mhurhangee/ep-ind-claims huggingface dataset:
A checking arrangement for checking a value document having a security element, wherein the checking arrangement comprises the following along a transport path of the value document: - a magnetization device for magnetizing the security element, which comprises a first magnet-pair device and a second magnet-pair device along the transport path, and - a detector device for the detection of magnetic signals that emanate from the security element, wherein the first and second magnet-pair devices (20A, 20B) are arranged along the transport path adjacent to each other so close that through the interaction of the first magnet-pair device and the second magnet-pair device there is provided in a first section along the transport path a first magnetic field (M 1) of a first magnetic field strength (H 1) which is greater than the magnetic field strength provided in the first section by the first magnet-pair device alone and which is greater than the magnetic field strength provided in the first section by the second magnet-pair device alone, characterized in that - the distance (Δx) between the first magnet-pair device and the second magnet-pair device along the transport path is smaller than or equal to 10 mm, and - the distance (Δz) that the first magnets (3, 4) of the first magnet-pair device and the second magnets (5, 6) of the second magnet-pair device are respectively spaced apart in the direction perpendicular to the transport plane of the value document amounts to at least 2 mm. - a magnetization device for magnetizing the security element, which comprises a first magnet-pair device and a second magnet-pair device along the transport path, and - a detector device for the detection of magnetic signals that emanate from the security element, wherein the first and second magnet-pair devices (20A, 20B) are arranged along the transport path adjacent to each other so close that through the interaction of the first magnet-pair device and the second magnet-pair device there is provided in a first section along the transport path a first magnetic field (M 1) of a first magnetic field strength (H 1) which is greater than the magnetic field strength provided in the first section by the first magnet-pair device alone and which is greater than the magnetic field strength provided in the first section by the second magnet-pair device alone, characterized in that - the distance (Δx) between the first magnet-pair device and the second magnet-pair device along the transport path is smaller than or equal to 10 mm, and - the distance (Δz) that the first magnets (3, 4) of the first magnet-pair device and the second magnets (5, 6) of the second magnet-pair device are respectively spaced apart in the direction perpendicular to the transport plane of the value document amounts to at least 2 mm.
Arrangement comprising a field device with an on/off valve, a pneumatic actuator and a magnetic valve and a function monitoring device, wherein the magnetic valve applies compressed air to the actuator during electric actuation and ventilates the same during non-actuation, wherein the actuator moves the on/off valve, when applied with compressed air, into one of the on/off positions and when ventilated into the other of the on/off positions and wherein the function monitoring device is embodied to detect at least one parameter which refers to the movement of the on/off valve, characterised in that the function monitoring device has a magnetic field sensor which detects changes to a magnetic field, said magnetic field sensor being arranged in the region of the magnetic valve in order to detect the change to a magnetic field of the magnetic valve, and generating a signal awakening the function monitoring device in order to detect the at least one parameter. wherein the magnetic valve applies compressed air to the actuator during electric actuation and ventilates the same during non-actuation, wherein the actuator moves the on/off valve, when applied with compressed air, into one of the on/off positions and when ventilated into the other of the on/off positions and wherein the function monitoring device is embodied to detect at least one parameter which refers to the movement of the on/off valve, characterised in that the function monitoring device has a magnetic field sensor which detects changes to a magnetic field, said magnetic field sensor being arranged in the region of the magnetic valve in order to detect the change to a magnetic field of the magnetic valve, and generating a signal awakening the function monitoring device in order to detect the at least one parameter.
Method of producing an assembly consisting of at least two components (1, 2), made of a flat material, for example of sheet steel, which are clamped to each other at a predetermined distance by using a clamping nut, which abuts a first component on its outer side facing away from a second component, as well as by using a clamping bolt which engages in the clamping nut and abuts the second component on its outer surface facing away from the first component, as well as by using an adjustable spacer between the two components (1, 2) formed by a threaded sleeve (5, 5a) and a drum nut, wherein before screwing in or while screwing in the threaded bolt, which passes through the drum nut and the threaded sleeve, into the clamping nut, while initially also turning the drum nut, the distance between the components (1, 2) is adjusted and then during further screwing in of the clamping bolt into the clamping nut the two components are clamped to each other, wherein the clamping nut and the threaded sleeve are formed by separate components, characterised in that the clamping nut and the threaded sleeve are fixed on the first component, in that a rivet collar provided on a front side of the clamping nut is inserted through a joint opening of the first component into the threaded sleeve and is then permanently deformed into a rivet collar (11.1) engaging behind an undercut of the threaded sleeve (5, 5a). characterised in that the clamping nut and the threaded sleeve are fixed on the first component, in that a rivet collar provided on a front side of the clamping nut is inserted through a joint opening of the first component into the threaded sleeve and is then permanently deformed into a rivet collar (11.1) engaging behind an undercut of the threaded sleeve (5, 5a).
