mhurhangee/ep-ind-claims huggingface dataset:
An incoming call processing method, wherein the method comprises: receiving, by called user equipment UE, a call request message sent by a core network device, and performing mobile terminated, MT, signaling interaction with the core network device based on the call request message, wherein the call request message comprises a phone number of calling UE; determining, by the called UE, whether the MT signaling interaction succeeds within preset duration; and characterized by: sending, by the called UE, prompt information to a called user based on the phone number of the calling UE when the called UE determines that the MT signaling interaction fails within the preset duration, wherein the prompt information is used to indicate to the called user that an incoming call of the calling UE fails to be answered. receiving, by called user equipment UE, a call request message sent by a core network device, and performing mobile terminated, MT, signaling interaction with the core network device based on the call request message, wherein the call request message comprises a phone number of calling UE; determining, by the called UE, whether the MT signaling interaction succeeds within preset duration; and characterized by: sending, by the called UE, prompt information to a called user based on the phone number of the calling UE when the called UE determines that the MT signaling interaction fails within the preset duration, wherein the prompt information is used to indicate to the called user that an incoming call of the calling UE fails to be answered.
High pressure and high efficient heating installation comprising at least one membrane panel, wherein a material of the panel is selected from steel alloys, comprising 0.002-3 wt.% C, and at least one metal selected from Mo, Mn, B, Ti, V, Nb, Cr, Al, Cu, Si, Co, W, and, Ni, in an amount of total metal of 0-10 wt.%, wherein the installation is adapted to operate at a water-steam pressure from 3*10 3 kPa-3*10 4 kPa (30-300 atm.) and at a flue gas temperature of 850-1650 K, wherein the installation is preferably a waste incineration installation, wherein the membrane panel comprises at least one tube, and a NiCr alloy cladding, wherein the NiCr alloy comprises >35 atom % Ni, >18 atom% Cr, 0-6 atom% Fe, <19 atom% Mo, 0.1-5 atom% Nb+Ta, and 0-10 atom% of at least one of C, Mn, Si, P, S, Al, Ti, W, Cu, and Co, wherein the cladding has at least one of a surface roughness (Ra) of < 60 μm, a surface purity of >_ 2.0, and a thickness of 1.5-10 mm over at least 50% of the cladded area. wherein the installation is adapted to operate at a water-steam pressure from 3*10 3 kPa-3*10 4 kPa (30-300 atm.) and at a flue gas temperature of 850-1650 K, wherein the installation is preferably a waste incineration installation, wherein the membrane panel comprises at least one tube, and a NiCr alloy cladding, wherein the NiCr alloy comprises >35 atom % Ni, >18 atom% Cr, 0-6 atom% Fe, <19 atom% Mo, 0.1-5 atom% Nb+Ta, and 0-10 atom% of at least one of C, Mn, Si, P, S, Al, Ti, W, Cu, and Co, wherein the cladding has at least one of a surface roughness (Ra) of < 60 μm, a surface purity of >_ 2.0, and a thickness of 1.5-10 mm over at least 50% of the cladded area.
A terminal device including a plurality of logical ports (LP1. LP2. LP3) as ports for providing logical connections, the logical ports (LP1, LP2, LP3) logically connecting external devices (200, 201, 202, 203) to the terminal device, the terminal device comprising: a receiver configured to receive an execution instruction for an unmount process which is a process of transition from an activated state in which the logical connections are activated to a deactivated state in which the logical connections are deactivated; a press part configured to be pressed by a user, wherein the press part is provided on an outer surface of the terminal device and the receiver receives the execution instruction for the unmount process, by press of the press part without using a graphical user interface: a controller configured to control the logical ports (LP1. LP2, LP3) by instructing a logical layer of an Interface to perform switching between an activated state and a deactivated state of the logical ports (LP1, LP2, LP3) wherein the logical layer is configured, in response to the execution instruction for the unmount process, to deactivate all of the logical connections corresponding to the logical ports (LP1. LP2, LP3) and to change to a non-recognition state in which no logical port is newly created even when a new external device is connected to the terminal device. a receiver configured to receive an execution instruction for an unmount process which is a process of transition from an activated state in which the logical connections are activated to a deactivated state in which the logical connections are deactivated; a press part configured to be pressed by a user, wherein the press part is provided on an outer surface of the terminal device and the receiver receives the execution instruction for the unmount process, by press of the press part without using a graphical user interface: a controller configured to control the logical ports (LP1. LP2, LP3) by instructing a logical layer of an Interface to perform switching between an activated state and a deactivated state of the logical ports (LP1, LP2, LP3) wherein the logical layer is configured, in response to the execution instruction for the unmount process, to deactivate all of the logical connections corresponding to the logical ports (LP1. LP2, LP3) and to change to a non-recognition state in which no logical port is newly created even when a new external device is connected to the terminal device.
