mhurhangee/patent-ind-claim-en huggingface dataset:
Driver brake valve for a compressed air brake system of a utility vehicle , the driver brake valve being controllable by a brake pedal and being provided for outputting an analog driver brake pressure (p1) and an electrical sensor data signal (S1) on the basis of the actuation of the brake pedal , the driver brake valve having a compressed air inlet for connection to a system pressure (p0), a compressed air outlet for connecting a brake control line , and a sensor for determining an actuation of the brake pedal , characterized in that - the brake valve has a characteristic curve storage device having stored characteristic curve data (KL) and a determination device , - the sensor is designed to generate an actuation signal (S5) on the basis of the actuation of the brake pedal , - the determination device is designed to generate the sensor data signal (S1) from the actuation signal (S5) on the basis of the characteristic curve data (KL) stored in the characteristic curve memory , and - the stored characteristic curve data (KL, P-SW) and/or the sensor data signal (S1) comprise a non-linear relationship between a controlled driver brake pressure (p1) and/or a signal value (t_PWM) and an adjustment path (sw) of the brake pedal . the driver brake valve being controllable by a brake pedal and being provided for outputting an analog driver brake pressure (p1) and an electrical sensor data signal (S1) on the basis of the actuation of the brake pedal , the driver brake valve having a compressed air inlet for connection to a system pressure (p0), a compressed air outlet for connecting a brake control line , and a sensor for determining an actuation of the brake pedal , characterized in that - the brake valve has a characteristic curve storage device having stored characteristic curve data (KL) and a determination device , - the sensor is designed to generate an actuation signal (S5) on the basis of the actuation of the brake pedal , - the determination device is designed to generate the sensor data signal (S1) from the actuation signal (S5) on the basis of the characteristic curve data (KL) stored in the characteristic curve memory , and - the stored characteristic curve data (KL, P-SW) and/or the sensor data signal (S1) comprise a non-linear relationship between a controlled driver brake pressure (p1) and/or a signal value (t_PWM) and an adjustment path (sw) of the brake pedal . - the brake valve has a characteristic curve storage device having stored characteristic curve data (KL) and a determination device , - the sensor is designed to generate an actuation signal (S5) on the basis of the actuation of the brake pedal , - the determination device is designed to generate the sensor data signal (S1) from the actuation signal (S5) on the basis of the characteristic curve data (KL) stored in the characteristic curve memory , and - the stored characteristic curve data (KL, P-SW) and/or the sensor data signal (S1) comprise a non-linear relationship between a controlled driver brake pressure (p1) and/or a signal value (t_PWM) and an adjustment path (sw) of the brake pedal .
Formwork element as lost formwork for a building ceiling, comprising - a ceiling plate , - a top plate , - a support arrangement , and - a number of connectors , - wherein the support arrangement is arranged between the ceiling plate and the top plate to keep the top plate at a distance from the ceiling plate and to introduce forces of an as yet unset in-situ concrete layer to be applied over the top plate from the top plate into the ceiling plate , - wherein the ceiling plate is designed to be statically effective to absorb the forces introduced by the support arrangement in a non-destructive manner when the ceiling plate rests on a number of support elements, and - wherein the connectors connect the ceiling plate to the top plate so that the ceiling plate is a ceiling suspended from the top plate after removal of the support elements, characterised in that a number of pipes and/or installation elements are installed in the ceiling plate . - a ceiling plate , - a top plate , - a support arrangement , and - a number of connectors , - wherein the support arrangement is arranged between the ceiling plate and the top plate to keep the top plate at a distance from the ceiling plate and to introduce forces of an as yet unset in-situ concrete layer to be applied over the top plate from the top plate into the ceiling plate , - wherein the ceiling plate is designed to be statically effective to absorb the forces introduced by the support arrangement in a non-destructive manner when the ceiling plate rests on a number of support elements, and - wherein the connectors connect the ceiling plate to the top plate so that the ceiling plate is a ceiling suspended from the top plate after removal of the support elements,
An adjusting system for arranging tower sectors , the adjusting system comprising: - a horizontal guiding member , - a first supporting member (3.1) and a second supporting member (3.2), being arranged in a line and at least one of the supporting members being movably arranged on the guiding member , wherein the supporting members are designed to mount a mounting structure or shaped as a mounting structure , adapted to be releasable connected to face flanges of a tower sector and to support the connected tower sector , - a shifting mechanism comprising a stator and an actor , with the stator connected with the first supporting member (3.1) and the actor connected with the second supporting member (3.2), the shifting mechanism designed to move the supporting members in order to change the relative distance between the supporting members on the guiding member , wherein the actor of the shifting mechanism is connected to the second supporting member (3.2) with a rod, a bar, a chain or a cable and/or wherein the shifting mechanism comprises a hydraulic cylinder adapted for a lateral forced motion. - a horizontal guiding member , - a first supporting member (3.1) and a second supporting member (3.2), being arranged in a line and at least one of the supporting members being movably arranged on the guiding member , wherein the supporting members are designed to mount a mounting structure or shaped as a mounting structure , adapted to be releasable connected to face flanges of a tower sector and to support the connected tower sector , - a shifting mechanism comprising a stator and an actor , with the stator connected with the first supporting member (3.1) and the actor connected with the second supporting member (3.2), the shifting mechanism designed to move the supporting members in order to change the relative distance between the supporting members on the guiding member ,
An oxytocin receptor agonist for use in the treatment or prevention of dysphagia in a subject of at least one year old and suffering from a neurodevelopmental disorder.
