mhurhangee/ep-ind-claims huggingface dataset:
An apparatus configured to be employed in a base station comprising: one or more processors (704a, 704b, 704c, 704d) configured to: process from a next generation, NextGen, core network one or more pre-authorized Quality of Service, QoS, rules for use over a Radio Access Network, RAN, based on a 5G Radio Access Technology, RAT,, or an evolved Universal Mobile Telecommunications System Terrestrial Radio Access, E-UTRA, configured to connect to the NextGen core network; provide the one or more pre-authorized QoS rules to a 5G user equipment, UE, (414, 416); and include an indication of a reflective QoS in a header of a downlink data unit, wherein the reflective QoS requires the 5G UE to apply a same QoS of the downlink data unit for a corresponding uplink flow. one or more processors (704a, 704b, 704c, 704d) configured to: process from a next generation, NextGen, core network one or more pre-authorized Quality of Service, QoS, rules for use over a Radio Access Network, RAN, based on a 5G Radio Access Technology, RAT,, or an evolved Universal Mobile Telecommunications System Terrestrial Radio Access, E-UTRA, configured to connect to the NextGen core network; provide the one or more pre-authorized QoS rules to a 5G user equipment, UE, (414, 416); and include an indication of a reflective QoS in a header of a downlink data unit, wherein the reflective QoS requires the 5G UE to apply a same QoS of the downlink data unit for a corresponding uplink flow. process from a next generation, NextGen, core network one or more pre-authorized Quality of Service, QoS, rules for use over a Radio Access Network, RAN, based on a 5G Radio Access Technology, RAT,, or an evolved Universal Mobile Telecommunications System Terrestrial Radio Access, E-UTRA, configured to connect to the NextGen core network; provide the one or more pre-authorized QoS rules to a 5G user equipment, UE, (414, 416); and include an indication of a reflective QoS in a header of a downlink data unit, wherein the reflective QoS requires the 5G UE to apply a same QoS of the downlink data unit for a corresponding uplink flow.
A method for preparing a silicone release liner, comprising the steps of reacting an epoxy-modified organopolysiloxane having the average compositional formula: R 1 m R 2 n SiO (4-m-n)/2 wherein R 1 is a substituted or unsubstituted monovalent hydrocarbon group of 1 to 10 carbon atoms, R 2 is an epoxy-containing organic group, m and n are numbers in the range: m > 0, n > 0 and 0 < m+n ≤ 3, with (meth)acrylic acid in an amount of at least 1.0 equivalent per equivalent of epoxy group in component in the presence of a base selected from an alkali metal hydroxide and alkaline earth metal hydroxide in an amount of 0.01 to 0.1 equivalent per equivalent of epoxy group in component, thereby obtaining a (meth)acrylic-modified organopolysiloxane having the average compositional formula: R 1 m R 6 n SiO (4-m-n)/2 wherein R 1, m and n are as defined above, R 6 is a (meth)acryloxy-containing organic group, mixing the (meth)acrylic-modified organopolysiloxane with a photopolymerization initiator, thereby obtaining a radiation-curable silicone composition, coating the composition onto a substrate to form a coating thereon, and exposing the coating to radiation for curing the coating. wherein R 1, m and n are as defined above, R 6 is a (meth)acryloxy-containing organic group, mixing the (meth)acrylic-modified organopolysiloxane with a photopolymerization initiator, thereby obtaining a radiation-curable silicone composition, coating the composition onto a substrate to form a coating thereon, and exposing the coating to radiation for curing the coating.
A wireless communication network including a plurality of nodes (523, 510), each node having a time reference, and being arranged for receiving and transmitting chirp-modulated radio signals, wherein the phase of the chirps is described by a continuous function (φ(t)), each chirp corresponding to a symbol, the phase of the signal being continuous across symbol boundaries, such that a node receiving the radio signal can align its time reference with that of a node transmitting the radio signal, wherein nodes of at least a subset of the nodes, acting as master, are arranged to broadcast a chirp-modulated ranging request, and nodes of at least a subset of the nodes, acting as slave, are arranged to receive the ranging requests and reply with a chirp-modulated ranging response, wherein the positions of the master nodes and the position of the slave nodes are known and at least one mobile node is operatively arranged to receive both the ranging requests of the masters and the ranging responses of the slaves, characterized by being arranged to determine for each pair of one ranging request and one ranging reply, a difference of the propagation time between the master and the mobile node minus the propagation time between the slave and the mobile node, whereby the mobile node is located, based on said difference of propagation times and on the positions of said masters and slaves.
