mhurhangee/ep-ind-claims huggingface dataset:
A resource scheduling method, comprising: receiving, by a SMF, second information, and determining first information based on the second information; sending, by the SMF, the first information to a first network device; and/or, sending, by the SMF, the first information to a terminal device; wherein the first information comprises at least one of the following: s service cycle of a first service and a service type of the first service, wherein the first information comprises information to indicate: a resource reservation and/or scheduling strategy for a QoS flow bearing the first service in the first network device; wherein the sending the first information to the first network device and/or the terminal device comprises: sending the first information to the first network device and/or the terminal device when a preset condition is met, wherein, the second information comprises at least one of the following: a time window cycle, a service arrival time point, an available time-frequency resource, and continuous arrival time of data packet, and the first network device is a base station device. receiving, by a SMF, second information, and determining first information based on the second information; sending, by the SMF, the first information to a first network device; and/or, sending, by the SMF, the first information to a terminal device; wherein the first information comprises at least one of the following: s service cycle of a first service and a service type of the first service, wherein the first information comprises information to indicate: a resource reservation and/or scheduling strategy for a QoS flow bearing the first service in the first network device; wherein the sending the first information to the first network device and/or the terminal device comprises: sending the first information to the first network device and/or the terminal device when a preset condition is met, wherein, the second information comprises at least one of the following: a time window cycle, a service arrival time point, an available time-frequency resource, and continuous arrival time of data packet, and the first network device is a base station device. a resource reservation and/or scheduling strategy for a QoS flow bearing the first service in the first network device; wherein the sending the first information to the first network device and/or the terminal device comprises: sending the first information to the first network device and/or the terminal device when a preset condition is met, wherein, the second information comprises at least one of the following: a time window cycle, a service arrival time point, an available time-frequency resource, and continuous arrival time of data packet, and the first network device is a base station device. sending the first information to the first network device and/or the terminal device when a preset condition is met, wherein, the second information comprises at least one of the following: a time window cycle, a service arrival time point, an available time-frequency resource, and continuous arrival time of data packet, and the first network device is a base station device.
Device for supplying pressurised fluid, in particular pressurised gas, comprising a reservoir of pressurised fluid provided with an orifice wherein is fixed a first tap housing an internal fluid circuit provided with at least one isolation valve, the first tap comprising a body of generally elongated shape extending along a longitudinal axis between a first end connected to the reservoir and a second connection end, the device comprising a cap for protecting the first tap, the cap being mounted on the reservoir and delimiting a protective enclosure around the first tap provided with an access opening to the second end of the first tap, the device further comprising a fluid transfer member forming a physical entity that is separate from the first tap and from the reservoir, the transfer member comprising an internal pressurised fluid transfer circuit, the transfer member and said first tap comprising respective hooking members (7, 8) forming a detachable rapid connection system of the transfer member on the second end of the tap, in the connected position of the transfer member on the first tap, the internal circuit of the transfer member being fluidically connected to the internal circuit of the first tap, one at least from among: the transfer member and the first tap comprising a mechanical locking member of at least one of the hooking members (7, 8), the locking member being movable and able to be manually actuated between an active position blocking the relative movement of the hooking members (7, 8) in order to prevent the detaching of the transfer member with respect to the first tap and an inactive position allowing the relative movement of the hooking members (7, 8) in order to allow the detaching of the transfer member with respect to the first tap, characterised in that in the connected position of the transfer member on the first tap, only a portion of the locking member is housed inside the protective volume delimited by the cap and in that the locking member is manually accessible for a user outside the cap.
Method for cutting wavy human head hair, wherein the wave of the hair comprises wave troughs facing the head and wave peaks facing away from the head, wherein the hair is cut in a first cutting region of the wave form if the ends of the hair are intended to face away from the head after the cutting, and wherein the hair is cut in a second cutting region of the wave form if the ends of the hair are intended to face towards the head after the cutting, wherein the first cutting region is formed by a surrounding region of the highest point of the first wave peak, viewed from the hair root, and the second cutting region is formed by a surrounding region of the reversal point of the falling flank, facing away from the hair root, of the first wave peak viewed from the hair root, and wherein the first cutting region starts, proceeding from the hair root, at 38% of the distance from the hair root to the lowest point of the first wave trough, and/or ends at 39% of the distance from the hair root to the highest point of the second wave peak, and wherein the second cutting region starts, proceeding from the hair root, at 61% of the distance from the hair root to the lowest point of the first wave trough, and/or ends at 62% of the distance from the hair root to the highest point of the second wave peak.
