mhurhangee/ep-ind-claims huggingface dataset:
A context identification indication method, applied to a User Equipment, UE, comprising: carrying part of UE context identification information and related information of identification information for a second base station in an MSG3 message, wherein the related information of identification information comprises a difference value between the identification information of the second base station and identification information of the first base station; and sending the MSG3 message to a first base station, characterized in that before carrying the part of UE context identification information and the related information of the identification information for the second base station in the MSG3 message, the method further comprises: acquiring the difference value between the identification information of the second base station and the identification information of the first base station; and determining whether the difference value is greater than a preset value. carrying part of UE context identification information and related information of identification information for a second base station in an MSG3 message, wherein the related information of identification information comprises a difference value between the identification information of the second base station and identification information of the first base station; and sending the MSG3 message to a first base station, characterized in that before carrying the part of UE context identification information and the related information of the identification information for the second base station in the MSG3 message, the method further comprises: acquiring the difference value between the identification information of the second base station and the identification information of the first base station; and determining whether the difference value is greater than a preset value. acquiring the difference value between the identification information of the second base station and the identification information of the first base station; and determining whether the difference value is greater than a preset value.
A fuel injector having a valve for actuating a movement of an injector needle, wherein the valve has a seat plate and an anchor element that optionally rests on the seat plate in order to either seal off or uncover a passage extending through the seat plate, wherein the seat plate comprises: a plate-shaped main body having a first planar face, a second planar face and at least one all-round lateral surface interconnecting the two planar faces (3, 4), the passage, which extends through the plate-shaped main body from the first planar face to the second planar face, and an insulating layer, which is arranged over the entire all-round lateral surface of the plate-shaped main body, wherein the plate-shaped main body consists of an electrically conductive material, characterised in that the insulating layer comprises or is a ceramic material, and the insulating layer is partly arranged on both planar faces (3, 4) of the plate-shaped main body such that, by way of a contiguous region on the upper planar face that is free from insulating layer, it is possible to establish an electrically conductive connection from said region to the lower planar face, so that elements of an injector arranged thereabove and therebelow are able to communicate with one another via electrical signals. a plate-shaped main body having a first planar face, a second planar face and at least one all-round lateral surface interconnecting the two planar faces (3, 4), the passage, which extends through the plate-shaped main body from the first planar face to the second planar face, and an insulating layer, which is arranged over the entire all-round lateral surface of the plate-shaped main body, wherein the plate-shaped main body consists of an electrically conductive material, characterised in that the insulating layer comprises or is a ceramic material, and the insulating layer is partly arranged on both planar faces (3, 4) of the plate-shaped main body such that, by way of a contiguous region on the upper planar face that is free from insulating layer, it is possible to establish an electrically conductive connection from said region to the lower planar face, so that elements of an injector arranged thereabove and therebelow are able to communicate with one another via electrical signals.
Crampon (1, 50, 150, 250) for amounting on a touring ski binding (100, 200) or on a ski, wherein a) the crampon (1, 50, 150, 250) can be mounted on the touring ski binding (100, 200) or on the ski so as to be pivotable about a pivot axis oriented in the ski transverse direction and, in a state in which it is mounted on the touring ski binding (100, 200) or on the ski, can be pivoted about the pivot axis into an activated position, wherein b) the crampon (1, 50, 150, 250) has a body which comprises a step region for interacting with a region of the touring ski binding or with a ski boot held in the touring ski binding so that, in the mounted state, the crampon (1, 50, 150, 250) can be pressed downwardly into the activated position as a result of force being exerted onto the step region from above by the region of the touring ski binding or the ski boot held in the touring ski binding, characterized in that the crampon (1, 50, 150, 250) comprises a spacer element (8, 51, 151) for interacting with the region of the touring ski binding or the ski boot held in the touring ski binding, wherein the spacer element (8, 51, 151) can be mounted on the crampon (1, 50, 150, 250) in an upper position in which, with the crampon (1, 50, 150, 250) in the mounted state, it is situated above the step region of the crampon (1, 50, 150, 250) in the activated position of the crampon (1, 50, 150). a) the crampon (1, 50, 150, 250) can be mounted on the touring ski binding (100, 200) or on the ski so as to be pivotable about a pivot axis oriented in the ski transverse direction and, in a state in which it is mounted on the touring ski binding (100, 200) or on the ski, can be pivoted about the pivot axis into an activated position, wherein b) the crampon (1, 50, 150, 250) has a body which comprises a step region for interacting with a region of the touring ski binding or with a ski boot held in the touring ski binding so that, in the mounted state, the crampon (1, 50, 150, 250) can be pressed downwardly into the activated position as a result of force being exerted onto the step region from above by the region of the touring ski binding or the ski boot held in the touring ski binding,
