mhurhangee/ep-ind-claims huggingface dataset:
A method for processing data in Ethernet, wherein the Ethernet comprises a first network device and a second network device, the first network device is coupled with the second network device by using the Ethernet, and the method comprises: receiving, by the first network device, plesiochronous digital hierarchy, PDH, frame data; performing, by the first network device, virtual-container mapping processing on the PDH frame data, wherein the virtual-container mapping processing comprises: loading the PDH frame data and a stuffing bit into a virtual container, to obtain the virtual container that comprises the PDH frame data, wherein the stuffing bit carries information about a clock frequency difference between a clock frequency of the Ethernet and a clock frequency of the PDH frame data; performing, by the first network device, virtual-container pseudo-wire emulation edge-to-edge, PWE 3, encapsulation on the virtual container to obtain virtual-container PWE 3 encapsulated data; and obtaining, by the first network device, the virtual-container PWE 3 packet according to the virtual-container PWE 3 encapsulated data, and sending the virtual-container PWE 3 packet to the second network device by using the Ethernet. receiving, by the first network device, plesiochronous digital hierarchy, PDH, frame data; performing, by the first network device, virtual-container mapping processing on the PDH frame data, wherein the virtual-container mapping processing comprises: loading the PDH frame data and a stuffing bit into a virtual container, to obtain the virtual container that comprises the PDH frame data, wherein the stuffing bit carries information about a clock frequency difference between a clock frequency of the Ethernet and a clock frequency of the PDH frame data; performing, by the first network device, virtual-container pseudo-wire emulation edge-to-edge, PWE 3, encapsulation on the virtual container to obtain virtual-container PWE 3 encapsulated data; and obtaining, by the first network device, the virtual-container PWE 3 packet according to the virtual-container PWE 3 encapsulated data, and sending the virtual-container PWE 3 packet to the second network device by using the Ethernet.
A drill bit (200, 200', 300) for core sampling, comprising: a body having a central axis, a first end, and a back end that is configured to couple with a core barrel and is located on an opposite end of the body relative to the first end, the first end having a tapered outer surface and a radius plane perpendicular to the central axis, wherein, moving toward the back end, the tapered outer surface begins with a narrow portion and transitions to a broader portion; a plurality of inserts (220, 320) extending upwardly from the first end of the body, each insert having a base and a cutting blade that tapers inwardly as it extends away from the base, the cutting blade including a leading edge surface (221, 321) and a top or cutting edge surface (222, 322), the leading edge surface of each insert being oriented at an attack angle relative to the central axis, the cutting edge surface of each insert being oriented at an axial angle relative to the radius plane; wherein the attack angle is between about -60 degrees and about 60 degrees relative to the central axis; and a plurality of helical bands coupled to an outer surface of the drill bit and aligned with the inserts, wherein the plurality of helical bands work in combination with the inserts and the tapered outer surface of the first end of the body to move displaced material away from the first end of the body. a body having a central axis, a first end, and a back end that is configured to couple with a core barrel and is located on an opposite end of the body relative to the first end, the first end having a tapered outer surface and a radius plane perpendicular to the central axis, wherein, moving toward the back end, the tapered outer surface begins with a narrow portion and transitions to a broader portion; a plurality of inserts (220, 320) extending upwardly from the first end of the body, each insert having a base and a cutting blade that tapers inwardly as it extends away from the base, the cutting blade including a leading edge surface (221, 321) and a top or cutting edge surface (222, 322), the leading edge surface of each insert being oriented at an attack angle relative to the central axis, the cutting edge surface of each insert being oriented at an axial angle relative to the radius plane; wherein the attack angle is between about -60 degrees and about 60 degrees relative to the central axis; and a plurality of helical bands coupled to an outer surface of the drill bit and aligned with the inserts, wherein the plurality of helical bands work in combination with the inserts and the tapered outer surface of the first end of the body to move displaced material away from the first end of the body.
Adjustment device for a vehicle chassis, comprising at least one spindle, which spindle has a thread, furthermore comprising a spindle nut which is screwable onto the thread, and at least one first and one second stop means (5, 6), which stop means (5, 6) each have at least one stop surface (19, 20) and are arranged and configured so as, in a stop position, to limit the axial movement of spindle and spindle nut relative to each other, wherein the first stop means is arranged on the spindle nut and the second stop means is arranged on the spindle, wherein the stop means (5, 6) are arranged in such a manner that, in the stop position, the stop surfaces (19, 20) are in contact in the direction of a relative rotational movement between spindle and spindle nut, characterized in that at least one of the stop means (5, 6), preferably the second stop means, is configured so as to be displaceable in the axial direction.
