mhurhangee/ep-ind-claims huggingface dataset:
An information processing method applied to a first device sharing a dual-homing relationship with a second device, the first device being provided with a first sub-interface, the second device being provided with a second sub-interface corresponding to the first sub-interface, and a main interface wherein the second sub-interface and the main interface are associated with a B-MAC entry bound to the main interface, the B-MAC entry representing an Ethernet Segment Identifier, ESI, configured for the main interface, the method comprising: in response to determining that the second sub-interface is in a failed state and the main interface to which an Ethernet segment identifier, ESI, corresponding to the second sub-interface is assigned is in a normal state in which the main interface is capable of forwarding a message, advertising first routing information corresponding to the first sub-interface in a network, to configure a third device to send a data message to the first sub-interface according to the first routing information; wherein the first routing information corresponding to the first sub-interface contains an identifier capable of uniquely identifying the first sub-interface on a data plane. in response to determining that the second sub-interface is in a failed state and the main interface to which an Ethernet segment identifier, ESI, corresponding to the second sub-interface is assigned is in a normal state in which the main interface is capable of forwarding a message, advertising first routing information corresponding to the first sub-interface in a network, to configure a third device to send a data message to the first sub-interface according to the first routing information; wherein the first routing information corresponding to the first sub-interface contains an identifier capable of uniquely identifying the first sub-interface on a data plane.
Sensor for determining an air ratio of a combustible gas-air mixture, with a housing which limits a measuring space, wherein the housing at least on one side has a diffusion passage for coupling with a combustible gas-air mixture flow, wherein the diffusion passage is formed by a gas permeable separation means, wherein an electrically operated stimulating means for an energy supply into the measuring space is included, in order to bring about a chemical reaction of a combustible gas-air mixture in the measuring space, wherein the stimulating means is designed and adapted to effect the energy supply at a reaction position situated in the measuring space, which is disposed within the quenching distance, belonging to one combustible gas which is to be used, to the housing or the separation means, characterised in that the stimulating means - is formed as electrical heating device with a resistive heating element through which electrical current flows and wherein the heating element is disposed within the measuring space at the reaction position, or that the stimulating means - is formed with a plurality of constructively and galvanically separated electrodes which protrude at least partially into the measuring space, wherein the reaction position lies between the electrodes, wherein the stimulating means is coupled with a voltage supply, wherein at least one optical detecting device (13, 14) is included, the detection area of which is directed in the measuring space onto the reaction position, wherein the optical detecting device (13, 14) detects the intensity of radiation from the reaction position in at least one wavelength range and generates a signal assigned to the detected intensity, from which the air ratio can be calculated. - is formed as electrical heating device with a resistive heating element through which electrical current flows and wherein the heating element is disposed within the measuring space at the reaction position, - is formed with a plurality of constructively and galvanically separated electrodes which protrude at least partially into the measuring space, wherein the reaction position lies between the electrodes,
A method comprising: (a) sampling digital data of measured voltage across electrodes partially immersed in a molten metal to generate data samples; (b) updating a delayed running average of the data samples to establish a baseline for identifying sudden changes in amplitude of the data samples; (c) determining a threshold by adding a prescribed value to the baseline established in step (b); (d) identifying a possible inclusion when a significant number of data samples exceeds the threshold determined in step (c); (e) storing a maximum count as the data samples using peak detection until a prescribed number of the data samples fall below the threshold established in step (c); and (f) comparing a parameter of the possible inclusion with a lookup table to categorize the possible inclusion as either (i) an actual inclusion or (ii) noise. (a) sampling digital data of measured voltage across electrodes partially immersed in a molten metal to generate data samples; (b) updating a delayed running average of the data samples to establish a baseline for identifying sudden changes in amplitude of the data samples; (c) determining a threshold by adding a prescribed value to the baseline established in step (b); (d) identifying a possible inclusion when a significant number of data samples exceeds the threshold determined in step (c); (e) storing a maximum count as the data samples using peak detection until a prescribed number of the data samples fall below the threshold established in step (c); and (f) comparing a parameter of the possible inclusion with a lookup table to categorize the possible inclusion as either (i) an actual inclusion or (ii) noise.