A housing of a gamepad, used for mounting an electronic device, wherein the housing comprises: housing bodies, which comprise main bodies and limiting portions, wherein the limiting portions are arranged on the main bodies; a lifting platform, which is slidably connected to the main bodies, wherein a mounting space for fixing the electronic device is formed between the lifting platform and the limiting portions; resetting members, which are connected to the lifting platform and the main bodies, wherein the resetting members release resetting forces to drive the lifting platform to approach the limiting portions, to reduce a size of the mounting space to fix the electronic device; under the action of an external force, the lifting platform is away from the limiting portions, to increase the size of the mounting space to relieve restrictions on the electronic device; and the lifting platform drives the resetting members to accumulate resetting forces; and control panels arranged on a surface of the housing and configured to control a game in the electronic device, wherein each control panel comprises a lever and control buttons, and the levers and the control buttons are arranged on two opposite sides in a lengthwise direction of the housing, characterized by: wherein guide chutes are formed in the main bodies; the lifting platform comprises guide plugs; and the guide plugs are slidably plugged into the guide chutes, so that the lifting platform is slidably connected to the main bodies. housing bodies, which comprise main bodies and limiting portions, wherein the limiting portions are arranged on the main bodies; a lifting platform, which is slidably connected to the main bodies, wherein a mounting space for fixing the electronic device is formed between the lifting platform and the limiting portions; resetting members, which are connected to the lifting platform and the main bodies, wherein the resetting members release resetting forces to drive the lifting platform to approach the limiting portions, to reduce a size of the mounting space to fix the electronic device; under the action of an external force, the lifting platform is away from the limiting portions, to increase the size of the mounting space to relieve restrictions on the electronic device; and the lifting platform drives the resetting members to accumulate resetting forces; and control panels arranged on a surface of the housing and configured to control a game in the electronic device, wherein each control panel comprises a lever and control buttons, and the levers and the control buttons are arranged on two opposite sides in a lengthwise direction of the housing, characterized by: wherein guide chutes are formed in the main bodies; the lifting platform comprises guide plugs; and the guide plugs are slidably plugged into the guide chutes, so that the lifting platform is slidably connected to the main bodies.
A method of sampling fluid from a flow system in a subsea oil and gas installation, the method comprising: providing a valve apparatus (300, 400, 550, 700) comprising: an inlet for production flow from the subsea oil and gas production installation, and an outlet for production flow; a first flow control valve (320, 420, 555, 620, 720) disposed between the inlet and the outlet; and first (315, 415, 515, 621, 715) and second (317, 417, 517, 622, 717) flow lines disposed between the inlet and the first flow control valve and the outlet and the first flow control valve, respectively; providing a sampling apparatus (360, 460, 606, 740, 860, 960) having a sampling circuit in communication with the first and second flow lines, the sampling apparatus comprising: a second (368a, 368b, 468a, 468b, 668a, 668b, 868a, 868b) flow control valve disposed in the first or second flow line; partially closing the first flow control valve (320, 420, 555, 620, 720) of the valve apparatus (300, 400, 550, 700) to create a pressure differential between the first and second flow lines and thereby create a turbulent and/or mixed flow of a production fluid and drive production fluid into the sampling circuit; and partially closing the second flow control valve (368a, 368b, 468a, 468b, 668a, 668b, 868a, 868b) to regulate the turbulent and/or mixed flow of production fluid to a sampling flow rate through the sampling circuit. providing a valve apparatus (300, 400, 550, 700) comprising: an inlet for production flow from the subsea oil and gas production installation, and an outlet for production flow; a first flow control valve (320, 420, 555, 620, 720) disposed between the inlet and the outlet; and first (315, 415, 515, 621, 715) and second (317, 417, 517, 622, 717) flow lines disposed between the inlet and the first flow control valve and the outlet and the first flow control valve, respectively; an inlet for production flow from the subsea oil and gas production installation, and an outlet for production flow; a first flow control valve (320, 420, 555, 620, 720) disposed between the inlet and the outlet; and first (315, 415, 515, 621, 715) and second (317, 417, 517, 622, 717) flow lines disposed between the inlet and the first flow control valve and the outlet and the first flow control valve, respectively; providing a sampling apparatus (360, 460, 606, 740, 860, 960) having a sampling circuit in communication with the first and second flow lines, the sampling apparatus comprising: a second (368a, 368b, 468a, 468b, 668a, 668b, 868a, 868b) flow control valve disposed in the first or second flow line; partially closing the first flow control valve (320, 420, 555, 620, 720) of the valve apparatus (300, 400, 550, 700) to create a pressure differential between the first and second flow lines and thereby create a turbulent and/or mixed flow of a production fluid and drive production fluid into the sampling circuit; and partially closing the second flow control valve (368a, 368b, 468a, 468b, 668a, 668b, 868a, 868b) to regulate the turbulent and/or mixed flow of production fluid to a sampling flow rate through the sampling circuit.