An industrial textile comprising two layers, a web-side layer and a wear-side layer, where: - the web-side layer comprises machine direction yarns and binding cross machine direction yarns, - the wear-side layer comprises machine direction yarns and cross machine direction yarns, - the binding cross machine direction yarns extend from the web-side layer to the wear-side layer and bind a portion of wear-side layer machine direction yarns to bond the web-side layer and the wear-side layer together, and wherein a weave of the web-side layer is configured to change during a pattern repeat, and characterized in that the binding cross machine direction yarns are configured to bind the web-side layer machine direction yarns: - in a five-shaft weave over one, under one, over one and under two web-side layer machine direction yarns, - in a twelve-shaft weave under one, over one, under two, over one, under one, over one, under two, over one, under one and over one web-side layer machine direction yarns, or - in an eight-shaft weave under two, over one, under one, over one, under two, over one web-side layer machine direction yarns. - the web-side layer comprises machine direction yarns and binding cross machine direction yarns, - the wear-side layer comprises machine direction yarns and cross machine direction yarns, - the binding cross machine direction yarns extend from the web-side layer to the wear-side layer and bind a portion of wear-side layer machine direction yarns to bond the web-side layer and the wear-side layer together, and - in a five-shaft weave over one, under one, over one and under two web-side layer machine direction yarns, - in a twelve-shaft weave under one, over one, under two, over one, under one, over one, under two, over one, under one and over one web-side layer machine direction yarns, or - in an eight-shaft weave under two, over one, under one, over one, under two, over one web-side layer machine direction yarns.
A computer system (100; 700) comprising: a processor; a first input device (110; 720) coupled to the processor; a second input device different from the first input device coupled to the processor; and a computer-readable storage medium storing instructions that when executed by the processor adapt the computer system to: receive, from the first input device, character input corresponding to a plurality of characters and concurrently receive a separate mode input from the second input device, the mode input dividing the character input into one or more periods (640,644,648) of a first input mode and one or more periods (642, 646) of a second input mode; display a random number of indications for each received input character; form an input string by extracting characters input while in the first input mode from the character input; and initiate an action based on the input string. a processor; a first input device (110; 720) coupled to the processor; a second input device different from the first input device coupled to the processor; and a computer-readable storage medium storing instructions that when executed by the processor adapt the computer system to: receive, from the first input device, character input corresponding to a plurality of characters and concurrently receive a separate mode input from the second input device, the mode input dividing the character input into one or more periods (640,644,648) of a first input mode and one or more periods (642, 646) of a second input mode; display a random number of indications for each received input character; form an input string by extracting characters input while in the first input mode from the character input; and initiate an action based on the input string. receive, from the first input device, character input corresponding to a plurality of characters and concurrently receive a separate mode input from the second input device, the mode input dividing the character input into one or more periods (640,644,648) of a first input mode and one or more periods (642, 646) of a second input mode; display a random number of indications for each received input character; form an input string by extracting characters input while in the first input mode from the character input; and initiate an action based on the input string.
Reel for storing and paying out a strand, comprising: • a wheel comprising an annular cavity having the same axis as the wheel, • a shell partially covering a sector of the wheel, the wheel being positioned so as to be able to rotate about its axis in the shell, • a strand which is able to bend elastically and is initially straight, of which one part is coiled in the annular cavity and another part is poked out of the reel via a hole in the shell, rotation of the wheel causing the strand to pass through the hole, the reel being characterized in that it further comprises: • a tube which is able to bend elastically and is initially straight, referred to as the starting tube, the length of which is less than that of the strand, sliding freely in the hole over its length, the strand sliding freely within the starting tube, wherein that part of the starting tube that is inside the reel may be coiled in the wheel with the strand, and in that the dimensions of the reel are such that the shell can be gripped with one hand and the rotation of the wheel can be controlled using a finger of the same hand. • a wheel comprising an annular cavity having the same axis as the wheel, • a shell partially covering a sector of the wheel, the wheel being positioned so as to be able to rotate about its axis in the shell, • a strand which is able to bend elastically and is initially straight, of which one part is coiled in the annular cavity and another part is poked out of the reel via a hole in the shell, rotation of the wheel causing the strand to pass through the hole, • a tube which is able to bend elastically and is initially straight, referred to as the starting tube, the length of which is less than that of the strand, sliding freely in the hole over its length, the strand sliding freely within the starting tube, wherein that part of the starting tube that is inside the reel may be coiled in the wheel with the strand,
A power factor correction circuit, comprising an input for receiving an input voltage (U IN), a switching means and a control device, that has at least two different configurations for controlling the switching means depending on the input voltage (U IN), wherein a configuration can be selected from the at least two different configurations depending on a load (3, 12) at an output of the power factor correction circuit, wherein a switched-on duration (42, 43; 62, 63), for which the control device switches the switch means into an on-state, and/or a switched-off duration, for which the control device switches the switch means into an off-state, is different in the case of at least one value of the input voltage for the at least two different configurations, characterized in that the control device is adapted, in order to lengthen an on-time (66; T on,0) by an additional interval (68, 69), in order to determine the switched-on duration (42, 43; 62, 63), wherein the additional interval (68, 69) is different in the case of at least one value of the input voltage for the at least two different configurations, and wherein the additional interval (68, 69) for the at least two different configurations has a different dependence on the input voltage.