Asynchronous machine , in particular for the use in electric vehicles or hybrid vehicles, comprising a rotor and a stator that surrounds the rotor , wherein an external stator yoke having a stator yoke height (h21) is configured on the stator , wherein the stator yoke height (h21) is the dimension of the stator yoke in the radial direction (r), and a multiplicity of radially inward-protruding stator teeth of identical length are configured on the stator yoke , wherein one stator groove is in each case configured between neighbouring stator teeth , wherein an internal rotor yoke is configured on the rotor , and a multiplicity of rotor teeth of identical length that protrude radially outward from the rotor yoke are configured, wherein one rotor groove is in each case configured between neighbouring rotor teeth , wherein the asynchronous machine is embodied with six phases; wherein a stator groove total number (N1) which refers to the total number of stator grooves configured on the stator is seventy-two, characterized in that the quotient of the stator yoke height (h21) and a stator hole number (q1) is between 3.5 millimetres and 4.5 millimetres, wherein the stator hole number (q1) refers to the number of stator grooves per pole and phase of the asynchronous machine .
Energy absorption device for a circuit breaker, in particular a solid-state or a hybrid circuit breaker, the energy absorption device being configured to convert energy into heat energy and comprising an energy absorber arranged within an enclosure and a two-phase cooling arrangement with one or more fluid distribution units configured to direct a cooling fluid in a liquid state toward the energy absorber , the energy absorber being cooled due to evaporation of the cooling fluid.
A method for validating a visitor location register, VLR, using a signaling system no. 7, SS7, signal transfer point, STP, the method comprising: maintaining a VLR validation database accessible by an SS7 STP ; receiving , by the STP, a mobile application part, MAP, send authentication information, SAI, request message; determining , by the STP, that the MAP SAI request message includes a VLR identifier not recorded in the VLR validation database accessible by the STP; recording the VLR identifier in the VLR validation database accessible by the STP; receiving , at the STP, a first MAP location update, LU, request message and detecting a VLR identifier in the first MAP LU request message; determining that the VLR identifier read from the first MAP LU request message does not match the VLR identifier recorded for a subscriber in the VLR validation database accessible by the STP; and in response to determining that the VLR identifier does not match the VLR identifier recorded for the subscriber in the VLR validation database accessible by the STP, rejecting the first MAP LU request message. maintaining a VLR validation database accessible by an SS7 STP ; receiving , by the STP, a mobile application part, MAP, send authentication information, SAI, request message; determining , by the STP, that the MAP SAI request message includes a VLR identifier not recorded in the VLR validation database accessible by the STP; recording the VLR identifier in the VLR validation database accessible by the STP; receiving , at the STP, a first MAP location update, LU, request message and detecting a VLR identifier in the first MAP LU request message; determining that the VLR identifier read from the first MAP LU request message does not match the VLR identifier recorded for a subscriber in the VLR validation database accessible by the STP; and in response to determining that the VLR identifier does not match the VLR identifier recorded for the subscriber in the VLR validation database accessible by the STP, rejecting the first MAP LU request message.