A dissolvable film for customizing an art material, the art material comprising ink, paint, or modeling dough, wherein the dissolvable film imparts an artistic effect following administration of the dissolvable film to the art material, wherein the artistic effect is selected from the group consisting of color, glitter, pattern, and a combination thereof, the dissolvable film comprising: one or more artistic components dispersable in the art material, wherein the one or more artistic components comprise one or more liquid pigment dispersions, the dissolvable film comprising 7% to 15% hydroxypropyl methylcellulose, 1% to 5% propylene glycol, 0.5% to 3% glycerin, 10% to 20% pigment, and 60% to 80% water, each by weight of the dissolvable film.
An infrared welding method for joining portions of two parts (P1, P2) made of thermoplastic material, said method comprising: positioning the two thermoplastic parts (P1, P2) adjacent an infrared heater with the two parts (P1, P2) spaced from each other; melting at least portions of the opposed surfaces of said parts (P1, P2) by energizing the infrared heaters to emit infrared radiation and directing the emitted infrared radiation onto the surfaces of the two parts (P1, P2) to be joined; directing a non-heated inert gas onto the surface or surfaces of said thermoplastic parts (P1, P2) receiving said infrared radiation at a flow rate sufficient to prevent oxidation of said thermoplastic parts (P1, P2) as they are melted and thereby prevent any combustion of the thermoplastic material being melted; clamping the two parts (P1, P2) together by moving at least one of said parts (P1, P2) toward the other of said parts (P1, P2) to press the melted surfaces of said parts (P1, P2) into contact with each other; and cooling the two parts (P1, P2) while they remain clamped together, in direct contact with each other, to solidify the molten thermoplastic material and thus weld the two parts (P1, P2) together. positioning the two thermoplastic parts (P1, P2) adjacent an infrared heater with the two parts (P1, P2) spaced from each other; melting at least portions of the opposed surfaces of said parts (P1, P2) by energizing the infrared heaters to emit infrared radiation and directing the emitted infrared radiation onto the surfaces of the two parts (P1, P2) to be joined; directing a non-heated inert gas onto the surface or surfaces of said thermoplastic parts (P1, P2) receiving said infrared radiation at a flow rate sufficient to prevent oxidation of said thermoplastic parts (P1, P2) as they are melted and thereby prevent any combustion of the thermoplastic material being melted; clamping the two parts (P1, P2) together by moving at least one of said parts (P1, P2) toward the other of said parts (P1, P2) to press the melted surfaces of said parts (P1, P2) into contact with each other; and cooling the two parts (P1, P2) while they remain clamped together, in direct contact with each other, to solidify the molten thermoplastic material and thus weld the two parts (P1, P2) together.
A retrofit light bulb having an optical axis OA, comprising a substantially flat heat spreader having an opening; first and second cover members (7, 8) sandwiching the heat spreader, each cover member (7, 8) having a protruding portion (9, 10) directed away from the heat spreader and aligned with the opening, the two protruding portions (9, 10) together forming a compartment; and one or more solid state lighting devices mounted on a carrier arranged in said compartment, in thermal contact with the heat spreader, wherein said one or more solid state lighting devices are arranged so that each protruding portion (9, 10) receives light directly from each solid state lighting device, characterized in that said flat heat spreader is arranged along the optical axis OA and comprises a first side surface and a second side surface, parallel to each other with a normal perpendicular to the optical axis.
Method for clustering detections in an imaging system, comprising: obtaining a plurality of frames (F1, F2, F3) associated with successive points in time (T1, T2, T3), wherein each frame (F1, F2, F3) includes a plurality of detections (V1, V2, V3, V1', V2', V3', V1", V2", V3"); wherein each detection is associated with a position in a space; identifying, over the successive points in time (T1, T2, T3), a pairwise covariance of a temporal progression of two detections of the plurality of detections (V1, V2, V3, V1', V2', V3', V1", V2", V3") moving over time, in order to obtain pairwise covariance values for each pair of temporal progressions associated with the two detections moving over time over the successive points in time (T1, T2, T3); clustering the detections (V1, V2, V3, V1', V2', V3', V1", V2", V3") for which a temporal progression of the pairwise covariance values of the pair corresponds to a predetermined pattern. obtaining a plurality of frames (F1, F2, F3) associated with successive points in time (T1, T2, T3), wherein each frame (F1, F2, F3) includes a plurality of detections (V1, V2, V3, V1', V2', V3', V1", V2", V3"); wherein each detection is associated with a position in a space; identifying, over the successive points in time (T1, T2, T3), a pairwise covariance of a temporal progression of two detections of the plurality of detections (V1, V2, V3, V1', V2', V3', V1", V2", V3") moving over time, in order to obtain pairwise covariance values for each pair of temporal progressions associated with the two detections moving over time over the successive points in time (T1, T2, T3); clustering the detections (V1, V2, V3, V1', V2', V3', V1", V2", V3") for which a temporal progression of the pairwise covariance values of the pair corresponds to a predetermined pattern.
