mhurhangee/ep-ind-claims huggingface dataset:
A press comprising, a chamber; a ram; an actuator; and, a fastening system connecting the ram to the actuator, the fastening system having a pin extending from the actuator through a clearance hole in the ram and an abutment inside the ram, the abutment being attached to or part of the pin or both, wherein the abutment projects beyond the clearance hole such that when the actuator moves out of the chamber, the actuator pulls on the pin and the pin pushes against the inner surface of ram, characterized in that, the press comprises first and second plates (110a, 110b) between the abutment and an inside surface of the ram, wherein the first and second plates (110a, 110b) have corresponding non-planar adjacent surfaces. a chamber; a ram; an actuator; and, a fastening system connecting the ram to the actuator, the fastening system having a pin extending from the actuator through a clearance hole in the ram and an abutment inside the ram, the abutment being attached to or part of the pin or both, wherein the abutment projects beyond the clearance hole such that when the actuator moves out of the chamber, the actuator pulls on the pin and the pin pushes against the inner surface of ram, characterized in that, the press comprises first and second plates (110a, 110b) between the abutment and an inside surface of the ram, wherein the first and second plates (110a, 110b) have corresponding non-planar adjacent surfaces.
A device comprising: a substrate; a plurality of organic electronic devices, wherein each of the organic electronic devices comprises an anode (28,32) and a cathode (30,34), and wherein each of the plurality of organic electronic devices is electrically connected in series; and a layer of an electro-active material having a first side and a second side disposed between the anode (28,32) and cathode (30,34) of each of the plurality of organic electronic devices and configured to serve as a common intermediate layer between the anodes and cathodes of each of the organic electronic devices; characterized in that the device further comprises an interconnect layer disposed on the substrate, wherein the interconnect layer is configured to electrically connect in series a first organic electronic device and a second organic electronic device of the plurality of organic electronic devices, disposed adjacent to each other via electrically connecting in series an anode of the first organic electronic device and a cathode of the second organic electronic device, wherein the anode of the first organic electronic device and the cathode of the second electronic device are each patterned on the interconnect layer and disposed on the first side of the layer of electro-active material. a substrate; a plurality of organic electronic devices, wherein each of the organic electronic devices comprises an anode (28,32) and a cathode (30,34), and wherein each of the plurality of organic electronic devices is electrically connected in series; and a layer of an electro-active material having a first side and a second side disposed between the anode (28,32) and cathode (30,34) of each of the plurality of organic electronic devices and configured to serve as a common intermediate layer between the anodes and cathodes of each of the organic electronic devices; characterized in that the device further comprises an interconnect layer disposed on the substrate, wherein the interconnect layer is configured to electrically connect in series a first organic electronic device and a second organic electronic device of the plurality of organic electronic devices, disposed adjacent to each other via electrically connecting in series an anode of the first organic electronic device and a cathode of the second organic electronic device, wherein the anode of the first organic electronic device and the cathode of the second electronic device are each patterned on the interconnect layer and disposed on the first side of the layer of electro-active material.
A three-dimensional rib for a crash test dummy characterized in that the rib comprises: at least two layers of a band material including a front layer and a rear layer each made of a mixture of a fibrous based material and a polymer based material with an interior spaced therebetween; and a layer of damping material sandwiched in the interior between said at least two layers of said band material. at least two layers of a band material including a front layer and a rear layer each made of a mixture of a fibrous based material and a polymer based material with an interior spaced therebetween; and a layer of damping material sandwiched in the interior between said at least two layers of said band material.
A frameless door or window, in particular a sliding door or sliding window, preferably for a glass façade, consisting of an insulating glass pane formed out of at least two parallel glass panes (12, 13) spaced apart from each other, wherein the insulating glass pane has bilateral steps in the edge region, and one or several spacers for the two glass panes (12, 13) is/are spaced apart from the glass pane edge, and this free space incorporates at least one functional part, for example a lift-slide fitting, as well as a block frame preferably comprised of hollow profiles, wherein a main beam consisting of a hollow profile preferably having an essentially rectangular cross section is provided as the in particular upper and/or lower block frame part, wherein the main beam has at least one recess corresponding to the opening width (a) or displacement length (b) of the sliding door or sliding window, wherein the space in the main beam created by the recess accommodates at least one insulating element (7, 21) and/or a component for the function of the sliding door or sliding window, characterized in that at least one insulating element is provided in the space of the main beam of the lower block frame part, wherein the insulating element forms a plane with the outer contour of the main beam, and a rail running for the lift-slide fitting is provided on the insulating element, and that at least one insulating element and guide rail for the displacement movement is provided in the space of the main beam of the upper block frame part, wherein the guide rail is arranged on the insulating element.