A combustion system for a turbine engine comprising: a primary fuel injection system for injecting a fuel ; a combustion basket located downstream of the primary fuel injection system , wherein the primary fuel injection system injects the fuel into the combustion basket creating a primary combustion zone ; a transition system located downstream of the primary combustion zone , wherein a portion of the transition system surrounds the combustion basket ; and a secondary fuel injection system located downstream of the primary fuel injection system , wherein the secondary fuel injection system comprises an air scoop ; wherein the secondary fuel injection system injects the fuel downstream from where the primary fuel injection system injected the fuel and upstream of an exit from the transition system , wherein the injection of the fuel by the secondary fuel injection system creates a secondary combustion zone , wherein the fuel is not mixed with water, wherein an inlet of the air scoop is circular ; characterized in that an outlet of the air scoop is rectangular. a primary fuel injection system for injecting a fuel ; a combustion basket located downstream of the primary fuel injection system , wherein the primary fuel injection system injects the fuel into the combustion basket creating a primary combustion zone ; a transition system located downstream of the primary combustion zone , wherein a portion of the transition system surrounds the combustion basket ; and a secondary fuel injection system located downstream of the primary fuel injection system , wherein the secondary fuel injection system comprises an air scoop ; wherein the secondary fuel injection system injects the fuel downstream from where the primary fuel injection system injected the fuel and upstream of an exit from the transition system , wherein the injection of the fuel by the secondary fuel injection system creates a secondary combustion zone , wherein the fuel is not mixed with water, wherein an inlet of the air scoop is circular ; characterized in that an outlet of the air scoop is rectangular.
A light emitting device comprising: a plurality of light emitting elements (150a-150d), and a pre-formed wavelength conversion element (560a, 560c-560e) that is attached to a light emitting surface (155a-155d) of each of the plurality of light emitting elements, wherein the pre-formed wavelength conversion element includes at least one reflective surface that is neither orthogonal nor parallel to a light extraction surface of the preformed wavelength conversion element at a location between at least two of the plurality of light emitting elements, wherein the at least one reflective surface is specularly reflective, and characterised in that the at least one reflective surface is formed by a reflective coating on a surface of the wavelength conversion element (560a, 560c-560e). a plurality of light emitting elements (150a-150d), and a pre-formed wavelength conversion element (560a, 560c-560e) that is attached to a light emitting surface (155a-155d) of each of the plurality of light emitting elements, wherein the pre-formed wavelength conversion element includes at least one reflective surface that is neither orthogonal nor parallel to a light extraction surface of the preformed wavelength conversion element at a location between at least two of the plurality of light emitting elements, wherein the at least one reflective surface is specularly reflective, and characterised in that the at least one reflective surface is formed by a reflective coating on a surface of the wavelength conversion element (560a, 560c-560e).
A surface wellhead assembly with a flow control module comprising: a flow-through component configured to be fluidly coupled to a wellhead , tubing spool or tree , the flow-through component comprising an annular passage disposed about a central flow-through bore , wherein the annular passage is transverse to the central flow-through bore , and wherein the central flow-through bore is downstream of the annular passage ; a first 90-degree elbow fluidly coupled to the flow-through component ; a multi-phase flow meter fluidly coupled to the first 90-degree elbow and disposed downstream of the first 90-degree elbow ; a second 90-degree elbow fluidly coupled to the multi-phase flow meter and disposed downstream of the multi-phase flow meter ; a monitor fluidly coupled to the second 90-degree elbow ; and a choke fluidly coupled to the second 90-degree elbow and disposed downstream of the second 90-degree elbow , wherein, the central flow-through bore is downstream of the choke , characterized in that the flow-through component comprises an entry bore extending from a first inlet to the annular passage , and an exit bore extending from the annular passage to a first outlet , wherein the entry bore and exit bore are aligned with one another with respect to an axis extending through the central flow-through bore . a flow-through component configured to be fluidly coupled to a wellhead , tubing spool or tree , the flow-through component comprising an annular passage disposed about a central flow-through bore , wherein the annular passage is transverse to the central flow-through bore , and wherein the central flow-through bore is downstream of the annular passage ; a first 90-degree elbow fluidly coupled to the flow-through component ; a multi-phase flow meter fluidly coupled to the first 90-degree elbow and disposed downstream of the first 90-degree elbow ; a second 90-degree elbow fluidly coupled to the multi-phase flow meter and disposed downstream of the multi-phase flow meter ; a monitor fluidly coupled to the second 90-degree elbow ; and a choke fluidly coupled to the second 90-degree elbow and disposed downstream of the second 90-degree elbow , wherein, the central flow-through bore is downstream of the choke , characterized in that the flow-through component comprises an entry bore extending from a first inlet to the annular passage , and an exit bore extending from the annular passage to a first outlet , wherein the entry bore and exit bore are aligned with one another with respect to an axis extending through the central flow-through bore .