A flywheel comprising: - a flywheel mass; - a first shaft (7; 8) and a second shaft (8; 7),wherein the first shaft and the second shaft are torsionally coupled forming a transmission shaft to transmit a torque, wherein one of said first shaft and second shaft is an input shaft and the other of said first and second shafts is an output shaft; - an automatic starting device for driving into rotation the flywheel mass, coaxial with the flywheel mass, rotatable with respect to the flywheel mass, and adapted to be torsionally coupled to a motion input; wherein the automatic starting device comprises a hub coaxial with the flywheel mass, and a plurality of movable masses (14a, 14b) that are arranged around a rotation axis (A-A) of the flywheel, torsionally coupled to the hub for rotating therewith, and radially displaceable with respect to the hub; wherein the first shaft (7; 8) is torsionally coupled to the hub and the flywheel mass is rotatingly supported on the second shaft (8; 7); so that, when the hub rotates, each movable mass (14a, 14b) is pushed radially outwards in order to press against a contact surface (5.6) integral with the flywheel mass and to transmit, from the hub to the flywheel mass, a drag torque that increases with the angular speed of the automatic starting device, as a result of the friction force between each movable mass (14a, 14b) and the contact surface (5.6) integral with the flywheel mass. - a flywheel mass; - a first shaft (7; 8) and a second shaft (8; 7),wherein the first shaft and the second shaft are torsionally coupled forming a transmission shaft to transmit a torque, wherein one of said first shaft and second shaft is an input shaft and the other of said first and second shafts is an output shaft; - an automatic starting device for driving into rotation the flywheel mass, coaxial with the flywheel mass, rotatable with respect to the flywheel mass, and adapted to be torsionally coupled to a motion input;
pH measurement cell with: - a measuring chamber and at least one opening (2, 3) for a fluid, - a pH measurement receptacle for receiving a rod-shaped receiving section of a combination electrode for measuring the pH value of the fluid in the measuring chamber, wherein the pH measurement receptacle has an insertion opening through which the receiving section can be inserted in an insertion direction, - a compression element for compressing a sealing ring, arranged in the receiving section, of the combination electrode for sealing the measuring chamber off from the surrounding area, and - an adapter (71, 72) for receiving the combination electrode in an attachment area for the combination electrode, characterized in that the adapter (71, 72) has a two-part design with a first adapter part and a second adapter part, wherein the second adapter part is configured to receive the combination electrode in the attachment area by means of a screw connection, and the second adapter part can be screwed into the first adapter part, wherein pressure can be exerted on the compression element by the first adapter part through the screwing-in of the second adapter part, wherein the sealing ring can be compressed by the compression element via the pressure of the first adapter part and the measuring chamber can be sealed off from the surrounding area. - a measuring chamber and at least one opening (2, 3) for a fluid, - a pH measurement receptacle for receiving a rod-shaped receiving section of a combination electrode for measuring the pH value of the fluid in the measuring chamber, wherein the pH measurement receptacle has an insertion opening through which the receiving section can be inserted in an insertion direction, - a compression element for compressing a sealing ring, arranged in the receiving section, of the combination electrode for sealing the measuring chamber off from the surrounding area, and - an adapter (71, 72) for receiving the combination electrode in an attachment area for the combination electrode,
A method for storing multiple files in a hosted storage system, the method comprising: receiving, at a hosted storage system, a storage request sent by a client system over a network to the hosted storage system, the storage request including a single object and conforming to a API implemented by the hosted storage system for accessing storage services provided by the hosted storage system over the network, wherein the API is designed to only support a single object in a storage request; extracting, at the hosted storage system, the single object from the received storage request determining that the single object is an archive file composed of multiple bundled files; in response to determining that the single object is an archive file, extracting each of the bundled files from the archive file; and storing each of the extracted files as individual data object in the hosted storage system such that each of the individual data objects is individually accessible by the client system via a retrieval request conforming to the API implemented by the hosted storage system for accessing storage services provided by the hosted storage system over the network, wherein the API is designed to support a single data object in a response to the retrieval request. receiving, at a hosted storage system, a storage request sent by a client system over a network to the hosted storage system, the storage request including a single object and conforming to a API implemented by the hosted storage system for accessing storage services provided by the hosted storage system over the network, wherein the API is designed to only support a single object in a storage request; extracting, at the hosted storage system, the single object from the received storage request determining that the single object is an archive file composed of multiple bundled files; in response to determining that the single object is an archive file, extracting each of the bundled files from the archive file; and storing each of the extracted files as individual data object in the hosted storage system such that each of the individual data objects is individually accessible by the client system via a retrieval request conforming to the API implemented by the hosted storage system for accessing storage services provided by the hosted storage system over the network, wherein the API is designed to support a single data object in a response to the retrieval request.
