mhurhangee/patent-ind-claim-en huggingface dataset:
Plant for the continuous production of hot-rolled steel strips with a minimum thickness of 0,3 mm including in sequence, along the direction of movement of the material being processed: - a device for continuous casting of thin or medium slabs with a thickness between 40 and 150 mm and a maximum width of at least 2100 mm, - a roughing mill comprising at least three stands, - a first induction furnace (6.1), - a water descaler , - a second induction furnace (6.2), - a finishing mill comprising five to seven stands, - a cooling station , - a cutting station , and - a winding station with at least one pair of carousel coilers or single coilers , as well as a system to feed a protective atmosphere containing ≤3% vol. of oxygen at least from the inlet of said second induction furnace (6.2) to the third stand of said finishing mill , wherein it also includes, between said continuous casting device and said roughing mill , an initial section of thermal conditioning and descaling comprising in sequence an induction edge heater (4.1), an induction heater (4.2) for the rest of the slab surface and a first water descaler . - a device for continuous casting of thin or medium slabs with a thickness between 40 and 150 mm and a maximum width of at least 2100 mm, - a roughing mill comprising at least three stands, - a first induction furnace (6.1), - a water descaler , - a second induction furnace (6.2), - a finishing mill comprising five to seven stands, - a cooling station , - a cutting station , and - a winding station with at least one pair of carousel coilers or single coilers , as well as a system to feed a protective atmosphere containing ≤3% vol. of oxygen at least from the inlet of said second induction furnace (6.2) to the third stand of said finishing mill ,
A method for time synchronization in a network , the network comprising a plurality of masters (M1, M2) and at least one slave (S), the at least one slave (S) receiving synchronization messages (D1, D2) from the plurality of masters (M1, M2) for the time synchronization of a first clock and a second clock of the slave (S) via the network , a first master (M1) sending a first synchronization message (D1) having a first time stamp (t1) to the at least one slave (S) for the time synchronization of the first clock and the at least one slave (S) comparing the first time stamp (t1) of the first synchronization message (D1) with the first current time of the first clock and, based on this comparison, calculating a clock rate (r A ) and a time difference (dt1) between the first clock and the first master (M1) and carrying out a time alignment in such a way that the first clock in the slave (S) runs with the synchronized time, a second master (M2) sending a second synchronization message (D2) having a second time stamp (t2) to the at least one slave (S) for the time synchronization of the second clock , characterized in that the clock rate (r A ) of the first clock is used to specify a clock rate (r G ) for the second clock , by setting the clock rate (r G ) of the second clock to the clock rate (r A ) of the first clock , and in that the at least one slave (S) compares the second time stamp (t2) of the second synchronization message (D2) with the second current time of the second clock and, based on this comparison, calculates a time difference (dt2) between the second clock and the second master (M2) and carries out a time alignment in such a way that the second clock in the slave (S) runs with the synchronized time. a first master (M1) sending a first synchronization message (D1) having a first time stamp (t1) to the at least one slave (S) for the time synchronization of the first clock and the at least one slave (S) comparing the first time stamp (t1) of the first synchronization message (D1) with the first current time of the first clock and, based on this comparison, calculating a clock rate (r A ) and a time difference (dt1) between the first clock and the first master (M1) and carrying out a time alignment in such a way that the first clock in the slave (S) runs with the synchronized time, a second master (M2) sending a second synchronization message (D2) having a second time stamp (t2) to the at least one slave (S) for the time synchronization of the second clock , characterized in that the clock rate (r A ) of the first clock is used to specify a clock rate (r G ) for the second clock , by setting the clock rate (r G ) of the second clock to the clock rate (r A ) of the first clock , and in that the at least one slave (S) compares the second time stamp (t2) of the second synchronization message (D2) with the second current time of the second clock and, based on this comparison, calculates a time difference (dt2) between the second clock and the second master (M2) and carries out a time alignment in such a way that the second clock in the slave (S) runs with the synchronized time.