An electrical switch assembly, comprising: a contact element (14, 18) to be moved towards a further contact element (14, 18) for generating an electrical connection; and a drive for moving the contact element (14, 18); wherein the drive comprises a plunger with a connection member interconnected with the contact element, wherein the plunger comprises a mechanical structure with a top side to which the connection member is connected, and a bottom side opposite to the top side, wherein an electrically conducting top face is provided on the top side and an electrically conducting bottom face is provided on the bottom side; wherein the drive comprises a Thomson coil for moving the plunger via the electrically conducting top face and the electrically conducting bottom face; wherein the mechanical structure comprises at least one channel between the top side and the bottom side, the at least one channel extending transverse to a movement direction of the plunger; wherein the mechanical structure fills less than 50% of a volume between the top side and the bottom side; wherein the top side and the bottom side are interconnected with struts; characterised in that at least some of the struts are inclined with respect to the top side and the bottom side. a contact element (14, 18) to be moved towards a further contact element (14, 18) for generating an electrical connection; and a drive for moving the contact element (14, 18); wherein the drive comprises a plunger with a connection member interconnected with the contact element, wherein the plunger comprises a mechanical structure with a top side to which the connection member is connected, and a bottom side opposite to the top side, wherein an electrically conducting top face is provided on the top side and an electrically conducting bottom face is provided on the bottom side; wherein the drive comprises a Thomson coil for moving the plunger via the electrically conducting top face and the electrically conducting bottom face; wherein the mechanical structure comprises at least one channel between the top side and the bottom side, the at least one channel extending transverse to a movement direction of the plunger; wherein the mechanical structure fills less than 50% of a volume between the top side and the bottom side; wherein the top side and the bottom side are interconnected with struts; characterised in that at least some of the struts are inclined with respect to the top side and the bottom side.
Cable sleeve for structured storage and handling of optical waveguides which are routed in optical waveguide cables, in particular shroud sleeve, having a covering body which defines an interior space, in particular a covering shroud, and having at least one sealing body which can be inserted into an opening of the covering body and serves for routing optical waveguide cables into the interior space and/or for routing optical waveguide cables out of the interior space, wherein an outer contour of the sealing body is matched to an inner contour of the covering body in the region of the opening, characterized in that the cable sleeve has a clamping ring for sealing off a sealing region between an outer contour of the sealing body and an inner contour of the covering body, wherein the clamping ring surrounds a projection of the sealing body and a projection of the covering body, and in that the sealing body has, on its outer contour, a plurality of insertion aid elements which, when the sealing body is inserted into the opening of the covering body, uniformly widen the covering body.
A method for examining an object with periodic structures, comprising determining a volume in which a Talbot interference pattern will be formed, said Talbot interference pattern to be formed using a source of x-rays and an x-ray beam splitting grating; placing an object having periodic structures into said volume; establishing the Talbot interference pattern, wherein the x-ray beam splitting grating is configured to produce an interference pattern having a pitch corresponding to the periodic structures of the object to be examined; aligning the periodic structures of the object with the anti-nodes of the Talbot interference pattern; and detecting an x-ray signal resulting from the interaction of the Talbot interference pattern and the periodic structures of the object.
