mhurhangee/ep-ind-claims huggingface dataset:
Method for the real-time transmission/reception of data in packets in an IP network between a server and a client terminal, characterized in that it consists at least of, on the server side: - assigning a transmission continuity index to each packet to be transmitted; - successively transmitting each of the packets according to the UDP protocol and their continuity index according to the DCP or RTP protocol to said client terminal; and, on the client terminal side: - detecting any break in the continuity of the stream of packets received on the basis of the continuity indices associated with each packet received; and, on detection of a stream discontinuity, - transmitting, from the client terminal to the server, at least one request for the retransmission of at least one missing packet, for as long as said at least one missing packet has not been received by said client terminal. - assigning a transmission continuity index to each packet to be transmitted; - successively transmitting each of the packets according to the UDP protocol and their continuity index according to the DCP or RTP protocol to said client terminal; and, - detecting any break in the continuity of the stream of packets received on the basis of the continuity indices associated with each packet received; and, on detection of a stream discontinuity, - transmitting, from the client terminal to the server, at least one request for the retransmission of at least one missing packet, for as long as said at least one missing packet has not been received by said client terminal.
A blind area tracking method for a directional antenna, comprising: acquiring a position and a velocity of a tracking target relative to the directional antenna; when the tracking target is close to the directional antenna, calculating a critical time which is an indicator for determining whether tracking target enters the tracking blind area; determining, according to the critical time and the position and the velocity of the tracking target relative to the directional antenna, whether the tracking target enters the tracking blind area; driving, in a preset blind area guidance mode and when the tracking target is located in the tracking blind area, the directional antenna to rotate; and when the tracking target is away from the directional antenna, detecting, by using a predetermined detection period whether the tracking target leaves the tracking blind area, characterized in that the critical time is calculated using the following formula: K φ ̇ max t I = arctan ν ′ t I AB; K representing an azimuth velocity margin coefficient, φ̇ max representing a maximum azimuth velocity of the directional antenna, t I representing the critical time, ν ' representing a velocity projection of the tracking target in a horizontal reference plane, A representing a position of the directional antenna and B representing an intersection point of a straight line along ν ' in the horizontal reference plane and a vertical line perpendicular to the straight line, with the vertical line passing through the point A. acquiring a position and a velocity of a tracking target relative to the directional antenna; when the tracking target is close to the directional antenna, calculating a critical time which is an indicator for determining whether tracking target enters the tracking blind area; determining, according to the critical time and the position and the velocity of the tracking target relative to the directional antenna, whether the tracking target enters the tracking blind area; driving, in a preset blind area guidance mode and when the tracking target is located in the tracking blind area, the directional antenna to rotate; and when the tracking target is away from the directional antenna, detecting, by using a predetermined detection period whether the tracking target leaves the tracking blind area, characterized in that the critical time is calculated using the following formula: K φ ̇ max t I = arctan ν ′ t I AB; K representing an azimuth velocity margin coefficient, φ̇ max representing a maximum azimuth velocity of the directional antenna, t I representing the critical time, ν ' representing a velocity projection of the tracking target in a horizontal reference plane, A representing a position of the directional antenna and B representing an intersection point of a straight line along ν ' in the horizontal reference plane and a vertical line perpendicular to the straight line, with the vertical line passing through the point A.