A method for measuring time of flight of radiation, the method comprising emitting modulated radiation in response to a first modulation signal, projecting the modulated radiation onto a scene, receiving radiation, the received radiation comprising at least modulated radiation reflected by the scene, converting the received radiation (26, 27) into a radiation induced electrical signal, mixing the radiation induced electrical signal with a second modulation signal, thus generating a mixed signal, integrating the mixed signal, thus generating an integrated signal, injecting charge into the integrated signal when the integrated signal exceeds a threshold value, applying changes to the first and/or second modulation signal at one or more moments in time, measuring the integrated signal at one or more moments in time, thus obtaining at least one TOF pair difference signal, the measuring including using a single detector node and associated capacitor, to obtain a TOF pair difference signal, characterized in that it further comprises obtaining a corrected TOF pair difference signal by subtracting a value substantially equal to one or more times a voltage corresponding to the amplitude of the injected charge from the TOF pair difference whenever this difference is larger than half of the value substantially equal to one or more times the voltage corresponding to the amplitude of the injected charge and adding a value substantially equal to one or more times a voltage corresponding to the amplitude of the injected charge to the TOF pair difference whenever this difference is lower than minus half of the value substantially equal to one or more times the voltage corresponding to the amplitude of the injected charge, and using one or more corrected TOF pair difference signals to determine time of flight of radiation.
Pneumatic spring assembly for vehicles, in particular for rail vehicles, having a pneumatic spring, wherein at least one first tilting element is connected to the pneumatic spring, wherein the at least one first tilting element is embodied as a pivoted joint, and wherein the pivoted joint has at least one resilient return element, characterised in that a second tilting element, which is embodied as a tilting spring, is connected to the at least first tilting element, wherein the tilting spring is designed as an elastomer metal spring, which has arch-shaped intermediate plates with curvatures which increase in the direction of a longitudinal axis toward the pneumatic spring, and/or which has V-shaped intermediate plates with inclinations which increase in the direction of the longitudinal axis, toward the pneumatic spring, with respect to a first transverse axis, as a result of which the at least first tilting element is tilting opposite to the transverse movements of the pneumatic spring.
An in-situ rebuild method for in-situ rebuilding and repairing pipes and containment structures by resin vacuum infusion, comprising the steps of: applying one or more layers of a self-adhesive fiber sheet onto a surface to be treated of the pipe or containment structure, the surface to be treated being a surrounding inner or outer surface surrounding a defective section of the pipe or containment structure; encapsulating with a vacuum bag said one or more layers of the self-adhesive fiber sheet applied onto said surface to be treated; creating by means of a vacuum system a low pressure into a space between the vacuum bag and the surface to be treated to compress the one or more layers of the self-adhesive fiber sheet; injecting by means of an injection system an impregnation curable resin into said space between the vacuum bag and the surface to be treated where the low pressure has been created to impregnate the one or more layers of the self-adhesive fiber sheet with said impregnation curable resin; stopping the injecting and letting the impregnation curable resin to cure thereby forming a composite rebuild laminate; and disconnecting said vacuum system and said injection system and removing the vacuum bag, the method being characterized in that: the vacuum bag is a tubular surrounding vacuum bag covering said surrounding inner or outer surface to be treated; and the surrounding inner or outer surface to be treated is roughened by a roughening technique previous to said step of applying the one or more layers of the self-adhesive fiber sheet. applying one or more layers of a self-adhesive fiber sheet onto a surface to be treated of the pipe or containment structure, the surface to be treated being a surrounding inner or outer surface surrounding a defective section of the pipe or containment structure; encapsulating with a vacuum bag said one or more layers of the self-adhesive fiber sheet applied onto said surface to be treated; creating by means of a vacuum system a low pressure into a space between the vacuum bag and the surface to be treated to compress the one or more layers of the self-adhesive fiber sheet; injecting by means of an injection system an impregnation curable resin into said space between the vacuum bag and the surface to be treated where the low pressure has been created to impregnate the one or more layers of the self-adhesive fiber sheet with said impregnation curable resin; stopping the injecting and letting the impregnation curable resin to cure thereby forming a composite rebuild laminate; and disconnecting said vacuum system and said injection system and removing the vacuum bag, the vacuum bag is a tubular surrounding vacuum bag covering said surrounding inner or outer surface to be treated; and the surrounding inner or outer surface to be treated is roughened by a roughening technique previous to said step of applying the one or more layers of the self-adhesive fiber sheet.
