mhurhangee/patent-ind-claim-en huggingface dataset:
A replaceable cartridge for use with a plasma arc cutting system comprising a plasma arc torch, the cartridge comprising the following components: a housing comprising a swirl ring that is configured to hold the components of the replaceable cartridge together; a connection mechanism for coupling the housing to the plasma arc torch; a nozzle connected to the housing ; an electrode disposed within the housing ; and an identification mechanism disposed within the housing and configured to store information and communicate the information to a detecting mechanism of the plasma arc cutting system, wherein the information allows to enable the plasma arc cutting system to automatically set at least one operating parameter of the plasma arc cutting system, wherein the information denotes a cartridge type of the replaceable cartridge or includes information comprising specific values for a cutting current, a pilot arc current, a plasma gas flow rate, a shield gas flow rate, or a cutting mode, the information corresponding to a particular combination of consumable components of the replaceable cartridge. a housing comprising a swirl ring that is configured to hold the components of the replaceable cartridge together; a connection mechanism for coupling the housing to the plasma arc torch; a nozzle connected to the housing ; an electrode disposed within the housing ; and an identification mechanism disposed within the housing and configured to store information and communicate the information to a detecting mechanism of the plasma arc cutting system, wherein the information allows to enable the plasma arc cutting system to automatically set at least one operating parameter of the plasma arc cutting system, wherein the information denotes a cartridge type of the replaceable cartridge or includes information comprising specific values for a cutting current, a pilot arc current, a plasma gas flow rate, a shield gas flow rate, or a cutting mode, the information corresponding to a particular combination of consumable components of the replaceable cartridge. a nozzle connected to the housing ; an electrode disposed within the housing ; and an identification mechanism disposed within the housing and configured to store information and communicate the information to a detecting mechanism of the plasma arc cutting system, wherein the information allows to enable the plasma arc cutting system to automatically set at least one operating parameter of the plasma arc cutting system, wherein the information denotes a cartridge type of the replaceable cartridge or includes information comprising specific values for a cutting current, a pilot arc current, a plasma gas flow rate, a shield gas flow rate, or a cutting mode, the information corresponding to a particular combination of consumable components of the replaceable cartridge.
A cache and memory coherent system comprising: multiple processing chips (FIG. 1, IC_1, IC_2, IC_3, IC_4) each hosting a different subset of a shared memory space; one or more routing tables defining access routes between logical addresses of the shared memory space and endpoints that each correspond to a select one of the multiple processing chips; the system being characterized in that it comprises a coherent mesh fabric that physically couples together each of the multiple processing chips, the coherent mesh fabric being configured to execute routing logic for updating the one or more routing tables responsive to detection of a defective hardware component and identification of a first processing chip (FIG. 1, IC_2) of the multiple processing chips hosting the defective hardware component, the update to the one or more routing tables being effective to remove all access routes having endpoints corresponding to the first processing chip (134 at time T2) without implementing alternate access routes to data hosted by the defective hardware component. multiple processing chips (FIG. 1, IC_1, IC_2, IC_3, IC_4) each hosting a different subset of a shared memory space; one or more routing tables defining access routes between logical addresses of the shared memory space and endpoints that each correspond to a select one of the multiple processing chips; the system being characterized in that it comprises a coherent mesh fabric that physically couples together each of the multiple processing chips, the coherent mesh fabric being configured to execute routing logic for updating the one or more routing tables responsive to detection of a defective hardware component and identification of a first processing chip (FIG. 1, IC_2) of the multiple processing chips hosting the defective hardware component, the update to the one or more routing tables being effective to remove all access routes having endpoints corresponding to the first processing chip (134 at time T2) without implementing alternate access routes to data hosted by the defective hardware component.
An isolated polynucleotide encoding a polypeptide comprising an anti-CD19 chimeric antigen receptor (CAR) that is at least 70% identical to SEQ ID NO: 9, wherein the polypeptide does not comprise a rituximab binding site, and wherein the polynucleotide comprises a short EF1a promoter that is capable of expressing the anti-CD19 chimeric antigen receptor (CAR) in a mammalian T cell, wherein the short EF1a promoter does not comprise the nucleic acid sequence of SEQ ID NO: 39, and the promoter comprises the nucleic acid sequence of SEQ ID NO: 16. the short EF1a promoter does not comprise the nucleic acid sequence of SEQ ID NO: 39, and the promoter comprises the nucleic acid sequence of SEQ ID NO: 16.