A reflective cup-shaped lamp to connect a light-emitting diode and a driving circuit, a beam of light is generated by the light-emitting diode,comprising: a lens unit, having a first holding part and a reflection part, wherein an included angle (θ) is formed between the first holding part and the reflection part, wherein a slope of the inclined plane of the reflection part is determined by the included angle (θ); and a fixing unit, having a second holding part and a base, wherein the lens unit is stacked on the fixing unit, wherein the first holding part and the second holding part form a holding space to hold the light-emitting diode; and a housing, having a body, a third holding part, an emitting part and a bottom, wherein the emitting part is at one end of the body, and the bottom is at the other end of the body, wherein the third holding part is configured in the housing, wherein a reflective layer is coated on the interior surface of the body, wherein the third holding part accommodates the fixing unit and holds the fixing unit on the housing; and an electrical-connection unit, being attached to the bottom, wherein the slope of the inclined plane makes to uniformly reflect the beam of light from the light-emitting diode to the interior surface 162 of the housing through the reflection part. a lens unit, having a first holding part and a reflection part, wherein an included angle (θ) is formed between the first holding part and the reflection part, wherein a slope of the inclined plane of the reflection part is determined by the included angle (θ); and a fixing unit, having a second holding part and a base, wherein the lens unit is stacked on the fixing unit, wherein the first holding part and the second holding part form a holding space to hold the light-emitting diode; and a housing, having a body, a third holding part, an emitting part and a bottom, wherein the emitting part is at one end of the body, and the bottom is at the other end of the body, wherein the third holding part is configured in the housing, wherein a reflective layer is coated on the interior surface of the body, wherein the third holding part accommodates the fixing unit and holds the fixing unit on the housing; and an electrical-connection unit, being attached to the bottom,
A nuclear reactor decommissioning system, comprising a cutting device to cut a reactor, a lifting device inserted inside the reactor adapted to lift the reactor, which lifting device includes a coupling member coupled to the reactor, and an elevating device that is connected to the coupling member and elevates the reactor, and a shielding device that is positioned between the reactor and the lifting device and blocks radioactive dust generated by the cutting device from spreading and the shielding device includes a shielding tube including a plurality of cylindrical members (21a, 21b, 21c, 21d, 21e, 21f) of different diameters surrounding the elevating device and a shielding plate positioned on an upper portion of the shielding tube and blocking the reactor from the outside. a cutting device to cut a reactor, a lifting device inserted inside the reactor adapted to lift the reactor, which lifting device includes a coupling member coupled to the reactor, and an elevating device that is connected to the coupling member and elevates the reactor, and a shielding device that is positioned between the reactor and the lifting device and blocks radioactive dust generated by the cutting device from spreading and the shielding device includes a shielding tube including a plurality of cylindrical members (21a, 21b, 21c, 21d, 21e, 21f) of different diameters surrounding the elevating device and a shielding plate positioned on an upper portion of the shielding tube and blocking the reactor from the outside.
Apparatus, comprising: a flexible mesh having an insertion configuration, in which the mesh is smaller than a muscle hole to be repaired to facilitate advancing the mesh through the hole, and an implanted configuration, in which the mesh is substantially flat and larger than the hole to block the hole, the apparatus being characterised in that the apparatus further comprises: a ribbon or threads plug engaged with the mesh to fill the muscle hole when the mesh is in the implanted configuration, the plug being formed in a petal configuration and extending away from a plane defined by the mesh when the mesh is in the implanted configuration; and at least one strengthening member engaged with at least one periphery of the plug, wherein: said muscle hole to be repaired is an opening of a muscle wall, said muscle wall being a wall of an abdomen muscle in which the muscle hole has formed as a hernia. a ribbon or threads plug engaged with the mesh to fill the muscle hole when the mesh is in the implanted configuration, the plug being formed in a petal configuration and extending away from a plane defined by the mesh when the mesh is in the implanted configuration; and at least one strengthening member engaged with at least one periphery of the plug, wherein: said muscle hole to be repaired is an opening of a muscle wall, said muscle wall being a wall of an abdomen muscle in which the muscle hole has formed as a hernia.
Cosmetic non-therapeutic topical use of an active ingredient comprising in a physiologically acceptable matrix an oily extract comprising a mixture of alkyl-phthalides that can be prepared by CO 2 supercritical extraction of Apium graveolens seeds or of a cosmetic composition comprising at least said active ingredient, for the topical treatment of the skin or scalp.
A light for growing plants, including - at least one light source for generating light for growing at least one plant to be grown, - at least one detection device for detecting at least one state parameter of the at least one plant to be grown, and - at least one adjustment device for moving the at least one light source relative to the at least one plant to be grown depending on the at least one state parameter detected by the at least one detection device, - wherein the at least one adjustment device includes at least one boom pivotably mounted in relation to a light base body, characterized in - that the at least one light source is movable along the at least one boom. - at least one light source for generating light for growing at least one plant to be grown, - at least one detection device for detecting at least one state parameter of the at least one plant to be grown, and - at least one adjustment device for moving the at least one light source relative to the at least one plant to be grown depending on the at least one state parameter detected by the at least one detection device, - wherein the at least one adjustment device includes at least one boom pivotably mounted in relation to a light base body, - that the at least one light source is movable along the at least one boom.