A wireless communication system comprising: a base station; a relay node; and a wireless equipment configured to perform communication for downlink with the base station without the relay node being involved and to perform communication for uplink with the base station via the relay node, wherein the wireless equipment is further configured to transmit a discovery signal for discovering the relay node by using a radio resource associated with a coverage enhancement level, the coverage enhancement level being determined in accordance with reception quality measured from a reference signal that is transmitted by the base station, wherein the relay node is configured to transmit information on the radio resource on which the discovery signal is received, or information on the coverage enhancement level that is determined based on the radio resource on which the discovery signal is received, to the base station, and wherein the base station is configured to determine the coverage enhancement level of the downlink for the wireless equipment, based on information that is received from the relay node, and perform the communication for the downlink with the wireless equipment at the determined coverage enhancement level. a base station; a relay node; and a wireless equipment configured to perform communication for downlink with the base station without the relay node being involved and to perform communication for uplink with the base station via the relay node, wherein the wireless equipment is further configured to transmit a discovery signal for discovering the relay node by using a radio resource associated with a coverage enhancement level, the coverage enhancement level being determined in accordance with reception quality measured from a reference signal that is transmitted by the base station, wherein the relay node is configured to transmit information on the radio resource on which the discovery signal is received, or information on the coverage enhancement level that is determined based on the radio resource on which the discovery signal is received, to the base station, and wherein the base station is configured to determine the coverage enhancement level of the downlink for the wireless equipment, based on information that is received from the relay node, and perform the communication for the downlink with the wireless equipment at the determined coverage enhancement level. determine the coverage enhancement level of the downlink for the wireless equipment, based on information that is received from the relay node, and perform the communication for the downlink with the wireless equipment at the determined coverage enhancement level.
Sliding element, in particular piston ring, which on at least one running surface from the inside to the outside has a coating with a metal-containing adhesive layer and a DLC layer of the type ta-C having a thickness of at least 10 μm, wherein the outer 1 μm to 3 μm of the ta-C layer are doped with at least one of the following elements: boron, oxygen and/or silicon.
Elongated article encased in a cladding material, in particular for producing a longitudinal covering for cables in automobiles, wherein the cladding material is equipped with a carrier and with at least two closing strips made from an adhesive compound arranged on an upper side and/or lower side of the carrier, wherein further the closing strips extend along respective longitudinal edges of the carrier and define a free area between and/or beside themselves, wherein further the carrier is constructed in a single ply and has an abrasion resistance of at least class D according to LV 312-1, 2009, characterized in that besides the two closing strips, a further, third adhesive strip is provided as a fixing strip, wherein additionally the fixing strip is arranged cross-sectionally in the free area between and/or beside the two closing strips and wherein the cladding material is fixed in the axial direction on the elongated article by the fixing strip, and the two closing strips are stuck against each other, forming a closure and a wrapping. the closing strips extend along respective longitudinal edges of the carrier and define a free area between and/or beside themselves, wherein further the carrier is constructed in a single ply and has an abrasion resistance of at least class D according to LV 312-1, 2009, characterized in that besides the two closing strips, a further, third adhesive strip is provided as a fixing strip, wherein additionally the fixing strip is arranged cross-sectionally in the free area between and/or beside the two closing strips and wherein the cladding material is fixed in the axial direction on the elongated article by the fixing strip, and the two closing strips are stuck against each other, forming a closure and a wrapping.
Use of an additive comprising at least one thiosulphate of the general formula MeS 2 O 3 or Me 2 (S 2 O 3) where Me is an alkali metal or alkaline earth metal or ammonium for reducing the emission of volatile organic compounds whose retention time in a gas chromatogram is between hexane and hexadecane from lignocellulosic comminution products or wood-base materials produced therefrom wherein the wood-base materials are produced by provision of lignocellulosic comminution products, addition of the additive for treating the lignocellulosic comminution products and optional compression moulding of the additive-admixed lignocellulosic comminution products with adhesive under thermal treatment to produce a wood-base material.