Device for heating and/or cooling for mounting on a wall and above a floor of a building - with at least one heat exchanger (3, 4) in the form of a heater plate for transferring heat to the air, and - at least one fan unit which diverts the air to be heated or cooled from the bottom up through at least one subsection of the device past the at least one heat exchanger (3, 4), wherein when the device is installed the heat exchanger (3, 4) has one front delimiting plane and one rear delimiting plane, one upper delimiting plane and one lower delimiting plane as well as two lateral delimiting planes (11, 12), wherein the two lateral delimiting planes (11, 12) each extend perpendicularly to a horizontal surface formed by the ground and perpendicularly to a vertical surface formed by the wall, wherein the front delimiting plane and the rear delimiting plane of the device are each aligned perpendicularly to the ground and parallel to the wall, characterised in that an underside of the device is furnished with an aperture through which the at least one fan unit can be guided from an environment outside the device into an interior free space of the device, wherein the at least one fan unit is elongated and rigid and a length of the aperture in the lengthwise direction of the device is greater than a length of the at least one fan unit wherein the interior free space is configured in such manner that following a horizontal movement of the fan unit into an intermediate position in which the at least one fan unit is located below the lower delimiting plane of the device, the at least one fan unit can be shifted to an installation position in which the at least one fan unit is located in a position that is vertically higher than the intermediate position. - with at least one heat exchanger (3, 4) in the form of a heater plate for transferring heat to the air, and - at least one fan unit which diverts the air to be heated or cooled from the bottom up through at least one subsection of the device past the at least one heat exchanger (3, 4),
A power tool comprising: a housing; a brushless direct current motor within the housing, wherein the brushless DC motor includes a rotor and a stator, wherein the rotor is coupled to a motor shaft to produce a rotational output; an impact mechanism including a hammer coupled to the motor shaft, and an anvil configured to receive impacts from the hammer; an output drive device coupled to the anvil and configured to rotate to perform a task; and a position sensor configured to sense a position of the rotor; and a controller coupled to the position sensor and configured to detect an impact of the impact mechanism, characterized in that the controller is also configured to calculate a drive angle of the anvil caused by the impact based on output from the position sensor, and control the brushless DC motor based on the drive angle. a housing; a brushless direct current motor within the housing, wherein the brushless DC motor includes a rotor and a stator, wherein the rotor is coupled to a motor shaft to produce a rotational output; an impact mechanism including a hammer coupled to the motor shaft, and an anvil configured to receive impacts from the hammer; a hammer coupled to the motor shaft, and an anvil configured to receive impacts from the hammer; an output drive device coupled to the anvil and configured to rotate to perform a task; and a position sensor configured to sense a position of the rotor; and a controller coupled to the position sensor and configured to detect an impact of the impact mechanism, characterized in that the controller is also configured to calculate a drive angle of the anvil caused by the impact based on output from the position sensor, and control the brushless DC motor based on the drive angle. detect an impact of the impact mechanism, characterized in that the controller is also configured to calculate a drive angle of the anvil caused by the impact based on output from the position sensor, and control the brushless DC motor based on the drive angle.
Method for mounting a stack of separating discs in a centrifugal separator bowl comprising a bowl body and a bowl hood, the method comprising steps of: a) mounting said stack of separating discs on a distributor; b) placing and rotatably fixing said distributor in said bowl body; c) mounting said bowl hood on said bowl body; d) arranging a compression tool for compressing said stack of separating discs, said compression tool comprising a support having a centre axis, a screw arranged coaxially with said centre axis in said support, and a nut threaded onto a first threaded end of said screw and adapted to be resting against a first end of said support, with a second end of said support resting axially on said bowl hood or a neck ring attached to said bowl hood and said screw extending into a central through-hole in said bowl hood; e) fastening said screw with a second threaded end in a first threading of said distributor; f) tightening said nut, in relation to said first threaded end of said screw in such a manner that said distributor is lifted to an upper position; g) fixing said distributor in its upper position; h) dismounting said compression tool. a) mounting said stack of separating discs on a distributor; b) placing and rotatably fixing said distributor in said bowl body; c) mounting said bowl hood on said bowl body; d) arranging a compression tool for compressing said stack of separating discs, said compression tool comprising a support having a centre axis, a screw arranged coaxially with said centre axis in said support, and a nut threaded onto a first threaded end of said screw and adapted to be resting against a first end of said support, with a second end of said support resting axially on said bowl hood or a neck ring attached to said bowl hood and said screw extending into a central through-hole in said bowl hood; e) fastening said screw with a second threaded end in a first threading of said distributor; f) tightening said nut, in relation to said first threaded end of said screw in such a manner that said distributor is lifted to an upper position; g) fixing said distributor in its upper position; h) dismounting said compression tool.