A method comprising: obtaining a line spectral frequency, LSF, coefficient from a linear predictive coding, LPC, coefficient of a speech signal or an audio signal; obtaining a magnitude weighting function by using magnitudes of one or more spectral bins corresponding to a frequency of the LSF coefficient; obtaining a frequency weighting function based on frequency information of the LSF coefficient; combining the magnitude weighting function and the frequency weighting function to obtain a first weighting function: the method being characterised by further obtaining a second weighting function associated with spectral sensitivity based on an interval between adjacent LSF coefficients; combining the first weighting function and the second weighting function to determine a third weighting function; and quantizing the LSF coefficient based on the determined third weighting function. obtaining a line spectral frequency, LSF, coefficient from a linear predictive coding, LPC, coefficient of a speech signal or an audio signal; obtaining a magnitude weighting function by using magnitudes of one or more spectral bins corresponding to a frequency of the LSF coefficient; obtaining a frequency weighting function based on frequency information of the LSF coefficient; combining the magnitude weighting function and the frequency weighting function to obtain a first weighting function: the method being characterised by further obtaining a second weighting function associated with spectral sensitivity based on an interval between adjacent LSF coefficients; combining the first weighting function and the second weighting function to determine a third weighting function; and quantizing the LSF coefficient based on the determined third weighting function.
A header for an agricultural vehicle , comprising: a frame ; at least one axle assembly connected to the frame and positionable in between a transport position and a field-working position, the at least one axle assembly comprising an axle with a first end and a second end; and a pair of wheels respectively connected to the first and second ends of the axle , characterized in that: the at least one axle assembly comprises: a telescoping mount connected to the frame ; and an axle support member rotatably connected to the telescoping mount ; the axle being slideably connected to the axle support member such that the axle rotates and slides relative to the frame , and the wheels are configured for at least partially supporting the header in the transport position and the field-working position. a frame ; at least one axle assembly connected to the frame and positionable in between a transport position and a field-working position, the at least one axle assembly comprising an axle with a first end and a second end; and a pair of wheels respectively connected to the first and second ends of the axle , characterized in that: the at least one axle assembly comprises: a telescoping mount connected to the frame ; and an axle support member rotatably connected to the telescoping mount ; the axle being slideably connected to the axle support member such that the axle rotates and slides relative to the frame , and the wheels are configured for at least partially supporting the header in the transport position and the field-working position. a telescoping mount connected to the frame ; and an axle support member rotatably connected to the telescoping mount ; the axle being slideably connected to the axle support member such that the axle rotates and slides relative to the frame , and the wheels are configured for at least partially supporting the header in the transport position and the field-working position.
Method for the earthquake-proof connection of infill masonry comprising bricks to a frame structure , wherein the frame structure comprises a top beam , a foot beam and two supports extending between the top beam and the foot beam and wherein a receiving space for the infill masonry is formed by the frame structure , wherein the infill masonry further comprises connecting bricks , which respectively adjoin the frame structure with at least one connection side , wherein the method comprises the following step: a) Attaching profile sections to the surfaces of the frame structure facing the receiving space ; characterised in that the method further comprises the following steps: b) Providing decoupling elements between the surfaces of the frame structure comprising the profile sections and the connection sides of the connecting bricks , wherein the decoupling elements have grooves for receiving the profile sections , c) Masoning of the infill masonry within the frame structure . a) Attaching profile sections to the surfaces of the frame structure facing the receiving space ; b) Providing decoupling elements between the surfaces of the frame structure comprising the profile sections and the connection sides of the connecting bricks , wherein the decoupling elements have grooves for receiving the profile sections , c) Masoning of the infill masonry within the frame structure .
A connecting element for creating a fluid connection between two elements to be connected, with a housing having a first receiving space with a first connector element and a first displaceable valve element located therein, and having a second receiving space with a second connector element having a second displaceable valve element located therein, the first and second receiving spaces are fluidically connected to one another, wherein the first valve element is displaceable in opposition to the force of a first force accumulator when one of the elements to be connected is inserted into the first connector element, and the second valve element is displaceable in opposition to a second force accumulator when the second one of the elements to be connected is inserted into the second connector element, wherein the first valve element is displaceable between two positions, wherein a fluid connection between the first receiving space and the first connector element is interrupted by the first valve element in the first position, and a fluid connection between the first receiving space and the first connector element is opened by the first valve element in the second position, and wherein the second valve element is displaceable between two positions, wherein a fluid connection between the second receiving space and the second connector element is interrupted by the second valve element in the first position, and a fluid connection between the second receiving space and the second connector element is opened by the second valve element in the second position, wherein the first connector element has a hollow, cylindrical element and the first valve element has at least one cylindrical region for sealing the first connector element that is displaceably accommodated in the hollow, cylindrical element and wherein the first valve element has resilient arms projecting from the cylindrical region so that the cylindrical region is pushed into the first position again from the second position if the first element to be connected is removed from the first connector element and the elastically deformable valve element relaxes.