Arrangement for enhancing conditions of various types in a coastal area comprising one or more actuating mechanisms capturing energy from waves and/or tide and converting captured energy to another form of energy and/or producing unsalted water, the actuating mechanism comprising at least a base, on which a reciprocating flap is installed by the help of at least a pivot shaft and at least one actuating mechanism of the arrangement is arranged to make an impact on the water area surrounding the arrangement, and the reciprocating flap of the actuating mechanism comprises a water-permeable primary flap part for marine growth to adhere and to form a partly or totally impermeable organic covering for the flap, characterized in that the primary flap part comprises gripping elements and netlike covering element suitable for marine growth to adhere to form said partly or totally impermeable organic covering for the flap.
A charging gun, comprising a gun head, a microswitch, and a gun body assembly, wherein the gun body assembly comprises a gun cover assembly, a gun body, a sealing ring, a tail cover and a cable, the gun cover assembly is detachably connected to the gun body, the cable is sleeved with the sealing ring, and the cable is connected to the gun body through the tail cover; wherein the gun head is connected to the gun body by a screw or clamped to the gun body by a reverse buckle; and wherein the gun cover assembly comprises a gun cover body and a clamping hook button, characterized in that: the microswitch is disposed on the gun head, one end of the clamping hook button is provided with a clamping hook, the other end thereof is provided with a button, the clamping hook is connected to the microswitch, a rotating shaft is further disposed at a middle position between the clamping hook and the button, the clamping hook button is pivotally connected to the gun body through the rotating shaft, a compression assembly is further disposed between the button and the gun body, and the gun cover body covers the clamping hook button and is detachably connected to the gun body; and the gun head, the gun cover body and the clamping hook button are replaceable. wherein the gun body assembly comprises a gun cover assembly, a gun body, a sealing ring, a tail cover and a cable, the gun cover assembly is detachably connected to the gun body, the cable is sleeved with the sealing ring, and the cable is connected to the gun body through the tail cover; wherein the gun head is connected to the gun body by a screw or clamped to the gun body by a reverse buckle; and wherein the gun cover assembly comprises a gun cover body and a clamping hook button, characterized in that: the microswitch is disposed on the gun head, one end of the clamping hook button is provided with a clamping hook, the other end thereof is provided with a button, the clamping hook is connected to the microswitch, a rotating shaft is further disposed at a middle position between the clamping hook and the button, the clamping hook button is pivotally connected to the gun body through the rotating shaft, a compression assembly is further disposed between the button and the gun body, and the gun cover body covers the clamping hook button and is detachably connected to the gun body; and the gun head, the gun cover body and the clamping hook button are replaceable. the microswitch is disposed on the gun head, one end of the clamping hook button is provided with a clamping hook, the other end thereof is provided with a button, the clamping hook is connected to the microswitch, a rotating shaft is further disposed at a middle position between the clamping hook and the button, the clamping hook button is pivotally connected to the gun body through the rotating shaft, a compression assembly is further disposed between the button and the gun body, and the gun cover body covers the clamping hook button and is detachably connected to the gun body; and the gun head, the gun cover body and the clamping hook button are replaceable.
A drainable ostomy pouch having generally parallel sidewalls (12, 14) of flexible sheet material joined along their edges to define a chamber therebetween and having a downwardly extending neck portion terminating in a discharge opening for draining the contents from the chamber, the discharge opening being closed by folding the neck portion upwardly, the neck portion having first and second transversely extending curved spring members (22, 24) associated therewith, characterized by the first curved spring member being located nearer the discharge opening than the second curved spring member and each of the spring members (22, 24) being curved smoothly and outwardly relative to the neck portion, the curved spring members (22, 24) being located relative to one another so the first curved spring member nearer the discharge opening nests with the second curved spring member when the neck portion has been folded upwardly, wherein the first curved spring member is at or near the discharge opening, the first curved spring member having first and second transversely extending edges (22a, 22b) with the first transversely extending edge being at or near the discharge opening and the second transversely extending edge generally parallel to the first transversely extending edge, the second curved spring member being longitudinally adjacent the second transversely extending edge of the first curved spring member.