A solid formulation comprising a primary surfactant, at least one binding agent and at least one dispersant, wherein the primary surfactant is chosen from (C8-C18)alkyl amidopropyl betaines and the dispersant is a polymeric surfactant chosen from the group consisting of: hyper branched polymers, poly fatty acid esters, ethylene oxide block copolymers of poly fatty acid, polymers based on polyisobutylene succinic anhydride, and mixtures thereof.
A method of manufacturing an anti-icing honeycomb core composite, the method comprising: a forming step of forming an electromagnetic wave absorption layer having a thickness of 0.117 mm to 0.468 mm by using dielectric fiber; a molding step of molding the electromagnetic wave absorption layer into a honeycomb core structure by using a molded part comprising a first base, a second base, and an inner block; a hardening step of hardening the honeycomb core structure; and a removal step of removing the molded part, wherein the molding step comprises: a first stacking step of stacking, on the first base comprising a plurality of grooves in which the inner blocks are able to be seated, a plurality of the inner blocks and a plurality of the electromagnetic wave absorption layers as the honeycomb core structure so that the electromagnetic wave absorption layer is disposed between the plurality of inner blocks; and a second stacking step of covering the inner blocks and the electromagnetic wave absorption layers stacked on the first base with the second base having a shape identical with a shape of the first base. a forming step of forming an electromagnetic wave absorption layer having a thickness of 0.117 mm to 0.468 mm by using dielectric fiber; a molding step of molding the electromagnetic wave absorption layer into a honeycomb core structure by using a molded part comprising a first base, a second base, and an inner block; a hardening step of hardening the honeycomb core structure; and a removal step of removing the molded part, wherein the molding step comprises: a first stacking step of stacking, on the first base comprising a plurality of grooves in which the inner blocks are able to be seated, a plurality of the inner blocks and a plurality of the electromagnetic wave absorption layers as the honeycomb core structure so that the electromagnetic wave absorption layer is disposed between the plurality of inner blocks; and a second stacking step of covering the inner blocks and the electromagnetic wave absorption layers stacked on the first base with the second base having a shape identical with a shape of the first base. a first stacking step of stacking, on the first base comprising a plurality of grooves in which the inner blocks are able to be seated, a plurality of the inner blocks and a plurality of the electromagnetic wave absorption layers as the honeycomb core structure so that the electromagnetic wave absorption layer is disposed between the plurality of inner blocks; and a second stacking step of covering the inner blocks and the electromagnetic wave absorption layers stacked on the first base with the second base having a shape identical with a shape of the first base.
A method for determining a minimum inter-vehicular distance for a platoon of vehicles, the method comprising obtaining information related to a predicted quality of service, pQoS, of communication links between the vehicles of the platoon; a speed of the vehicles of the platoon; one or more maximum decelerations of the vehicles of the platoon; and using a functional relationship between the pQoS, the speed, the one or more maximum decelerations, and an inter-vehicular distance to determine the minimum inter-vehicular distance in a control module, the minimum inter-vehicular distance enabling the vehicles of the platoon to reach a stand-still without any collision in an emergency brake situation, wherein the pQoS comprises a packet inter-reception time, wherein the functional relationship is based on simulated and/or measurement data, and wherein the functional relationship is based on a linear regression of data. obtaining information related to a predicted quality of service, pQoS, of communication links between the vehicles of the platoon; a speed of the vehicles of the platoon; one or more maximum decelerations of the vehicles of the platoon; and a predicted quality of service, pQoS, of communication links between the vehicles of the platoon; a speed of the vehicles of the platoon; one or more maximum decelerations of the vehicles of the platoon; and using a functional relationship between the pQoS, the speed, the one or more maximum decelerations, and an inter-vehicular distance to determine the minimum inter-vehicular distance in a control module, the minimum inter-vehicular distance enabling the vehicles of the platoon to reach a stand-still without any collision in an emergency brake situation, wherein the pQoS comprises a packet inter-reception time, wherein the functional relationship is based on simulated and/or measurement data, and wherein the functional relationship is based on a linear regression of data.
A tower comprising a plurality of tower sections (210, 220), wherein at least one tower section comprises at least two subsections (100, 102), wherein the at least two subsections (100, 102) each comprise at least one longitudinal flange (130, 150) connected to a shell segment of the tower section, wherein a single-piece longitudinal flange of a first subsection of the at least two subsections is directly connected to a one-piece longitudinal flange of a second subsection of the at least two subsections, wherein a gap exists between the shell segment of the first subsection and the shell segment of the second subsection, wherein a gap exists between the ends of the two neighboring, one-piece longitudinal flanges facing the shell segments, wherein the gap between the two neighboring, one-piece longitudinal flanges is larger than the gap between the shell segments of the at least two subsections.