A front ballast system (26, 234) with a front perception module (44, 236) utilized in conjunction with the front ballast system (26, 234), the front ballast system (26, 234) being configured to be mounted to the front of a work vehicle (20, 232), wherein: the front ballast system (26, 234) supports removable ballast weights (90, 240), the front perception module (44, 236) comprises: an environmental depth perception sensor system (22, 196) including a first EDP device (52, 230) having a field of view encompassing an environmental region forward of the work vehicle (20, 232); a mounting base (100, 102, 246) configured to be attached to the front of the work vehicle (20, 232;), and a front module housing (50, 248) containing the EDP sensor system (22, 196) and joined to the mounting base (100, 102, 246), characterized in that the front ballast system (26, 234) has a laterally-extending hanger bracket (84, 238) supporting the removable ballast weights (90, 240), and that the front module housing (50, 248) is positioned over and vertically spaced from the laterally-extending hanger bracket (84, 238) in a manner enabling positioning of the removable ballast weights (90, 240) beneath the front module housing (50, 248). the front ballast system (26, 234) supports removable ballast weights (90, 240), the front perception module (44, 236) comprises: an environmental depth perception sensor system (22, 196) including a first EDP device (52, 230) having a field of view encompassing an environmental region forward of the work vehicle (20, 232); a mounting base (100, 102, 246) configured to be attached to the front of the work vehicle (20, 232;), and a front module housing (50, 248) containing the EDP sensor system (22, 196) and joined to the mounting base (100, 102, 246), an environmental depth perception sensor system (22, 196) including a first EDP device (52, 230) having a field of view encompassing an environmental region forward of the work vehicle (20, 232); a mounting base (100, 102, 246) configured to be attached to the front of the work vehicle (20, 232;), and a front module housing (50, 248) containing the EDP sensor system (22, 196) and joined to the mounting base (100, 102, 246), characterized in that the front ballast system (26, 234) has a laterally-extending hanger bracket (84, 238) supporting the removable ballast weights (90, 240), and that the front module housing (50, 248) is positioned over and vertically spaced from the laterally-extending hanger bracket (84, 238) in a manner enabling positioning of the removable ballast weights (90, 240) beneath the front module housing (50, 248).
A telecommunication system comprising a plurality of remote sub-networks (306, 307, 308), a sub-network comprising at least one tactical radio node NRT (303, 304, 306) acting as a gateway between said sub-network and a backbone network made up of at least one airborne communication node, said system being characterised in that an NRT node (303, 304, 306) communicates with said airborne communication node by converting the waveform of the signals to be transmitted outside the sub-network associated therewith into a waveform used by said airborne communication node, said airborne communication node transmitting the signal thus received, without modifying the waveform, to at least one node NRT belonging to another sub-network.
A cosmetic method of reducing a lesion associated with melasma in non-injured skin comprising: providing a topical formulation comprising a first defensin at a concentration effective to recruit LGR6+ stem cells to an interfollicular space in non-injured skin; and applying the topical formulation to the non-injured skin under a protocol effective to reduce a lesion associated with melasma, wherein the first defensin comprises at least one of the group consisting of alpha-defensin 1, alpha-defensin 5, alpha-defensin 6, neutrophil defensin 1, neutrophil defensin 2, neutrophil defensin 3, neutrophil defensin 4, theta-defensin, beta-defensin 1, beta-defensin 2, beta-defensin 3, and beta-defensin 4. providing a topical formulation comprising a first defensin at a concentration effective to recruit LGR6+ stem cells to an interfollicular space in non-injured skin; and applying the topical formulation to the non-injured skin under a protocol effective to reduce a lesion associated with melasma,
A drape for a negative-pressure therapy system, comprising: a film layer; a layer of bonding adhesive coupled to the film layer; and a mesh coated with a sealing adhesive and coupled to the bonding adhesive, wherein the mesh comprises: a plurality of mesh apertures, each mesh aperture comprising an effective diameter between 0.5 millimeters and 4 millimeters, and a plurality of bonding apertures formed in the mesh, each bonding aperture comprising an effective diameter in a range of 5 millimeters to 15 millimeters. a film layer; a layer of bonding adhesive coupled to the film layer; and a mesh coated with a sealing adhesive and coupled to the bonding adhesive, wherein the mesh comprises: a plurality of mesh apertures, each mesh aperture comprising an effective diameter between 0.5 millimeters and 4 millimeters, and a plurality of bonding apertures formed in the mesh, each bonding aperture comprising an effective diameter in a range of 5 millimeters to 15 millimeters. a plurality of mesh apertures, each mesh aperture comprising an effective diameter between 0.5 millimeters and 4 millimeters, and a plurality of bonding apertures formed in the mesh, each bonding aperture comprising an effective diameter in a range of 5 millimeters to 15 millimeters.