A driving device configured to drive a power semiconductor switch module based on a main control signal, the driving device comprising: a voltage-modulating unit comprising a signal processing unit configured to receive the main control signal and to modulate the main control signal; a driving module configured to demodulate the modulated main control signal to generate a driving signal for turning-on and turning-off the power semiconductor switch module based on the main control signal; and a transforming unit coupled between the voltage-modulating unit and the driving module, and configured to transfer the modulated main control signal from the voltage-modulating unit to the driving module, characterized in that the voltage-modulating unit comprises: a turn-off circuit configured to receive a protection signal and to generate a driving-regulating signal based on the protection signal, the signal processing unit being configured to receive the driving-regulating signal and to generate a turn-off pulse signal based on the driving-regulating signal, and the transforming unit is configured to transfer the turn-off pulse signal from the voltage-modulating unit to the driving module, and the driving module is configured to turn off the power semiconductor switch module based on said turn-off pulse signal. a voltage-modulating unit comprising a signal processing unit configured to receive the main control signal and to modulate the main control signal; a driving module configured to demodulate the modulated main control signal to generate a driving signal for turning-on and turning-off the power semiconductor switch module based on the main control signal; and a transforming unit coupled between the voltage-modulating unit and the driving module, and configured to transfer the modulated main control signal from the voltage-modulating unit to the driving module, characterized in that the voltage-modulating unit comprises: a turn-off circuit configured to receive a protection signal and to generate a driving-regulating signal based on the protection signal, the signal processing unit being configured to receive the driving-regulating signal and to generate a turn-off pulse signal based on the driving-regulating signal, and the transforming unit is configured to transfer the turn-off pulse signal from the voltage-modulating unit to the driving module, and the driving module is configured to turn off the power semiconductor switch module based on said turn-off pulse signal. a turn-off circuit configured to receive a protection signal and to generate a driving-regulating signal based on the protection signal, the signal processing unit being configured to receive the driving-regulating signal and to generate a turn-off pulse signal based on the driving-regulating signal, and the transforming unit is configured to transfer the turn-off pulse signal from the voltage-modulating unit to the driving module, and the driving module is configured to turn off the power semiconductor switch module based on said turn-off pulse signal.
A MIG welded joint between aluminum and steel members (12, 14) obtained by overlapping the aluminum member and the steel member each other and performing a MIG welding operation on an end face of the aluminum member, comprising the steps of: providing the aluminum member having a thickness P ranging from 0.5 to 2.0 mm and the steel member having a thickness Q satisfying the following formula: 0.6 ≦ Q/P ≦ 0.8; providing a filler wire made of a 4000 or 5000 series aluminum alloy having a diameter L ranging from 0.8 to 1.6 mm; locating the filler wire such that, a center line of the filler wire is positioned between a distance of L away from a reference point toward an overlapped region of the aluminum member and the steel member and a distance of 2L away from the reference point toward a side opposite to the overlapped region, the reference point being set at a corner of the end face of the aluminum member on the steel member side; and applying a pulsed DC to the filler wire so as to constantly form a molten weld pool at a weld zone, the pulsed DC allowing one molten droplet to fall with each pulse at a pulse frequency of 0.5 to 5 times per a welding length of 1 mm, while allowing the filler wire to come into contact with the molten weld pool at a frequency of 0.1 to 4 times per a welding length of 1 mm in order to cause short circuit, whereby the MIG welding operation is performed along the end face of the aluminum member; wherein a penetration depth of the steel member is 5% or less of the thickness Q thereof. providing the aluminum member having a thickness P ranging from 0.5 to 2.0 mm and the steel member having a thickness Q satisfying the following formula: 0.6 ≦ Q/P ≦ 0.8; providing a filler wire made of a 4000 or 5000 series aluminum alloy having a diameter L ranging from 0.8 to 1.6 mm; locating the filler wire such that, a center line of the filler wire is positioned between a distance of L away from a reference point toward an overlapped region of the aluminum member and the steel member and a distance of 2L away from the reference point toward a side opposite to the overlapped region, the reference point being set at a corner of the end face of the aluminum member on the steel member side; and applying a pulsed DC to the filler wire so as to constantly form a molten weld pool at a weld zone, the pulsed DC allowing one molten droplet to fall with each pulse at a pulse frequency of 0.5 to 5 times per a welding length of 1 mm, while allowing the filler wire to come into contact with the molten weld pool at a frequency of 0.1 to 4 times per a welding length of 1 mm in order to cause short circuit, whereby the MIG welding operation is performed along the end face of the aluminum member; wherein a penetration depth of the steel member is 5% or less of the thickness Q thereof.