Method for measuring the temperature of a melt , with an optical fiber , wherein the optical fiber is fed into the melt through a disposable guiding tube , having an immersion end and a second end, opposite to the immersion end , wherein the optical fiber and the immersion end of the disposable guiding tube are immersed into the melt both having a feeding speed whereby both feeding speeds are independent from each other, using a fiber coil and a feeding mechanism for feeding the optical fiber and the disposable guiding tube , whereby the feeding mechanism comprises at least two independent feeding motors (25; 45) each combined with a separate speed control, one for feeding the optical fiber and one for feeding the disposable guiding tube , and whereby an elastic plug is arranged at the second end of or within the disposable guiding tube , whereby the optical fiber is fed through the elastic plug , whereby the elastic plug reduces a gap between the optical fiber and the disposable guiding tube , and whereby the inner diameter of the disposable guiding tube is bigger than the outer diameter of the optical fiber, characterized in that (i) in a first phase of immersion the disposable guiding tube and the optical fiber are immersed into the melt , (ii) in a second phase the optical fiber is immersed with higher speed and deeper into the melt than the disposable guiding tube , wherein the second phase starts after the immersion end of the disposable guiding tube is immersed into the melt , and (iii) in a third phase of immersion the optical fiber is stopped or is withdrawn from the melt , wherein subsequent to the third phase the outer disposable guiding tube is ejected into the melt . (i) in a first phase of immersion the disposable guiding tube and the optical fiber are immersed into the melt , (ii) in a second phase the optical fiber is immersed with higher speed and deeper into the melt than the disposable guiding tube , wherein the second phase starts after the immersion end of the disposable guiding tube is immersed into the melt , and (iii) in a third phase of immersion the optical fiber is stopped or is withdrawn from the melt , wherein subsequent to the third phase the outer disposable guiding tube is ejected into the melt .
A method for signal transmission, performed by a network device, comprising: sending (S110) indication information to a first terminal device, the indication information indicating a resource region for the first terminal device to receive a downlink control signal; sending (S120) the downlink control signal to the first terminal device in the resource region; characterized by dividing each of at least one control channel configured to bear the downlink control signal into at least one control channel element and mapping the at least one control channel element onto the resource region; wherein at least one control channel element of a first control channel of the at least one control channel is mapped onto all Orthogonal Frequency Division Multiplex, OFDM, symbols in a same Physical Resource Block, PRB, PRB in the resource region, wherein sending the downlink control signal to the first terminal device in the resource region comprises: sending the downlink control signal to the first terminal device in the resource region by using a beam corresponding to the resource region, wherein different resource regions correspond to different beams. sending (S110) indication information to a first terminal device, the indication information indicating a resource region for the first terminal device to receive a downlink control signal; sending (S120) the downlink control signal to the first terminal device in the resource region; characterized by dividing each of at least one control channel configured to bear the downlink control signal into at least one control channel element and mapping the at least one control channel element onto the resource region; wherein at least one control channel element of a first control channel of the at least one control channel is mapped onto all Orthogonal Frequency Division Multiplex, OFDM, symbols in a same Physical Resource Block, PRB, PRB in the resource region, wherein sending the downlink control signal to the first terminal device in the resource region comprises: sending the downlink control signal to the first terminal device in the resource region by using a beam corresponding to the resource region, wherein different resource regions correspond to different beams.
A combination of a disc tumbler cylinder lock and a key, wherein the disc tumbler cylinder lock comprises tumbler discs having lock-model-specific standard rotation angles, the key comprises a bow and a shank as well as lock-model specific standard cutter angle notches (5-14) cut on the shank and corresponding to tumbler discs of the lock that corresponds to the profile of the shank, wherein standard cutter angles are 0°, 18°, 36°, 54°, 72° and 90°, or 0°, 15°, 30°, 45°, 60°, 75° and 90°, characterized in that the key comprises a shape that differs from said notches, arranged to rotate at least one tumbler disc of the lock to a position that differs from the lock-model-specific standard rotation angles. the disc tumbler cylinder lock comprises tumbler discs having lock-model-specific standard rotation angles, the key comprises a bow and a shank as well as lock-model specific standard cutter angle notches (5-14) cut on the shank and corresponding to tumbler discs of the lock that corresponds to the profile of the shank, wherein standard cutter angles are 0°, 18°, 36°, 54°, 72° and 90°, or 0°, 15°, 30°, 45°, 60°, 75° and 90°, characterized in that the key comprises a shape that differs from said notches, arranged to rotate at least one tumbler disc of the lock to a position that differs from the lock-model-specific standard rotation angles.