A method for operating a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, a synchronization signal/physical broadcasting channel, SS/PBCH, block for a master information block, MIB, including a system information block 1 control resource set, SIB 1 CORESET, configuration, wherein the SIB 1 CORESET configuration comprises a frequency location for the SIB 1 CORESET, a number of resource blocks, RBs, for the SIB1 CORESET, and information of time domain resources for the SIB1 CORESET; determining an initial active bandwidth part, BWP, based on the number of RBs for the SIB1 CORESET; receiving a physical downlink control channel, PDCCH, in at least one time-frequency resource within the SIB 1 CORESET based on the frequency location for the SIB1 CORESET and the time domain resources for the SIB1 CORESET, wherein the PDCCH includes scheduling information of a physical downlink shared channel, PDSCH, for a system information block 1, SIB 1, within the initial active BWP. receiving, from a base station, a synchronization signal/physical broadcasting channel, SS/PBCH, block for a master information block, MIB, including a system information block 1 control resource set, SIB 1 CORESET, configuration, wherein the SIB 1 CORESET configuration comprises a frequency location for the SIB 1 CORESET, a number of resource blocks, RBs, for the SIB1 CORESET, and information of time domain resources for the SIB1 CORESET; determining an initial active bandwidth part, BWP, based on the number of RBs for the SIB1 CORESET; receiving a physical downlink control channel, PDCCH, in at least one time-frequency resource within the SIB 1 CORESET based on the frequency location for the SIB1 CORESET and the time domain resources for the SIB1 CORESET, wherein the PDCCH includes scheduling information of a physical downlink shared channel, PDSCH, for a system information block 1, SIB 1, within the initial active BWP.
A method for determining an insulation resistance (R f ) of a power supply system whose active parts are ungrounded and which is supplied via a converter operated to ground and equipped with controlled power semiconductor switches (SW10, SW20, SW30, SW40, SW50, SW60), the method comprising the following steps: - generating a common-mode voltage to ground at the output of the converter , the common-mode voltage being generated by generating pulse patterns (sa, sb, sc) for controlling the power semiconductor switches (SW10, SW20, SW30, SW40, SW50, SW60), - superimposing the common-mode voltage as a measuring voltage (U g ) for determining the insulation resistance (R f ) of the ungrounded power supply system , - detecting the measuring voltage (U g ) in the ungrounded power supply system , - detecting a measuring current (I g ) which flows in the ungrounded power supply system via the insulation resistance (R f ) because of the measuring voltage (U g ), - determining the insulation resistance (R f ) by assessing the measuring current (I g ). - generating a common-mode voltage to ground at the output of the converter , the common-mode voltage being generated by generating pulse patterns (sa, sb, sc) for controlling the power semiconductor switches (SW10, SW20, SW30, SW40, SW50, SW60), - superimposing the common-mode voltage as a measuring voltage (U g ) for determining the insulation resistance (R f ) of the ungrounded power supply system , - detecting the measuring voltage (U g ) in the ungrounded power supply system , - detecting a measuring current (I g ) which flows in the ungrounded power supply system via the insulation resistance (R f ) because of the measuring voltage (U g ), - determining the insulation resistance (R f ) by assessing the measuring current (I g ).
A battery module, comprising: a plurality of secondary batteries stacked along a thickness direction of each of the plurality of secondary batteries, a side of each of the plurality of secondary batteries being provided with an electrode terminal; and a connecting component provided at the side of the plurality of secondary batteries, the connecting component being connected to at least two electrode terminals for electrically connecting at least two secondary batteries of the plurality of secondary batteries, wherein the connecting component comprises a first fixed connecting piece and a second fixed connecting piece, and along a direction in which the connecting component extends, the first fixed connecting piece matches and is engaged with the second fixed connecting piece; an edge of the first fixed connecting piece is provided with a recess, and an edge of the second fixed connecting piece is provided with a protrusion for engaging with the recess; the recess comprises two inner side walls and a first wall connecting the two inner side walls, the protrusion comprises two outer side walls and a second wall connecting the two outer side walls, and the inner side walls are in contact with and match the outer side walls; and a distance between the two inner side walls gradually decreases in a direction facing away from the first wall, and a distance between the two outer side walls gradually decreases in a direction facing away from the second wall. a plurality of secondary batteries stacked along a thickness direction of each of the plurality of secondary batteries, a side of each of the plurality of secondary batteries being provided with an electrode terminal; and a connecting component provided at the side of the plurality of secondary batteries, the connecting component being connected to at least two electrode terminals for electrically connecting at least two secondary batteries of the plurality of secondary batteries, wherein the connecting component comprises a first fixed connecting piece and a second fixed connecting piece, and along a direction in which the connecting component extends, the first fixed connecting piece matches and is engaged with the second fixed connecting piece; an edge of the first fixed connecting piece is provided with a recess, and an edge of the second fixed connecting piece is provided with a protrusion for engaging with the recess; the recess comprises two inner side walls and a first wall connecting the two inner side walls, the protrusion comprises two outer side walls and a second wall connecting the two outer side walls, and the inner side walls are in contact with and match the outer side walls; and a distance between the two inner side walls gradually decreases in a direction facing away from the first wall, and a distance between the two outer side walls gradually decreases in a direction facing away from the second wall.