An implantation detector for an implant device, the implantation detector comprising: a clock signal generator configured to generate a clock signal; a switch connected between (i) a counter electrode, CE, node configured to be electrically coupled to a counter electrode, CE, of a sensor and (ii) ground, wherein the switch is configured to short the CE node with ground in response to the clock signal; and a voltage detector configured to detect a voltage between the CE node and ground, wherein the voltage detector is configured to output a signal based on the voltage to activate a sensing circuit in the implant device for measuring at least one physiological parameter of an individual. a clock signal generator configured to generate a clock signal; a switch connected between (i) a counter electrode, CE, node configured to be electrically coupled to a counter electrode, CE, of a sensor and (ii) ground, wherein the switch is configured to short the CE node with ground in response to the clock signal; and a voltage detector configured to detect a voltage between the CE node and ground, wherein the voltage detector is configured to output a signal based on the voltage to activate a sensing circuit in the implant device for measuring at least one physiological parameter of an individual.
Laundry treatment appliance, in particular a tumble dryer, comprising a loading opening on the front of the housing which can be closed by a door, the door consisting of a door mounting ring which can be pivoted by means of a hinge and can be closed by means of a latch, at least one door-cover ring (5, 6) being attached to said door mounting ring, the door-cover ring being fixed to the door mounting ring by radially arranged catches (41, 51) and the catches (41, 51) being formed as a bayonet closure between the door mounting ring and the door-cover ring (5, 6), and the catches (41, 51) being arranged so as to be distributed over the circumference of the door mounting ring and the door-cover ring (5, 6), and one catch consisting of a spring stud which is integrally formed on the door mounting ring and interacts with a clamping stud integrally formed on the door-cover ring, the spring stud being arranged on the door mounting ring on the one hand and the clamping stud being arranged on the door-cover ring on the other hand such that they are parallel to one another, characterised in that, for latching purposes, the spring stud has a depression which interacts with a cam arranged on the clamping stud.
A nozzle plate holding device (3;3A;3B;3C) comprising a holding section for holding a nozzle plate arranged with a plurality of nozzles, the nozzle plate holding device (3;3A;3B;3C) intended to be used for bonding the nozzle plate, while the holding section holds the nozzle plate, onto a head chip arranged with a plurality of channels, wherein the holding section is configured to be capable of causing a distortion deformation of the nozzle plate in a direction that is parallel to a surface of the nozzle plate and crosses a length direction of the nozzle plate, characterised in that the holding section comprises two end holding units for holding the nozzle plate at both end parts of the nozzle plate, and one center holding unit for holding the nozzle plate at a central part, in the length direction of the nozzle plate, and in that the nozzle plate holding device (3;3A;3B;3C) is arranged to cause the distortion deformation of the nozzle plate by moving the center holding unit relative to the two end holding units in the direction that is parallel to the surface of the nozzle plate and crosses the length direction of the nozzle plate.
A method in a base station for scheduling a user equipment in a communication system, wherein the method comprises: receiving a first part of a Channel State Information, CSI, from the user equipment in a first Transmission Time Interval, TTI, or a second part of the CSI from the user equipment in a second TTI, such that the complete CSI is multiplexed in a plurality of TTIs, which CSI comprises at least one of a Channel Quality Information, CQI, a Rank Indicator, RI, a Precoding Channel Indicator, PCI, and an Hybrid Automatic Repeat reQuest ACKnowledgement/Not ACKnowledgement, HARQ ACK/NACK; characterized in that the method further comprises: determining (902, 904, 908, 1002) whether or not the received first part of the CSI in the first TTI or the received second part of the CSI in the second TTI is received using a single data stream; scheduling (903, 905, 909, 1004) the user equipment with a first transmission type when the received first part of the CSI in the first TTI or the received second part of the CSI in the second TTI is received using the single data stream; and scheduling (906, 907, 910, 1005) the user equipment with a second transmission type when the received first part of the CSI in the first TTI or the received second part of the CSI in the second TTI is not received using the single data stream receiving a first part of a Channel State Information, CSI, from the user equipment in a first Transmission Time Interval, TTI, or a second part of the CSI from the user equipment in a second TTI, such that the complete CSI is multiplexed in a plurality of TTIs, which CSI comprises at least one of a Channel Quality Information, CQI, a Rank Indicator, RI, a Precoding Channel Indicator, PCI, and an Hybrid Automatic Repeat reQuest ACKnowledgement/Not ACKnowledgement, HARQ ACK/NACK; determining (902, 904, 908, 1002) whether or not the received first part of the CSI in the first TTI or the received second part of the CSI in the second TTI is received using a single data stream; scheduling (903, 905, 909, 1004) the user equipment with a first transmission type when the received first part of the CSI in the first TTI or the received second part of the CSI in the second TTI is received using the single data stream; and scheduling (906, 907, 910, 1005) the user equipment with a second transmission type when the received first part of the CSI in the first TTI or the received second part of the CSI in the second TTI is not received using the single data stream