A wireless charging device comprising: a shell; a charging assembly comprising a circuit board, a chip, a charging coil and an exciting unit; and a connecting assembly defining a first end electrically connected with the circuit board; characterized in that the wireless charging device comprises a heat conduction plate having a U-shape, comprising a first portion, a second portion parallel with the first portion and contacted with an inner surface of the shell, and a third portion connecting a lower edge of the first portion to a lower edge of the second portion; and that the charging assembly is disposed between the first and second portions (201, 202), and the chip of the charging assembly is disposed on the circuit board and contacted with the first portion. a shell; a charging assembly comprising a circuit board, a chip, a charging coil and an exciting unit; and a connecting assembly defining a first end electrically connected with the circuit board; characterized in that the wireless charging device comprises a heat conduction plate having a U-shape, comprising a first portion, a second portion parallel with the first portion and contacted with an inner surface of the shell, and a third portion connecting a lower edge of the first portion to a lower edge of the second portion; and that the charging assembly is disposed between the first and second portions (201, 202), and the chip of the charging assembly is disposed on the circuit board and contacted with the first portion.
A compound that is: 2-(bis(2-hydroxybutyl)amino)-2-(hydroxymethyl)propane-1,3-diol; 2-(bis(2-hydroxypropyl)amino)-2-(hydroxymethyl)propane-1,3-diol; 1,1'-((1-hydroxy-2-methylpropan-2-yl)azanediyl)bis(propan-2-ol); 1,1'-((1-hydroxy-2-methylpropan-2-yl)azanediyl)bis(butan-2-ol); 2-((2-hydroxybutyl)amino)-2-(hydroxymethyl)propane-1,3-diol; 2-ethyl-2-((2-hydroxybutyl)amino)propane-1,3-diol; 2-((2-hydroxy-3-isopropoxypropyl)amino)-2-methylpropane-1,3-diol; 2-((2-hydroxy-3-isopropoxypropyl)amino)-2-(hydroxymethyl)propane-1,3-diol; 2-(bis(2-hydroxybutyl)amino)-2-ethylpropane-1,3-diol; 2-(bis(2-hydroxypropyl)amino)-2-ethylpropane-1,3-diol; or 3,3'-((2,4,4-trimethylpentan-2-yl)azanediyl)bis(propane-1,2-diol).
Transfer device with pliers for transferring boards from a first conveyor to a second conveyor, having at least two discs on which clamping levers having gripping jaws are pivotably mounted and which comprise drivers projecting from the outer periphery of the discs, wherein the clamping levers are pivoted by at least one elastic element into their standby position, in which they are arranged within the outer periphery of the discs, and wherein in each case one of the clamping levers of each disc is pivoted for clamping a board between a driver and a gripping jaw of one of the clamping levers by a positive control means (9, 10), wherein at least one of the discs is associated with a further disc with drivers, characterized in that the further disc either stands still or is synchronously driven in rotation with the disc with the clamping levers.