Drainage safety device for at least one drain, in particular a floor inlet, a yard drain or a street drain, comprising: a closure element for closing and opening the drain and a drain housing for rotatably supporting the closure element on the drain, wherein the drain housing has a complementary drain opening for the drain, and wherein the closure element is rotatably movable between two positions (I, II): - a closed position, in which the drain opening is closed by the closure element, and - a release position in which the drain opening is opened by the closure element, characterized in that the closure element has a stop on a first surface, which is aligned with the drain in the closed position of the closure element, in order to secure the closure element in the closed position against overturning beyond the closed position when the closure element is transferred from the release position to the closed position, wherein the stop is made of a single material, monolithic and/or integral with the closure element, and wherein the stop is designed as an angle. a closure element for closing and opening the drain and a drain housing for rotatably supporting the closure element on the drain, wherein the drain housing has a complementary drain opening for the drain, and wherein the closure element is rotatably movable between two positions (I, II): - a closed position, in which the drain opening is closed by the closure element, and - a release position in which the drain opening is opened by the closure element, - a closed position, in which the drain opening is closed by the closure element, and - a release position in which the drain opening is opened by the closure element, characterized in that the closure element has a stop on a first surface, which is aligned with the drain in the closed position of the closure element, in order to secure the closure element in the closed position against overturning beyond the closed position when the closure element is transferred from the release position to the closed position, wherein the stop is made of a single material, monolithic and/or integral with the closure element, and wherein the stop is designed as an angle.
Process for the production of EP M elastomers in solution, comprising the polymerisation reaction of monomers in which ethylene, propylene, optionally a diene, catalytic system, hydrogen and a hydrocarbon solvent for said EP M are fed continuously to a stirred reactor (CSTR) with formation of a reaction bath in which the EP M elastomer dissolves in said hydrocarbon solvent, characterized in that: i) said reaction bath is kept at a boiling condition at a temperature from 40 to 60°C and at a pressure from 0.6 MPa to 1.2 MPa, whereby partial vaporization of said reaction bath occurs; ii) from 40% to 80% of the heat generated by the polymerisation reaction is removed by said partial vaporization of the reaction bath; iii) the monomers, solvent and other fluids formed by said partial vaporization of the reaction bath are withdrawn from said reactor compressed, condensed and, after joining with other recycle and fresh feed streams, subcooled to a temperature below the temperature of the reaction bath and are introduced in said reactor via a distributor of recycled gases arranged in bottom of the reactor; iv) from 20% to 60% of said reaction heat is removed by introducing in said reactor said monomers, solvent and fluids that have been subcooled according to step iii). i) said reaction bath is kept at a boiling condition at a temperature from 40 to 60°C and at a pressure from 0.6 MPa to 1.2 MPa, whereby partial vaporization of said reaction bath occurs; ii) from 40% to 80% of the heat generated by the polymerisation reaction is removed by said partial vaporization of the reaction bath; iii) the monomers, solvent and other fluids formed by said partial vaporization of the reaction bath are withdrawn from said reactor compressed, condensed and, after joining with other recycle and fresh feed streams, subcooled to a temperature below the temperature of the reaction bath and are introduced in said reactor via a distributor of recycled gases arranged in bottom of the reactor; iv) from 20% to 60% of said reaction heat is removed by introducing in said reactor said monomers, solvent and fluids that have been subcooled according to step iii).
A sliding material comprising: a substrate; and a copper alloy layer bonded to the substrate, the copper alloy having a composition comprising: by mass, 2.0 to 15.0 % of tin, optionally, 0 to 30.0 % of Bi, optionally, not more than 5.0 % in total of one or more elements selected from a group consisting of Al, Zn, Mn, Si, Ni, Fe, P, Zr, Ti and Mg, and the balance of copper and inevitable impurities, wherein the copper alloy layer optionally further comprises not more than 10.0 % by volume in total of either or both of MOS 2 and graphite; wherein the copper alloy layer comprises a sliding body part including a sliding surface, and a gradient region including a bond surface with the substrate, the gradient region having a thickness of 4-57 μm, and wherein a tin concentration in the gradient region reduces from the sliding body part toward the bond surface. a substrate; and a copper alloy layer bonded to the substrate, the copper alloy having a composition comprising: by mass, 2.0 to 15.0 % of tin, optionally, 0 to 30.0 % of Bi, optionally, not more than 5.0 % in total of one or more elements selected from a group consisting of Al, Zn, Mn, Si, Ni, Fe, P, Zr, Ti and Mg, and the balance of copper and inevitable impurities, wherein the copper alloy layer optionally further comprises not more than 10.0 % by volume in total of either or both of MOS 2 and graphite; wherein the copper alloy layer comprises a sliding body part including a sliding surface, and a gradient region including a bond surface with the substrate, the gradient region having a thickness of 4-57 μm, and wherein a tin concentration in the gradient region reduces from the sliding body part toward the bond surface.