A method of generating a non-equilibrium solution of peracetic acid, comprising: a. providing water; b. introducing triacetin and aqueous hydrogen peroxide to the water separately, either simultaneously or sequentially, with either one first; c. mixing the triacetin and the aqueous hydrogen peroxide with the water to form a mixture; d. adding an aqueous source of an alkali metal or earth alkali metal hydroxide to the mixture; and e. forming a reaction medium comprising a non-equilibrium solution of peracetic acid, characterized in that the aqueous source of the alkali metal or earth alkali metal hydroxide is sodium hydroxide at 1.82% to 7.28% by weight, and wherein the mole ratio of the sodium hydroxide to the hydrogen peroxide to the triacetin is 4.2:3.8:1. a. providing water; b. introducing triacetin and aqueous hydrogen peroxide to the water separately, either simultaneously or sequentially, with either one first; c. mixing the triacetin and the aqueous hydrogen peroxide with the water to form a mixture; d. adding an aqueous source of an alkali metal or earth alkali metal hydroxide to the mixture; and e. forming a reaction medium comprising a non-equilibrium solution of peracetic acid, characterized in that the aqueous source of the alkali metal or earth alkali metal hydroxide is sodium hydroxide at 1.82% to 7.28% by weight, and wherein the mole ratio of the sodium hydroxide to the hydrogen peroxide to the triacetin is 4.2:3.8:1.
An aircraft engine comprising: an engine case having at least one flange; and a harness of wires extending in proximity to the engine case, characterised in that: the harness of wires includes a metal shield sleeve externally covering a bundle of wires in a longitudinal direction, wherein there is at least one break in the metal shield sleeve to provide at least two sleeve segments (32A, 32B, 32C, 32D) of the metal shield sleeve longitudinally spaced along the harness of wires; and the aircraft engine further comprises a conductive contact between the at least one flange and at least one of the sleeve segments (32A...32D). an engine case having at least one flange; and a harness of wires extending in proximity to the engine case, characterised in that: the harness of wires includes a metal shield sleeve externally covering a bundle of wires in a longitudinal direction, wherein there is at least one break in the metal shield sleeve to provide at least two sleeve segments (32A, 32B, 32C, 32D) of the metal shield sleeve longitudinally spaced along the harness of wires; and the aircraft engine further comprises a conductive contact between the at least one flange and at least one of the sleeve segments (32A...32D). the harness of wires includes a metal shield sleeve externally covering a bundle of wires in a longitudinal direction, wherein there is at least one break in the metal shield sleeve to provide at least two sleeve segments (32A, 32B, 32C, 32D) of the metal shield sleeve longitudinally spaced along the harness of wires; and the aircraft engine further comprises a conductive contact between the at least one flange and at least one of the sleeve segments (32A...32D).
A method for transmitting messages related to operations of electronic devices, the method comprising: receiving, by a management apparatus, an event notification message reporting that an event occurred in at least one of a plurality of electronic devices; determining, by the management apparatus, at least one target device (120; 310) in response to receiving the event notification message, wherein the at least one target device (120; 310) is determined based on a type of the event based on urgency, a target user who uses the at least one electronic device, and a type of at least one electronic device that the target user uses; creating an event message corresponding to the event that occurred in the at least one electronic device; transmitting (213; 215), by the management apparatus, the event message to the at least one target device (120; 310); and outputting (217; 219), by the at least one target device (120; 310), the received event message. receiving, by a management apparatus, an event notification message reporting that an event occurred in at least one of a plurality of electronic devices; determining, by the management apparatus, at least one target device (120; 310) in response to receiving the event notification message, wherein the at least one target device (120; 310) is determined based on a type of the event based on urgency, a target user who uses the at least one electronic device, and a type of at least one electronic device that the target user uses; creating an event message corresponding to the event that occurred in the at least one electronic device; transmitting (213; 215), by the management apparatus, the event message to the at least one target device (120; 310); and outputting (217; 219), by the at least one target device (120; 310), the received event message.