A light emitting device comprising: a second electrode layer including a reflective layer; a p-type semiconductor layer on the second electrode layer; a second active layer that emits light on the reflective layer; a first active layer that does not emit light, including Si and contacting the second active layer; and an n-type semiconductor layer on the first active layer, wherein the first and second active layers (114v, 114a) include Al x Ga y N (0≤x and y≤1), and an Al composition in a quantum well of the first active layer is greater than that of the second active layer, wherein an entire thickness of the first and second active layers (114v, 114a) is equal to or greater than λ/n, and a thickness of the second active layer is equal to or less than λ/n, wherein the light has a first light emitting toward the n-type semiconductor layer and a second light emitting toward the n-type semiconductor layer via the reflective layer, and wherein the distance, denoted with d, between the reflective layer and a quantum well closest to the reflective layer in the second active layer satisfies the following equation that satisfies a constructive interference condition so that the first and second light have the same phase: d = λ / 4 n × 2 m + 1 ± Δ − 2 ⁢ α, wherein λ is a wavelength of emitting light, n is an average refractive index of a medium between the active layer and the reflective layer, m is an integer greater than or equal to 0, Δ is a value smaller than 3λ/16n, and α is a skin depth in the reflective layer a second electrode layer including a reflective layer; a p-type semiconductor layer on the second electrode layer; a second active layer that emits light on the reflective layer; a first active layer that does not emit light, including Si and contacting the second active layer; and an n-type semiconductor layer on the first active layer, wherein the first and second active layers (114v, 114a) include Al x Ga y N (0≤x and y≤1), and an Al composition in a quantum well of the first active layer is greater than that of the second active layer, wherein an entire thickness of the first and second active layers (114v, 114a) is equal to or greater than λ/n, and a thickness of the second active layer is equal to or less than λ/n, wherein the light has a first light emitting toward the n-type semiconductor layer and a second light emitting toward the n-type semiconductor layer via the reflective layer, and wherein the distance, denoted with d, between the reflective layer and a quantum well closest to the reflective layer in the second active layer satisfies the following equation that satisfies a constructive interference condition so that the first and second light have the same phase: d = λ / 4 n × 2 m + 1 ± Δ − 2 ⁢ α, wherein λ is a wavelength of emitting light, n is an average refractive index of a medium between the active layer and the reflective layer, m is an integer greater than or equal to 0, Δ is a value smaller than 3λ/16n, and α is a skin depth in the reflective layer
A method for manufacturing a catalyst for synthesizing an oxygenate from a mixed gas containing hydrogen and carbon monoxide, the method comprising: supporting a component on a carrier to form a primary support body, bringing an alkaline aqueous solution into contact with the primary support body, and subsequently supporting components to on the primary support body, wherein: the component is rhodium, the component is manganese, the component is alkali metal, and the component is titanium, and wherein the catalyst for oxygenate synthesis is represented by formula shown below: aA ⋅ dB ⋅ cC ⋅ dD wherein A represents the component, B represents the component, C represents the component, D represents the component, and each of a, b, c and d represents a molar fraction, wherein a + b + c + d = 1, a = 0.05 to 0.98, b = 0.0005 to 0.67, c = 0.0005 to 0.51, and d = 0.002 to 0.95, and wherein the component is supported on a carrier to form a primary support body by a primary drying operation where the carrier impregnated with a primary impregnating solution containing the component and water is dried at 80 to 120°C, and a primary baking step where the carrier is then heated and baked at 300 to 600°C. supporting a component on a carrier to form a primary support body, bringing an alkaline aqueous solution into contact with the primary support body, and subsequently supporting components to on the primary support body, wherein: the component is rhodium, the component is manganese, the component is alkali metal, and the component is titanium, and the component is rhodium, the component is manganese, the component is alkali metal, and the component is titanium, and wherein the catalyst for oxygenate synthesis is represented by formula shown below: aA ⋅ dB ⋅ cC ⋅ dD wherein A represents the component, B represents the component, C represents the component, D represents the component, and each of a, b, c and d represents a molar fraction, wherein a + b + c + d = 1, a = 0.05 to 0.98, b = 0.0005 to 0.67, c = 0.0005 to 0.51, and d = 0.002 to 0.95, and wherein the component is supported on a carrier to form a primary support body by a primary drying operation where the carrier impregnated with a primary impregnating solution containing the component and water is dried at 80 to 120°C, and a primary baking step where the carrier is then heated and baked at 300 to 600°C. a = 0.05 to 0.98, b = 0.0005 to 0.67, c = 0.0005 to 0.51, and d = 0.002 to 0.95, and