A solar cell module (100; 200), comprising: a plurality of solar cells; a front transparent substrate on front surfaces of the plurality of solar cells; a back transparent substrate on back surfaces of the plurality of solar cells; a front protection unit between the front transparent substrate and the plurality of solar cells; and a back protection unit between the back transparent substrate and the plurality of solar cells, wherein the back transparent substrate includes an anti-reflection layer, characterized in that the back transparent substrate includes: a first area that overlaps with a portion of the plurality of solar cells; and a second area that is a remaining portion other than the first area, wherein the anti-reflection layer is selectively located in the first area. a plurality of solar cells; a front transparent substrate on front surfaces of the plurality of solar cells; a back transparent substrate on back surfaces of the plurality of solar cells; a front protection unit between the front transparent substrate and the plurality of solar cells; and a back protection unit between the back transparent substrate and the plurality of solar cells, a first area that overlaps with a portion of the plurality of solar cells; and a second area that is a remaining portion other than the first area,
Master Unit comprising a line interface suitable for connection to a communication network adapted for the bidirectional transmission of non-video data frames and the unidirectional transmission of video data frames, and a microcontroller coupled to said line interface via a fault line capable of transmitting to it primary information representative of the presence or absence of a fault in the physical layer ensuring said bidirectional transmission, said master device being arranged so as to exchange non-video data frames bidirectionally, and video data frames in a unidirectional manner with at least one slave organ, characterised in that it further comprises analysis means arranged to consider that there is a confirmed defect in said physical layer in the event of reception by said microcontroller of primary information signalling the presence in a confirmed manner of a defect in said physical layer, and storage means capable of storing a value representative of a confirmed defect in said physical layer each time said analysis means consider that there is a defect in said physical layer.
A pneumatic tire comprising at least one bead structure comprising a bead core, wherein the bead core has in cross-section a planar radially upper or top surface, a planar radially lower or bottom surface, and two curved side surfaces, wherein the line extending along the planar radially upper or top surface and the line extending along the planar radially lower or bottom surface both extend in parallel to the axis of rotation of the pneumatic tire, wherein the bead core is a one-piece or monolithic bead core having a radial height to axial width ratio less than 1.0, alternatively less than 0.9 or less than 0.8, characterized in that the planar radially upper or top surface, the planar radially lower or bottom surface and the two curved side surfaces form the circumference of the cross-section of the bead core.
System for separating a feed stream having methane and contaminants comprising: a distillation tower; a plurality of downcomer lines disposed external to the tower; and an apparatus for maintaining constant fluid pressure and equalized fluid flow among the plurality of downcomer lines through which liquid from the distillation tower is directed, the apparatus comprising: a substantially annular fluid distribution belt positioned about a circumference of the tower, the fluid distribution belt collecting liquid from the tower; and at least two outlets configured to direct liquid from the fluid distribution belt into a corresponding number of the downcomer lines, wherein an end of each downcomer line extends upwardly into the fluid distribution belt. a distillation tower; a plurality of downcomer lines disposed external to the tower; and an apparatus for maintaining constant fluid pressure and equalized fluid flow among the plurality of downcomer lines through which liquid from the distillation tower is directed, the apparatus comprising: a substantially annular fluid distribution belt positioned about a circumference of the tower, the fluid distribution belt collecting liquid from the tower; and at least two outlets configured to direct liquid from the fluid distribution belt into a corresponding number of the downcomer lines, a substantially annular fluid distribution belt positioned about a circumference of the tower, the fluid distribution belt collecting liquid from the tower; and at least two outlets configured to direct liquid from the fluid distribution belt into a corresponding number of the downcomer lines,
Flexible corner fitting intended to contribute to a connection between at least three walls of at least one aircraft box structure, the flexible corner fitting comprising at least three fixing plates (P1, P2, P3) and at least three edge corners (A1, A2, A3) made of flexible material, each of the at least three fixing plates (P1, P2, P3) having an outer surface (S1, S2, S3) intended to be fixed respectively to a wall (2, 3, 4) of the one or more box structures, each of the at least three fixing plates (P1, P2, P3) being connected to each of the other at least three fixing plates (P1, P2, P3) by an edge corner (A1, A2, A3) made of flexible material, characterized in that the three fixing plates (P1, P2, P3) are manufactured from a stiffer material than the flexible material of the edge corners, enabling a movement of one plate relative to another plate.