Method for driving a multiphase motor as part of a linear actuator in a brake system by means of a drive circuit, wherein the drive circuit comprises a plurality of transistors, and wherein for each phase of the motor are provided a first path and a second path, wherein at least one transistor is assigned to the first path and to the second path of each of the different phases, and wherein a normal mode, a first drive mode and a third drive mode are provided, wherein for the first drive mode, all the transistors in the second paths are short-circuited, and for the third drive mode, all the transistors are opened, characterized in that a second drive mode is provided, in which operation alternates between the first drive mode and the third drive mode, wherein the following steps are performed: - detecting an undervoltage (U1, U2, U3) or an overvoltage in the drive circuit, - operating the drive circuit in the first drive mode if a first undervoltage has been detected, - operating the drive circuit in the second drive mode if a second undervoltage has been detected. - detecting an undervoltage (U1, U2, U3) or an overvoltage in the drive circuit, - operating the drive circuit in the first drive mode if a first undervoltage has been detected, - operating the drive circuit in the second drive mode if a second undervoltage has been detected.
A multi-subscriber identity module, SIM, wireless transmit/receive unit, WTRU, the WTRU comprising: a receiver configured to receive downlink information indicating one or more of a first receive, RX, opportunity, RXOP, or a second RXOP; based on the downlink information, the WTRU configured to establish one or more of: a first connection with a first network of a first SIM or a second connection with a second network of a second SIM; the receiver further configured to perform one or more of: a first reception from the first network or a second reception from the second network; and a transmitter configured to: send, to the first network, in response to a missed first RXOP, a missed indication to cause adaptation of behavior a Medium Access Control, MAC, layer interface; and send, to the second network, in response to a missed second RXOP, a missed indication to cause adaptation of behavior of the MAC layer interface. a receiver configured to receive downlink information indicating one or more of a first receive, RX, opportunity, RXOP, or a second RXOP; based on the downlink information, the WTRU configured to establish one or more of: a first connection with a first network of a first SIM or a second connection with a second network of a second SIM; the receiver further configured to perform one or more of: a first reception from the first network or a second reception from the second network; and a transmitter configured to: send, to the first network, in response to a missed first RXOP, a missed indication to cause adaptation of behavior a Medium Access Control, MAC, layer interface; and send, to the second network, in response to a missed second RXOP, a missed indication to cause adaptation of behavior of the MAC layer interface. send, to the first network, in response to a missed first RXOP, a missed indication to cause adaptation of behavior a Medium Access Control, MAC, layer interface; and send, to the second network, in response to a missed second RXOP, a missed indication to cause adaptation of behavior of the MAC layer interface.
Piezoelectric multilayer component comprising - a piezo-stack having an alternating sequence of piezoelectric ceramic layers and internal electrodes (5, 6), and - a passivation on an outer side of the piezo-stack, where the material of the passivation is a piezoelectric ceramic and is different from the material of the ceramic layers of the piezo-stack, characterized in that - the ceramic of the passivation has a lower electric coercive field strength than the ceramic layers of the piezo-stack or is constituted such that it is expanded to a greater extent by impression of a polarization than the material of the ceramic layers of the piezo-stack. - a piezo-stack having an alternating sequence of piezoelectric ceramic layers and internal electrodes (5, 6), and - a passivation on an outer side of the piezo-stack, where the material of the passivation is a piezoelectric ceramic and is different from the material of the ceramic layers of the piezo-stack, - the ceramic of the passivation has a lower electric coercive field strength than the ceramic layers of the piezo-stack or is constituted such that it is expanded to a greater extent by impression of a polarization than the material of the ceramic layers of the piezo-stack.
A R-T-B based permanent magnet material, wherein, the R-T-B based permanent magnet material consists of the following components in mass percentage: R: 28.5-33.0 wt.%; RH: > 1.5 wt.%; Cu: 0-0.08 wt.%, but not 0 wt.%; Co: 0.5-2.0 wt.%; Ga: 0.05-0.30 wt.%; B: 0.95-1.05 wt.%; and the remainder being Fe and unavoidable impurities; wherein: R is a rare earth element and comprises at least Nd and RH; and RH is a heavy rare earth element.
A method for rating a polymerization process, comprising: determining a first cracking index value for a first polymerization process; changing one or more parameters of the first polymerization process to provide a second polymerization process; determining a second cracking index value for the second polymerization process; and rating the first polymerization process and the second polymerization process based upon the first cracking index value and the second cracking index value, wherein a greater relative cracking index value corresponds to a higher relative rating, and wherein the cracking index values for the polymerization processes are respectively expressed as I pc = weight of polymer produced weight of catalyst utilized − D vp 3 ρ p − D vc 3 ρ c D vc 3 ρ c weight of polymer produced weight of catalyst utilized where I pc is the cracking index value, D vc is a catalyst volume-averaged particle size, ρ c is a catalyst granular particle density, D vp is a volume-averaged particle size of polymer produced, and ρ p is a granular particle density of polymer produced. determining a first cracking index value for a first polymerization process; changing one or more parameters of the first polymerization process to provide a second polymerization process; determining a second cracking index value for the second polymerization process; and rating the first polymerization process and the second polymerization process based upon the first cracking index value and the second cracking index value, wherein a greater relative cracking index value corresponds to a higher relative rating, and wherein the cracking index values for the polymerization processes are respectively expressed as I pc = weight of polymer produced weight of catalyst utilized − D vp 3 ρ p − D vc 3 ρ c D vc 3 ρ c weight of polymer produced weight of catalyst utilized where I pc is the cracking index value, D vc is a catalyst volume-averaged particle size, ρ c is a catalyst granular particle density, D vp is a volume-averaged particle size of polymer produced, and ρ p is a granular particle density of polymer produced.