A bicycle crankshaft comprising: a crank axle including an axial axis, a first axle end, and a second axle end axially opposed to said first axle end, a first crank arm integrally joined to said crank axle adjacent said first axle end, a second crank arm integrally joined to said crank axle at a location axially spaced from said first crank arm, a first bearing surrounding said crank axle adjacent said first axle end for rotation of said crank axle about said axial axis, axially spaced from said first bearing, a second bearing 22a) surrounding said crank axle for rotation of said crank axle about said axial axis, and said crank axle being an integral one-piece crank axle that simultaneously extends through both said first bearing and said second bearing characterized in that said crank axle includes reinforcement fibers for structural reinforcement of said crank axle, at least a portion of said reinforcement fibers extend in a helical direction about said axial axis, said crank axle constitutes a structurally hollow element with a structural outer shell (146, 184) and an axially extending central hollow core (138, 168). a crank axle including an axial axis, a first axle end, and a second axle end axially opposed to said first axle end, a first crank arm integrally joined to said crank axle adjacent said first axle end, a second crank arm integrally joined to said crank axle at a location axially spaced from said first crank arm, a first bearing surrounding said crank axle adjacent said first axle end for rotation of said crank axle about said axial axis, axially spaced from said first bearing, a second bearing 22a) surrounding said crank axle for rotation of said crank axle about said axial axis, and said crank axle being an integral one-piece crank axle that simultaneously extends through both said first bearing and said second bearing said crank axle includes reinforcement fibers for structural reinforcement of said crank axle, at least a portion of said reinforcement fibers extend in a helical direction about said axial axis, said crank axle constitutes a structurally hollow element with a structural outer shell (146, 184) and an axially extending central hollow core (138, 168).
Transport bag comprising a base, a top portion, and side walls extending between said base and top portion in such a way that a volume for storing granule, fluid, viscous, or semi-fluid materials is formed, wherein the transport bag comprises at least one narrowed portion extending through a middle axis (a) of said side walls from an upper edge to a bottom edge of the side walls arranged between the base and the top portion, wherein the narrowed portion is formed by shaping two opposite vertical edges of each side wall in a concave manner, and at least one joining edge is provided, which is formed by bringing together the vertical edges of adjacent side walls, characterized in that at least one sheath is provided, which is connected to said joining edge and extends at least partially along said joining edge, and at least one support element is provided inside the sheath, wherein the support element is formed at least partially of an elastic material or comprises such an elastic material.
A flow control valve for connecting first and second cooling circuits (102, 104) in series or parallel circuit connection with one another, comprising: a housing forming four internal passages and an internal cavity in fluid communication with each of the four internal passages, wherein each of the four internal passages is in fluid communication with a respective one of four ports (114, 116, 120, 122); a flow direction block disposed in the internal cavity, the flow direction block forming two flow passages, each extending through a portion of the flow direction block and being separate from the other, wherein the flow direction block is moveable within the internal cavity such that each of the free ends of each of the two flow passages is selectively alignable with a respective one of the four internal passages of the housing along a respective interface when the flow direction block is moved from a first position to a second position within the internal cavity; a seal disposed around each interface and configured to seal against fluid leakage at the interface; characterised in that the seal includes an internal face, which presses against an outer surface of the flow direction block to form a seal, and an external face, which presses against an inner portion of the housing to form a seal, the pressing against the outer portion of the flow direction block and the inner portion of the housing depending at least in part on a differential fluid pressure that acts on internal and external surfaces (60, 62) of the seal. a housing forming four internal passages and an internal cavity in fluid communication with each of the four internal passages, wherein each of the four internal passages is in fluid communication with a respective one of four ports (114, 116, 120, 122); a flow direction block disposed in the internal cavity, the flow direction block forming two flow passages, each extending through a portion of the flow direction block and being separate from the other, wherein the flow direction block is moveable within the internal cavity such that each of the free ends of each of the two flow passages is selectively alignable with a respective one of the four internal passages of the housing along a respective interface when the flow direction block is moved from a first position to a second position within the internal cavity; a seal disposed around each interface and configured to seal against fluid leakage at the interface; characterised in that the seal includes an internal face, which presses against an outer surface of the flow direction block to form a seal, and an external face, which presses against an inner portion of the housing to form a seal, the pressing against the outer portion of the flow direction block and the inner portion of the housing depending at least in part on a differential fluid pressure that acts on internal and external surfaces (60, 62) of the seal.