A networking system comprising: an application service that runs on a cloud infrastructure and is configured to receive encrypted content from a content provider (132, 232) and re-encrypt the encrypted content to enable dynamic user group control for group-based user authorization; and a cloud storage service (114, 214) coupled to the application service and configured to store the encrypted content from the content provider (132, 232) and the re-encrypted encrypted content from the application service; wherein the application service and the storage service (114, 214) are configured to communicate and operate with a content delivery service that uses a content delivery network, CDN, to deliver the re-encrypted content to one or more users (134, 234) in a group authorized by the content provider (132, 232), wherein the application service is configured to establish the dynamic user group control by using a re-encryption key from the content provider (132, 232) to re-encrypt the encrypted content and a group decryption key from the content provider (132, 232) for the group to decrypt the content, and wherein the application service is configured to receive an updated re-encryption key and an updated group decryption key from the content provider (132, 232), when a change or an update incident occurs in the user group. an application service that runs on a cloud infrastructure and is configured to receive encrypted content from a content provider (132, 232) and re-encrypt the encrypted content to enable dynamic user group control for group-based user authorization; and a cloud storage service (114, 214) coupled to the application service and configured to store the encrypted content from the content provider (132, 232) and the re-encrypted encrypted content from the application service; wherein the application service and the storage service (114, 214) are configured to communicate and operate with a content delivery service that uses a content delivery network, CDN, to deliver the re-encrypted content to one or more users (134, 234) in a group authorized by the content provider (132, 232), wherein the application service is configured to establish the dynamic user group control by using a re-encryption key from the content provider (132, 232) to re-encrypt the encrypted content and a group decryption key from the content provider (132, 232) for the group to decrypt the content, and wherein the application service is configured to receive an updated re-encryption key and an updated group decryption key from the content provider (132, 232), when a change or an update incident occurs in the user group.
A production method for a niobium granulated product, comprising: mixing niobium hydride and a niobium-aluminum intermetallic compound, pulverizing the resultant mixture, subjecting the mixture to heat treatment to allow the mixture to aggregate to form a granulated product. mixing niobium hydride and a niobium-aluminum intermetallic compound, pulverizing the resultant mixture, subjecting the mixture to heat treatment to allow the mixture to aggregate to form a granulated product.
A method for processing whole blood, cord blood or bone marrow comprising, providing a biological material in a vessel; adding an aggregating agent and an aggregation enhancing agent selected from citrate, succinate, a salt thereof, or a combination thereof to the material in the vessel and allowing the material to separate into two or more distinct submaterials; extracting one or more of the submaterials from the vessel; automatically transporting one or more of the submaterials remaining in the vessel to a filtration device; and collecting a resulting target retentate comprising nucleated cells into a target retentate receptacle.
A secondary battery comprising: an electrode assembly comprising a first electrode plate, a second electrode plate, and a separator located between the first electrode plate and the second electrode plate; a first collecting plate and a second collecting plate that are electrically connected to the first electrode plate and the second electrode plate, respectively; a case configured to accommodate the electrode assembly, the first collecting plate, and the second collecting plate; and a cap plate configured to close the case to seal the electrode assembly, the first collecting plate and the second collecting plate within the case, wherein reinforcement stepped parts (S x) are formed on bottom surface of the cap plate such that a center region of the cap plate has a thickness different from a thickness of peripheral regions (B x) of the cap plate, wherein the secondary battery further comprises a first electrode terminal and a second electrode terminal that protrude through the cap plate and are electrically connected to the first collecting plate and the second collecting plate, wherein the reinforcement stepped parts (S x) are formed such that the center region is thinner than the peripheral regions (B x), and the first electrode terminal and the second electrode terminal are inserted through and coupled to respective peripheral regions (B x) of the cap plate, characterized in that a length of each of the peripheral regions (B x) of the cap plate is 20% to 30% of a length of the cap plate. an electrode assembly comprising a first electrode plate, a second electrode plate, and a separator located between the first electrode plate and the second electrode plate; a first collecting plate and a second collecting plate that are electrically connected to the first electrode plate and the second electrode plate, respectively; a case configured to accommodate the electrode assembly, the first collecting plate, and the second collecting plate; and a cap plate configured to close the case to seal the electrode assembly, the first collecting plate and the second collecting plate within the case, wherein reinforcement stepped parts (S x) are formed on bottom surface of the cap plate such that a center region of the cap plate has a thickness different from a thickness of peripheral regions (B x) of the cap plate, wherein the secondary battery further comprises a first electrode terminal and a second electrode terminal that protrude through the cap plate and are electrically connected to the first collecting plate and the second collecting plate, wherein the reinforcement stepped parts (S x) are formed such that the center region is thinner than the peripheral regions (B x), and the first electrode terminal and the second electrode terminal are inserted through and coupled to respective peripheral regions (B x) of the cap plate, characterized in that a length of each of the peripheral regions (B x) of the cap plate is 20% to 30% of a length of the cap plate.