A sliding nozzle device comprising: a fixed metal frame for holding an upper plate that has a nozzle hole; a sliding metal frame for holding a lower plate that has a nozzle hole of identical diameter as the nozzle hole of the upper plate, configured to linearly slide to move the lower plate in a sliding manner with respect to the upper plate; an elastic body for loading surface pressure between the upper plate and the lower plate; an opening and closing metal frame attached to the fixed metal frame, for holding the sliding metal frame in a slidable manner; and a driving device of the sliding metal frame, the sliding metal frame and the opening and closing metal frame each having sliding members (33, 46) disposed symmetrical about a sliding direction center line of the sliding metal frame and parallel to a sliding direction, and the sliding members coming in contact with each other on their sliding contact surfaces (33a; 46a) in a sliding manner, characterized in that the sliding contact surfaces of the sliding member of the opening and closing metal frame is provided front and rear along the sliding direction, away from each other by a length of a nozzle hole diameter or more from a plane serving as a center, the plane passing through a center axis of the nozzle hole of the upper plate and being perpendicular to the sliding direction, and a part between the front and rear sliding contact surfaces serves as a depressed part; the sliding member on the opening and closing metal frame and the sliding member on the sliding metal frame are each provided capable of being fit to a depressed part of the sliding metal frame and the depressed part of the opening and closing metal frame, and by sliding the sliding metal frame, surface pressure is released when the sliding member on the opening and closing metal frame and the sliding member on the sliding metal frame are fit to their respective depressed parts (34, 47), and surface pressure is loaded when the sliding member on the opening and closing metal frame and the sliding member on the sliding metal frame contact with each other via their sliding contact surfaces; and each of the sliding members (33; 46) has respective inclination surfaces (33b, 46b) continuing from bottom surfaces of the depressed parts (34, 47) to the sliding contact surfaces in the sliding direction, and these inclination surfaces are provided at an identical inclination angle (θ) and in an identical direction.
Lid, in particular for a hybrid pressure cooker, comprising at least one arched lid piece for an attachable rotary knob or grip (4, 5) with a safety and/or pressure valve and at least one seal, wherein the lid consists of plastic, characterized in that the lid comprises a circumferential edge reinforcement with a right-angle bend oriented in the direction towards the hybrid pressure cooker, and on the bottom side, a circumferential second edge radially offset towards the interior, the seal comprising a pocket (54, 55) embodied for the edge and the right-angle bend.
A sampling circuit, comprising: a first resistor (R 1) a second resistor (R 2), a third resistor (R 3), an inductor and a capacitor, wherein the inductor is connected in series between a first measurement point and a second measurement point in a live line, the third resistor (R 3) is connected in parallel with the inductor, the first resistor (R 1) is connected in series between the first measuring point and a third measuring point, the second resistor (R 2) is connected in series between the second measuring point and the third measuring point, the third measuring point is connected to a neutral line via the capacitor, and a load is connected between the live line and the neutral line; and in performing sampling, a voltage signal of the inductor between the first measuring point and the second measuring point and a voltage signal of the first resistor between the first measuring point and the third measuring point are collected respectively to analyze whether an arc fault occurs in the sampled line.
An applicator for dispensing a therapeutic agent to an animal, comprising: a housing including first and second sections coupled together, the first and second sections defining a channel therebetween that includes at least one outlet, wherein the interface between the first and second sections defines a plane; a hub integral with the first section and extending therefrom, the hub defining a conduit, wherein the hub has a first opening that is disposed at a proximal end of the hub and is configured to function as an insertion hole for receiving the dispensing end of a fluid delivery device, wherein a second opening is opposite the first opening, wherein the second opening is fluidly connected to the channel of the housing; and a bent path connecting the conduit to the channel, wherein the bent path is seamless and is disposed within the first section and terminates into the second opening fluidly connected to the channel, wherein the second opening directs fluid in a direction orthogonal to the lengthwise direction of the channel, and wherein the bent path is offset from the plane; wherein the conduit, the bent path and the channel are fluidly connected for conducting therapeutic agent from the conduit to the channel along the bent path, and wherein the first section and the second section are structurally shaped such that when the first section and the second section are coupled together, the therapeutic agent is discouraged from leaking out of the applicator. a housing including first and second sections coupled together, the first and second sections defining a channel therebetween that includes at least one outlet, wherein the interface between the first and second sections defines a plane; a hub integral with the first section and extending therefrom, the hub defining a conduit, wherein the hub has a first opening that is disposed at a proximal end of the hub and is configured to function as an insertion hole for receiving the dispensing end of a fluid delivery device, wherein a second opening is opposite the first opening, wherein the second opening is fluidly connected to the channel of the housing; and a bent path connecting the conduit to the channel, wherein the bent path is seamless and is disposed within the first section and terminates into the second opening fluidly connected to the channel, wherein the second opening directs fluid in a direction orthogonal to the lengthwise direction of the channel, and wherein the bent path is offset from the plane; wherein the conduit, the bent path and the channel are fluidly connected for conducting therapeutic agent from the conduit to the channel along the bent path, and wherein the first section and the second section are structurally shaped such that when the first section and the second section are coupled together, the therapeutic agent is discouraged from leaking out of the applicator.