wherein the fuel is an at least partially liquefied fuel stored in the pressure vessel , wherein, when a limit pressure is reached, the pressure vessel is depressurized to an environment via a safety device by way of a gaseous component of the fuel being removed from the pressure vessel ; wherein the method comprises at least the following step: (a) determining the fuel quality of the fuel stored in the pressure vessel , taking into account at least one ongoing discharge of a gaseous component of the fuel via the safety device , wherein a forecast relating to a quantity of the gaseous component of the fuel to be discharged via the safety device at a future time is taken into account. (a) determining the fuel quality of the fuel stored in the pressure vessel , taking into account at least one ongoing discharge of a gaseous component of the fuel via the safety device , wherein a forecast relating to a quantity of the gaseous component of the fuel to be discharged via the safety device at a future time is taken into account.
A security key change method, comprising: receiving , by user equipment, UE, a key change command message from a master eNodeB, MeNB, wherein the key change command message comprises indication information that a security key change be performed between the UE and a secondary eNodeB, SeNB, wherein the UE is configured with a dual connectivity between the MeNB and the SeNB; performing , by the UE according to the key change command message, the security key change between the UE and the SeNB; determining , by the UE according to the key change command message, whether to keep access stratum configuration information between the UE and the SeNB; and sending , by the UE, a key change complete message to the MeNB; wherein the access stratum configuration information between the UE and the SeNB comprises at least one of the following: Packet Data Convergence Protocol, PDCP, configuration information between the UE and the SeNB; Radio Link Control, RLC, configuration information between the UE and the SeNB; Medium Access Control, MAC configuration information between the UE and the SeNB; an active state of an activated secondary cell, SCell, between the UE and the SeNB; a cell radio network temporary identifier, C-RNTI, used for communication between the UE and the SeNB. receiving , by user equipment, UE, a key change command message from a master eNodeB, MeNB, wherein the key change command message comprises indication information that a security key change be performed between the UE and a secondary eNodeB, SeNB, wherein the UE is configured with a dual connectivity between the MeNB and the SeNB; performing , by the UE according to the key change command message, the security key change between the UE and the SeNB; determining , by the UE according to the key change command message, whether to keep access stratum configuration information between the UE and the SeNB; and sending , by the UE, a key change complete message to the MeNB; wherein the access stratum configuration information between the UE and the SeNB comprises at least one of the following: Packet Data Convergence Protocol, PDCP, configuration information between the UE and the SeNB; Radio Link Control, RLC, configuration information between the UE and the SeNB; Medium Access Control, MAC configuration information between the UE and the SeNB; an active state of an activated secondary cell, SCell, between the UE and the SeNB; a cell radio network temporary identifier, C-RNTI, used for communication between the UE and the SeNB. Packet Data Convergence Protocol, PDCP, configuration information between the UE and the SeNB; Radio Link Control, RLC, configuration information between the UE and the SeNB; Medium Access Control, MAC configuration information between the UE and the SeNB; an active state of an activated secondary cell, SCell, between the UE and the SeNB; a cell radio network temporary identifier, C-RNTI, used for communication between the UE and the SeNB.
System for hot forging wire and arc additive manufacturing comprising an additive manufacturing device and a controllable forging treatment tool embedded in the additive manufacturing device, - the additive manufacturing device comprising, a main conductor , a welding tip surrounded by a welding tip shell (6.1), a material conveyor where the wire , in use, travels through from the wire feeder through the main conductor to the welding tip , - the controllable forging treatment tool comprising a hammer at least one actuator (3.1), that transmits movement to the hammer through a connector that connects the actuator (3.1) to the hammer , wherein the hammer surrounds the welding tip , configured to perform a local viscoplastic deformation of the layers already deposited as the material is being deposited. - the additive manufacturing device comprising, a main conductor , a welding tip surrounded by a welding tip shell (6.1), a material conveyor where the wire , in use, travels through from the wire feeder through the main conductor to the welding tip , - the controllable forging treatment tool comprising a hammer at least one actuator (3.1), that transmits movement to the hammer through a connector that connects the actuator (3.1) to the hammer ,