A display device , comprising: a plurality of pixels each comprising a lower electrode , a light emitting layer and an upper electrode , arranged with an interval therebetween, an antenna radiator configured with one or more conductors that are arranged between the plurality of pixels ; characterized in that the display device further comprises: partition walls disposed between the plurality of pixels , thus separating the plurality of pixels from each other, and insulating parts disposed adjacent to the one or more conductors , to electrically insulate the one or more conductors from the upper electrode of the plurality of pixels ; wherein each of the one or more conductors is disposed directly on the upper surface of the corresponding partition wall . a plurality of pixels each comprising a lower electrode , a light emitting layer and an upper electrode , arranged with an interval therebetween, an antenna radiator configured with one or more conductors that are arranged between the plurality of pixels ; characterized in that the display device further comprises: partition walls disposed between the plurality of pixels , thus separating the plurality of pixels from each other, and insulating parts disposed adjacent to the one or more conductors , to electrically insulate the one or more conductors from the upper electrode of the plurality of pixels ; wherein each of the one or more conductors is disposed directly on the upper surface of the corresponding partition wall . partition walls disposed between the plurality of pixels , thus separating the plurality of pixels from each other, and insulating parts disposed adjacent to the one or more conductors , to electrically insulate the one or more conductors from the upper electrode of the plurality of pixels ; wherein each of the one or more conductors is disposed directly on the upper surface of the corresponding partition wall .
A pneumatic tire comprising a carcass and a belt reinforcing structure , the belt reinforcing structure comprising a strip of reinforcement cords or being formed by winding a strip of reinforcement cords , wherein the strip of reinforcement cords comprises or is formed from a plurality of first reinforcement cords and at least one, preferably one, second reinforcement cord located on each lateral end of the strip , wherein (i) the strip of reinforcement cords has outer lateral ends or edges that are triangular in shape and/or wherein (ii) at least one or all of the first reinforcement cords have a larger diameter than at least one or all the second reinforcement cords , characterized in that the tire is a radial aircraft tire, the first reinforcement cord is formed of POK, aramid filaments or of aramid and nylon filaments, and the second reinforcement cord is formed of nylon filaments, and wherein in case the first reinforcement cord is formed of POK, the first reinforcement cord is formed of a higher modulus material than the second reinforcement cord .
Exhaust-gas turbine with axial incident flow, comprising a turbine wheel with a multiplicity of rotor blades , with a guide apparatus for directing the flow on to the rotor blades of the turbine wheel, and comprising a flow channel which is arranged downstream of the rotor blades of the turbine wheel in order to conduct the flow from the rotor blades to a gas outlet housing and, for this purpose, has a curvature from the axial direction into the radial direction, wherein the flow channel is delimited radially at the outside by a turbine diffuser and radially at the inside by a housing part , the turbine diffuser is mechanically decoupled from the gas outlet housing , characterized in that the turbine diffuser and the housing part which delimits the flow channel radially to the inside are connected to one another by struts in the flow channel.
A water mist fire suppression device comprising: a nozzle body having a water plenum and disposed about a central axis ; a bulb cage integrally formed with the nozzle body; and a nozzle arrangement formed proximate an end of the nozzle body and configured to expel water, the nozzle arrangement comprising: an annular groove circumferentially extending about the central axis proximate an outlet of the nozzle arrangement and at least partially defined by an axial wall portion , a radially inner wall portion , and a radially outer wall portion ; a micro nozzle extending from the water plenum to the annular groove, wherein the micro nozzle is angularly oriented from the central axis at an angle of 15 to 50 degrees and extends through the axial wall portion of the annular groove ; and a deflector lip integrally formed with the nozzle body, and located proximate the outlet of the nozzle arrangement, wherein the deflector lip is formed on the radially outer wall portion and is positioned to contact water ejected from the micro nozzle and prior to exiting the outlet of the nozzle arrangement. a nozzle body having a water plenum and disposed about a central axis ; a bulb cage integrally formed with the nozzle body; and a nozzle arrangement formed proximate an end of the nozzle body and configured to expel water, the nozzle arrangement comprising: an annular groove circumferentially extending about the central axis proximate an outlet of the nozzle arrangement and at least partially defined by an axial wall portion , a radially inner wall portion , and a radially outer wall portion ; a micro nozzle extending from the water plenum to the annular groove, wherein the micro nozzle is angularly oriented from the central axis at an angle of 15 to 50 degrees and extends through the axial wall portion of the annular groove ; and an annular groove circumferentially extending about the central axis proximate an outlet of the nozzle arrangement and at least partially defined by an axial wall portion , a radially inner wall portion , and a radially outer wall portion ; a micro nozzle extending from the water plenum to the annular groove, wherein the micro nozzle is angularly oriented from the central axis at an angle of 15 to 50 degrees and extends through the axial wall portion of the annular groove ; and a deflector lip integrally formed with the nozzle body, and located proximate the outlet of the nozzle arrangement, wherein the deflector lip is formed on the radially outer wall portion and is positioned to contact water ejected from the micro nozzle and prior to exiting the outlet of the nozzle arrangement.