An air filtration system for a motor vehicle, comprising a filter element consisting of an accordion-folded sheet forming a set of parallel folds extending transversely between first and second longitudinal flanges, said filter element being interposed between (i) a tank having filter element support means and (ii) a cover characterized in that the cover is equipped with a seal having first sealing means between the cover and the filter element and second sealing means between the cover and the tank.
A multispecific antigen-binding molecule comprising: a first antigen-binding domain; and a second antigen-binding domain; wherein D1 specifically binds a target molecule wherein T is a tumor-associated protein or polypeptide preferentially expressed on the surface of a tumor cell; and wherein D2 binds an internalizing effector protein that is expressed on the surface of both tumor and non-tumor cells and wherein E undergoes cellular internalization and is processed via an intracellular degradative pathway; wherein D2 binds E with low affinity such that the multispecific antigen-binding molecule preferentially targets tumor cells expressing T and the simultaneous binding of the multispecific antigen-binding molecule to T and E results in the forced internalization and degradation of T in the tumor cells through its physical linkage to E; wherein the binding affinity of D2 for E is at least 90% weaker than the binding affinity of D1 for T; and wherein E is CD63. a first antigen-binding domain; and a second antigen-binding domain;
A sensor system, comprising: at least one indicator comprising an oscillating circuit that is operable in resonance the at least one indicator connected to a movable element of an actuator; and a sensor PCB comprising sensor windings, wherein the sensor PCB with the sensor windings are arranged in direct proximity to the at least one indicator and external to a closed housing, wherein the sensor PCB is configured to receive an induced signal of the at least one indicator, and to measure a position or an angle of the movable element inside the actuator through the closed housing based on inductive resonance facilitated by the oscillating circuit. at least one indicator comprising an oscillating circuit that is operable in resonance the at least one indicator connected to a movable element of an actuator; and a sensor PCB comprising sensor windings, wherein the sensor PCB with the sensor windings are arranged in direct proximity to the at least one indicator and external to a closed housing, wherein the sensor PCB is configured to receive an induced signal of the at least one indicator, and to measure a position or an angle of the movable element inside the actuator through the closed housing based on inductive resonance facilitated by the oscillating circuit.
A system comprising: a memory configured to store data associated with a service that is available; a microphone (112a-112g) associated with an acoustic space and configured to receive an audio input produced by a person; a sensor (114a-114c) located within the acoustic space and configured to receive and detect vibrations, wherein the vibrations are produced by the person and propagate from the person to the sensor via the person, an object, or a combination thereof; and a processor coupled to the memory, to the microphone, and to the sensor, the processor configured to conditionally authorize execution of the service requested by the person, the service conditionally authorized based on the audio input and the vibrations. a memory configured to store data associated with a service that is available; a microphone (112a-112g) associated with an acoustic space and configured to receive an audio input produced by a person; a sensor (114a-114c) located within the acoustic space and configured to receive and detect vibrations, wherein the vibrations are produced by the person and propagate from the person to the sensor via the person, an object, or a combination thereof; and a processor coupled to the memory, to the microphone, and to the sensor, the processor configured to conditionally authorize execution of the service requested by the person, the service conditionally authorized based on the audio input and the vibrations.
An outer sole, comprising a thermoplastic elastomer and having a surface free energy of 12 mJ/m 2 or higher across an entire surface of the outer sole, wherein the thermoplastic elastomer contains a first elastomer containing at least one elastomer selected from a chlorinated polyethylene-based elastomer, a chlorosulfonated polyethylene-based elastomer, and a styrene-based elastomer and a second elastomer other than the first elastomer, and the mass ratio first elastomer: second elastomer ranges from 85: 15 to 65: 35. wherein the thermoplastic elastomer contains a first elastomer containing at least one elastomer selected from a chlorinated polyethylene-based elastomer, a chlorosulfonated polyethylene-based elastomer, and a styrene-based elastomer and a second elastomer other than the first elastomer, and the mass ratio first elastomer: second elastomer ranges from 85: 15 to 65: 35.