A process for the production of pasta comprising the following steps: a) providing a bronze die plate insert comprising at least one through-hole, wherein said through-hole extends along an extrusion path and has a working surface with grooves having a depth of between 0.05 mm and 0.3 mm; b) mixing water and a meal which is suitable for producing pasta, so as to obtain a dough with a water content of between 33.5% and 38.5% by weight of its total weight; c) kneading said dough; d) extruding said kneaded dough through the at least one through-hole of said bronze die plate insert; e) drying said extruded dough, obtaining pasta with a moisture content which is equal to or less than 12.5% by weight of its total weight. a) providing a bronze die plate insert comprising at least one through-hole, wherein said through-hole extends along an extrusion path and has a working surface with grooves having a depth of between 0.05 mm and 0.3 mm; b) mixing water and a meal which is suitable for producing pasta, so as to obtain a dough with a water content of between 33.5% and 38.5% by weight of its total weight; c) kneading said dough; d) extruding said kneaded dough through the at least one through-hole of said bronze die plate insert; e) drying said extruded dough, obtaining pasta with a moisture content which is equal to or less than 12.5% by weight of its total weight.
A method of operating a device for eliminating a yarn loop when winding yarn on a cross-wound bobbin (A2) at an operating unit of a spinning machine with constant speed of the yarn being produced, in which during the production of the yarn the length of the working path of the yarn between a draw-off mechanism of yarn and a winding device (A) of yarn varies and the loop is eliminated by deflecting the yarn with a capturing and guiding means of a compensatory arm , which is fixedly mounted on an output element of reversible two-way controlled means connected to a control system, characterized in that the control system controls position and/or direction and/or speed and/or force application of the reversible two-way controlled means according to the particular operation that is being carried out at an operating unit and during the transition from the continuous spinning of the yarn to a transient state and, vice versa, during the transition from a transient state to the state of the continuous spinning of the yarn , the control of the speed and/or torque of the two-way controlled means and the control of the force applied by the capturing and guiding means of the compensatory arm on the yarn being produced and wound, is currently adjusted and is carried out according to the particular requirements of the automation operations being performed at the operating unit, while the capturing and guiding means of yarn performs a two-way controlled reciprocating motion along a circular path , the capturing and guiding means of yarn being arranged directly at the outlet of the yarn from the draw-off mechanism of yarn or the capturing and guiding means of yarn being arranged between a pair of mutually spaced support guides of yarn and performing its two-way controlled reciprocating motion along a circular or linear path during the process of eliminating the yarn loop.
Piston for an internal combustion engine having two gudgeon-pin bosses for the reception of a piston bolt, wherein the gudgeon-pin bosses have in each case when α = 180° (nadir) a nadir pocket which extend from a piston axis to the outside and the length (L1) of which is only a part of the length (L) of the gudgeon-pin boss , characterised in that a gudgeon-pin boss axis deviates 0.1 - 1.0 mm from the piston axis .
A rocking control device for a two front wheels rocking vehicle having a pair of left and right front wheels and configured to laterally rock a vehicle body, the rocking control device for a two front wheels rocking vehicle comprising: a controller that executes a first rocking control (L1 to L4) which assists a rocking of the two front wheels rocking vehicle , and a second rocking control (L5 to L7) which assists the two front wheels rocking vehicle so that the two front wheels rocking vehicle self-stands at a rocking balanced position where a rocking moment of the vehicle body is canceled out in a lateral direction, wherein the controller is configured to switch the first rocking control (L1 to L4) and the second rocking control (L5 to L7) to OFF state, characterised in that the controller is configured to operate the first rocking control (L1 to L4) and the second rocking control (L5 to L7) in combination, and wherein the first rocking control (L1 to L4) includes a weight shift roll assist control (L1) that detects a shift of a driver's weight and assists the rocking of the two front wheels rocking vehicle in a weight shifted direction. a controller that executes a first rocking control (L1 to L4) which assists a rocking of the two front wheels rocking vehicle , and a second rocking control (L5 to L7) which assists the two front wheels rocking vehicle so that the two front wheels rocking vehicle self-stands at a rocking balanced position where a rocking moment of the vehicle body is canceled out in a lateral direction, wherein the controller is configured to switch the first rocking control (L1 to L4) and the second rocking control (L5 to L7) to OFF state, characterised in that the controller is configured to operate the first rocking control (L1 to L4) and the second rocking control (L5 to L7) in combination, and wherein the first rocking control (L1 to L4) includes a weight shift roll assist control (L1) that detects a shift of a driver's weight and assists the rocking of the two front wheels rocking vehicle in a weight shifted direction.