Cable drum created from one or more materials without arc welding, which consists of side walls that contain bushings, winding space bordered by core element, and a spacer tube located within the core element, characterised by that, the cable drum has two rims having diameter "d" with radially aligned grooves having width V, which are formed in a torus shape or out of a torus shape along its external perimeter, and it has a bushing containing the grooves in a shape locking manner having height H along the perimeter with diameter D1, where the connecting lugs of the radially aligned connecting rings that are attached to the internal surface of both ends of the cylindrical core element in the side walls having ring shape with diameter D, are fixed with their upper parts having height "m" into the nests having height H2 at this point of the grooves, where H2 ≥ m, and in this way the side walls and the core element create the winding space, while the cylindrical spacer tube is fixed in a shape locking manner to the internal surfaces of bushings of the side walls.
A method for transmitting channel state information, comprising: determining, by a UE, a basis matrix according to a candidate beam vector set, wherein the basis matrix is a matrix of N beam vectors in the candidate beam vector set, and N is a positive integer; determining, by the UE, a combination coefficient matrix according to the basis matrix and a channel state parameter, wherein the combination coefficient matrix is obtained by calculating from the basis matrix and the channel state parameter and quantizing the calculated result; and feeding, by the UE, an identifier of the basis matrix, and the combination coefficient matrix back to a base station, so that the base station determines a pre-coding matrix for downlink transmission with the UE according to the basis matrix and the combination coefficient matrix; wherein determining, by the UE, the basis matrix according to the candidate beam vector set comprises: selecting, by the UE, T beam vectors from the candidate beam vector set, wherein T is an integer more than N; and selecting N beam vectors from the T beam vectors, and determining a matrix of the selected N beam vectors as the basis matrix; wherein when the UE selects T beam vectors from the candidate beam vector set, and selects N beam vectors from the T beam vectors, feeding, by the UE, the identifier of the basis matrix back to the base station comprises: feeding, by the UE, identifiers of the T beam vectors back to the base station as first-level identification information, and feeding, by the UE, identifiers of the N beam vectors in the T beam vectors back to the base station as second-level identification information. determining, by a UE, a basis matrix according to a candidate beam vector set, wherein the basis matrix is a matrix of N beam vectors in the candidate beam vector set, and N is a positive integer; determining, by the UE, a combination coefficient matrix according to the basis matrix and a channel state parameter, wherein the combination coefficient matrix is obtained by calculating from the basis matrix and the channel state parameter and quantizing the calculated result; and feeding, by the UE, an identifier of the basis matrix, and the combination coefficient matrix back to a base station, so that the base station determines a pre-coding matrix for downlink transmission with the UE according to the basis matrix and the combination coefficient matrix; selecting, by the UE, T beam vectors from the candidate beam vector set, wherein T is an integer more than N; and selecting N beam vectors from the T beam vectors, and determining a matrix of the selected N beam vectors as the basis matrix; wherein when the UE selects T beam vectors from the candidate beam vector set, and selects N beam vectors from the T beam vectors, feeding, by the UE, the identifier of the basis matrix back to the base station comprises: feeding, by the UE, identifiers of the T beam vectors back to the base station as first-level identification information, and feeding, by the UE, identifiers of the N beam vectors in the T beam vectors back to the base station as second-level identification information.
A switching assembly (10, 100) for being interposed in an electrical connection between a voltage source of a towing vehicle and a lamp of a trailer, which lamp is based on a light diode or a light bulb and can be operated in a switched on and a switched off mode, comprising a connection port for the electrical connection to a connection port on the side of the towing vehicle, which connection port is designed for a light bulb, wherein it can be automatically detected by means of the switching assembly (10, 100) whether a trailer lamp on the base of a light diode or a trailer lamp on the base of a light bulb is connected, wherein the switching assembly (10, 100) comprises a light bulb simulation unit, by means of which light bulb simulation unit an electrical resistance of a light bulb can be simulated in the switched on mode, wherein in the case of a trailer lamp on the base of a light diode an additional electrical load can be generated by means of the light bulb simulation unit, such that the current corresponding to a comparable light bulb flows through the connection port on the side of the towing vehicle, whereby a suitable adaptation is obtained by the interposition of the switching assembly (10, 100), such that a trailer which is equipped with a lamp on the base of a light diode can be operated with respect to the electrical installations thereof in the same way as a trailer which is equipped with a lamp on the base of a light bulb, characterized by a trailer detection circuit which serves to connect a test potential that is present at the connection port on the side of the towing vehicle and that is provided by the towing vehicle to a ground potential, in order to be able to detect by means of a superordinate control on the side of the towing vehicle, whether a trailer is connected to the towing vehicle, wherein the trailer detection circuit is designed, such that the test potential does not generate an undesired lighting effect in the switched off mode neither in the case of a lamp based on a light diode nor in the case of a lamp based on a light bulb of the trailer.