Label-holder element for electrical wires, comprising a body (410;510) extending in a longitudinal lengthwise direction (X-X), in use parallel to a lengthwise direction of the wire, transverse widthwise direction (Y-Y) and vertical thickness direction (Z-Z), with a front face provided with a seat for a label, side faces opposite to each other in the transverse direction (Y-Y) and a rear face opposite to the front face in the vertical direction (Z-Z), said seat having an opposite top and bottom edges which extend in the transverse direction (Y-Y), are arranged opposite each other in the longitudinal direction (X-X) and are formed in the manner of engaging means (21,22) for retaining a label; the label holder element further comprising means for coupling with an electrical wire comprising at least one pair (440;540) of teeth (441;541) extending outwards from a rear surface (410c;510c) independent of one another, the teeth (441;541) of one pair being arranged staggered in the longitudinal direction (X-X) for mounting on or for engagement with the wire, the teeth (441;541) of one pair having a free end (441a;541a) directed towards the other tooth in the transverse direction (Y-Y); characterized in that said means for engaging the label are formed in the manner of a respective tooth (21,22), each tooth forming a corresponding undercut towards the inside of the seat, and being, in use, extended along the transverse direction (Y-Y)
A method for transmitting, by a first station, STA, a signal to a second STA in a wireless local area network, WLAN, system, comprising: generating a training subfield including a plurality of Orthogonal Frequency Division Multiplexing, OFDM, symbols; and transmitting the signal including an enhanced directional multi-gigabit, EDMG, header A field, a data field and a training field to the second STA, wherein the signal is an EDMG physical layer protocol data unit, PPDU, wherein the training field starts with T repetitions of the training subfield, wherein the training subfield is configured based on an OFDM training basic sequence, wherein the OFDM training basic sequence is configured for 2.16 GHz channel, 4.32 GHz channel, 6.48 GHz channel, or 8.64 GHz channel, wherein the OFDM training basic sequence is configured for a maximum of eight space-time streams, wherein the OFDM training basic sequence includes a left sequence, a zero sequence being contiguous to the left sequence, and a right sequence being contiguous to the zero sequence, wherein the zero sequence is {0, 0, 0}, wherein a value of T is defined based on a training subfield sequence length field of the EDMG header A field, wherein when the training subfield sequence length field is '0', T is set to '2', wherein when the training subfield sequence length field is '1', T is set to '1', wherein when the training subfield sequence length field is '2', T is set to '4'. generating a training subfield including a plurality of Orthogonal Frequency Division Multiplexing, OFDM, symbols; and transmitting the signal including an enhanced directional multi-gigabit, EDMG, header A field, a data field and a training field to the second STA, wherein the signal is an EDMG physical layer protocol data unit, PPDU, wherein the training field starts with T repetitions of the training subfield, wherein the training subfield is configured based on an OFDM training basic sequence, wherein the OFDM training basic sequence is configured for 2.16 GHz channel, 4.32 GHz channel, 6.48 GHz channel, or 8.64 GHz channel, wherein the OFDM training basic sequence is configured for a maximum of eight space-time streams, wherein the OFDM training basic sequence includes a left sequence, a zero sequence being contiguous to the left sequence, and a right sequence being contiguous to the zero sequence, wherein the zero sequence is {0, 0, 0}, wherein a value of T is defined based on a training subfield sequence length field of the EDMG header A field, wherein when the training subfield sequence length field is '0', T is set to '2', wherein when the training subfield sequence length field is '1', T is set to '1', wherein when the training subfield sequence length field is '2', T is set to '4'.
A sensing system for a vacuum flush waste system, comprising: a housing, a flush valve plate positioned within the housing, the flush valve plate having a rotational shaft and a port, the housing having a waste opening; a magnet positioned on the rotational shaft; characterized in that the sensing system further comprises a magnet position sensor positioned adjacent to the magnet and configured to sense the absolute position of the magnet, wherein the sensing system senses the absolute position of the magnet in order to relay information about a location of the port with respect to the waste opening at open or closed, but also at any position in between. a housing, a flush valve plate positioned within the housing, the flush valve plate having a rotational shaft and a port, the housing having a waste opening; a magnet positioned on the rotational shaft; characterized in that the sensing system further comprises a magnet position sensor positioned adjacent to the magnet and configured to sense the absolute position of the magnet, wherein the sensing system senses the absolute position of the magnet in order to relay information about a location of the port with respect to the waste opening at open or closed, but also at any position in between.