A battery current measuring device comprising: a switch configured to control charging and discharging of a battery: an A/D converter configured to convert a voltage value across the switch into a digital value; a temperature compensation unit having a diode structure capable of compensating for a resistance change according to a change of temperature of the switch; and a controller configured to calculate a current flowing through the switch based on the digital value of the voltage value, wherein the A/D converter is configured to convert the voltage value across the switch into the digital value using a reference voltage inputted from the temperature compensation unit, wherein the switch is a MOSFET, wherein the battery current measuring device is installed on a substrate, and wherein the temperature compensation unit and the MOSFET are formed on a same layer of the substrate. an A/D converter configured to convert a voltage value across the switch into a digital value; a temperature compensation unit having a diode structure capable of compensating for a resistance change according to a change of temperature of the switch; and a controller configured to calculate a current flowing through the switch based on the digital value of the voltage value, wherein the A/D converter is configured to convert the voltage value across the switch into the digital value using a reference voltage inputted from the temperature compensation unit, wherein the switch is a MOSFET, wherein the battery current measuring device is installed on a substrate, and wherein the temperature compensation unit and the MOSFET are formed on a same layer of the substrate.
Sensor device , comprising: - four or more sensor elements comprising a first set of sensor elements and a second set of sensor elements, wherein said first set includes at least one sensor element that is also in said second set, - a controller comprising a control circuit arranged to control said first set of sensor elements to measure an environmental attribute in a first orientation and produce a first value related to said environmental attribute, to control said second set of sensor elements to measure said environmental attribute in a second orientation and produce a second value related to said environmental attribute and to compare said first and second values to determine a fault, wherein said first set includes at least one sensor element not included in said second set or wherein said first orientation is not the same as said second orientation, or both, and wherein said first and second values are measured in different coordinate systems and wherein said control circuit is arranged to convert one or more of said first and second values into a common coordinate system. - four or more sensor elements comprising a first set of sensor elements and a second set of sensor elements, wherein said first set includes at least one sensor element that is also in said second set, - a controller comprising a control circuit arranged to control said first set of sensor elements to measure an environmental attribute in a first orientation and produce a first value related to said environmental attribute, to control said second set of sensor elements to measure said environmental attribute in a second orientation and produce a second value related to said environmental attribute and to compare said first and second values to determine a fault,
A jetting dispenser , comprising: an actuator including a piezoelectric unit that lengthens by a first distance in response to an applied voltage, an armature adapted to be operatively coupled for movement with the piezoelectric unit, an upper actuator portion containing the piezoelectric unit, and a lower actuator portion including the armature and an amplifier in the form of a lever having a first end and a second end , the first end of the lever moving through the first distance under the applied voltage and the second end of the lever moving through a second distance, larger than the first distance, under the applied voltage; a movable shaft operatively coupled with the second end of the lever ; and a fluid body including a fluid bore and an outlet orifice, characterized in that the amplifier includes a flexural portion coupled to the first end of the lever , positioned between the first end of the lever and the armature , and coupling the first end of the lever to the armature , and in that the flexural portion flexes when voltage is applied to the piezoelectric unit so as to move the lever to oppose a resilient bias applied by the flexural portion , thereby moving the movable shaft to jet an amount of fluid from the fluid bore through the outlet orifice. an actuator including a piezoelectric unit that lengthens by a first distance in response to an applied voltage, an armature adapted to be operatively coupled for movement with the piezoelectric unit, an upper actuator portion containing the piezoelectric unit, and a lower actuator portion including the armature and an amplifier in the form of a lever having a first end and a second end , the first end of the lever moving through the first distance under the applied voltage and the second end of the lever moving through a second distance, larger than the first distance, under the applied voltage; a movable shaft operatively coupled with the second end of the lever ; and a fluid body including a fluid bore and an outlet orifice, characterized in that the amplifier includes a flexural portion coupled to the first end of the lever , positioned between the first end of the lever and the armature , and coupling the first end of the lever to the armature , and in that the flexural portion flexes when voltage is applied to the piezoelectric unit so as to move the lever to oppose a resilient bias applied by the flexural portion , thereby moving the movable shaft to jet an amount of fluid from the fluid bore through the outlet orifice.