Method for automatically determining positions of sensors (12-20; 22-26; 40) of an automatic door system, in particular of an automatic sliding-door system , having a plurality of sensors (12-20; 22-26; 40), which serve in particular for protection purposes, comprise at least one transmission device for emitting light and at least one detector device for detecting light, and are embodied in each case such that it is ascertainable, based on the respectively detected light, from which side of the sensor the detected light was received, wherein the sensors (12-20; 22-26; 40) and a control unit form subscribers of a data transmission system and are interconnected thereby, and wherein the control unit is embodied such that, initially for ascertaining the positions of the sensors (12-20; 22-26; 40) relative to one another, the transmission devices of the different sensors (12-20; 22-26; 40) are controlled successively with a changed clock frequency and/or transmission frequency and/or a changed modulation, and/or the transmission devices of the different sensors (12-20; 22-26; 40) are switched off successively, and it is detected, via the detector device of a respective sensor that is not controlled with a changed clock frequency or transmission frequency or with a changed modulation, from which side light of the sensor that is controlled with a changed clock frequency and/or transmission frequency or a changed modulation is possibly received, or it is detected, via the detector device of the sensor with a switched-off transmission device , from which side light of another sensor is possibly received, and subsequently the respective absolute position of the sensors (12-20; 22-26; 40) is determined on the basis of the ascertained positions of the sensors (12-20; 22-26; 40) relative to one another, wherein the monitoring regions of adjoining sensors (12-20; 22-26; 40) partially overlap.
A method comprising: dividing, by an authentication node , a second biometric template into a plurality of second biometric template parts; encrypting (S710), by the authentication node, the plurality of second biometric template parts resulting in a plurality of encrypted second biometric template parts; and transmitting, by the authentication node, the plurality of encrypted second biometric template parts to a plurality of worker nodes ; receiving (S730, S732, S734), by the authentication node, a plurality of encrypted match values, wherein the plurality of encrypted match values are formed by the plurality of worker nodes that respectively compare the plurality of encrypted second biometric template parts derived from the second biometric template to a plurality of encrypted first biometric template parts derived from a first biometric template; decrypting (S736), by the authentication node, the plurality of encrypted match values resulting in a plurality of decrypted match values; and determining (S738), by the authentication node, if the first biometric template matches the second biometric template using the plurality of decrypted match values. dividing, by an authentication node , a second biometric template into a plurality of second biometric template parts; encrypting (S710), by the authentication node, the plurality of second biometric template parts resulting in a plurality of encrypted second biometric template parts; and transmitting, by the authentication node, the plurality of encrypted second biometric template parts to a plurality of worker nodes ; receiving (S730, S732, S734), by the authentication node, a plurality of encrypted match values, wherein the plurality of encrypted match values are formed by the plurality of worker nodes that respectively compare the plurality of encrypted second biometric template parts derived from the second biometric template to a plurality of encrypted first biometric template parts derived from a first biometric template; decrypting (S736), by the authentication node, the plurality of encrypted match values resulting in a plurality of decrypted match values; and determining (S738), by the authentication node, if the first biometric template matches the second biometric template using the plurality of decrypted match values.
A method for producing (2 S ,5 S )/(2 R ,S R )-5-hydroxypiperidine-2-carboxylic acid represented by the formula below: the method comprising (i) the step 4 of: removing the protecting group from the hydroxyl group in a compound represented by the formula below: (wherein P represents a protecting group, R 3 represents an alkyl group containing 1 to 4 carbon atoms, and A represents an alkyl group containing 1 to 10 carbon atoms, an aryl group containing 6 to 12 carbon atoms, an alkyloxy group containing 1 to 4 carbon atoms, or an aralkyloxy group containing 7 to 20 carbon atoms) to synthesize a compound represented by the formula below: (wherein R 3 represents an alkyl group containing 1 to 4 carbon atoms, and A represents an alkyl group containing 1 to 10 carbon atoms, an aryl group containing 6 to 12 carbon atoms, an alkyloxy group containing 1 to 4 carbon atoms, or an aralkyloxy group containing 7 to 20 carbon atoms).