A vortex flowmeter comprising: a flow tube having a first end and a second end; a shedder bar disposed within the flow tube between the first end and the second end, the shedder bar being configured to generate vortices in fluid flowing through the flow tube; a plurality of piezoelectric film sensors (150, 152, 154) operably coupled to an external surface of the flow tube and configured to detect individual deformations of the flow tube resulting from vortices inside the flow tube; and flowmeter electronics configured to generate a process fluid flow output based on vortex frequency detection; wherein each of the piezoelectric film sensors (150, 152, 154) is coupled to the flowmeter electronics, characterized in that the flowmeter electronics are configured to perform an analysis of a signal from at least one piezoelectric film sensor mounted to the external surface of the flow tube upstream from the shedder bar to detect flow noise and of a signal from at least one piezoelectric film sensor (150, 152) mounted to the external surface of the flow tube downstream from the shedder bar to detect vortex frequency. a flow tube having a first end and a second end; a shedder bar disposed within the flow tube between the first end and the second end, the shedder bar being configured to generate vortices in fluid flowing through the flow tube; a plurality of piezoelectric film sensors (150, 152, 154) operably coupled to an external surface of the flow tube and configured to detect individual deformations of the flow tube resulting from vortices inside the flow tube; and flowmeter electronics configured to generate a process fluid flow output based on vortex frequency detection; wherein each of the piezoelectric film sensors (150, 152, 154) is coupled to the flowmeter electronics, characterized in that the flowmeter electronics are configured to perform an analysis of a signal from at least one piezoelectric film sensor mounted to the external surface of the flow tube upstream from the shedder bar to detect flow noise and of a signal from at least one piezoelectric film sensor (150, 152) mounted to the external surface of the flow tube downstream from the shedder bar to detect vortex frequency.
A device for transmitting torques for driving an auxiliary unit, in particular an alternator, preferably in a motor vehicle, and for damping torsional vibrations, said device comprising drive means being drivable about an axis of rotation by a combustion engine and output means being rotatable about the axis of rotation and being configured and disposed for driving the auxiliary unit, at least one axial end face of the drive means and/or of the output means carrying permanent magnet means (10, 11) allowing torques to be transmitted between the drive means and the output means and allowing torsional vibrations to be dampened, the poles (13, 14, 15, 16) of the permanent magnet means (10, 11) being disposed in at least one radial plane, the permanent magnet means (10, 11) having several permanent magnet elements disposed adjacent to one another in the circumferential direction, said permanent magnets being directly adjacent to one another, in particular being in direct contact with one another or being fixed to one another via an adhesive layer having a thickness of less than 2 mm, and/or the permanent magnet means (10, 11) comprising at least one molding made of plastic, in particular an injection-molded part made of plastic and/or a molding made of a sintered material, and/or the permanent magnet means (10, 11) being disposed on a geometrical, preferably concentric circular orbit, preferably an elliptical orbit, (27, 28) deviating from a concentric orbit, characterized in that a relative rotation of the drive means and output means is limited by at least one mechanical driving connection (5, 6), preferably several mechanical driving connections (5, 6) being disposed on a circular orbit extending concentrically to the axis of rotation or on a non-circular annular orbit.
A system for advancing a fuselage section of an aircraft, the system comprising: a series of plates configured to be sequentially affixed along a length of the fuselage section; a track configured to form a frictional fit with the plates, the track comprising: drive units configured to form nips retaining the series of plates, and that are configured to advance the fuselage section along the track in a process direction; and indexing elements that are configured to engage with indexing elements at the plates during pauses between operation of the drive units; and tools (360, 370) configured to perform work on the fuselage section while the indexing elements of the track are engaged. a series of plates configured to be sequentially affixed along a length of the fuselage section; a track configured to form a frictional fit with the plates, the track comprising: drive units configured to form nips retaining the series of plates, and that are configured to advance the fuselage section along the track in a process direction; and indexing elements that are configured to engage with indexing elements at the plates during pauses between operation of the drive units; and drive units configured to form nips retaining the series of plates, and that are configured to advance the fuselage section along the track in a process direction; and indexing elements that are configured to engage with indexing elements at the plates during pauses between operation of the drive units; and tools (360, 370) configured to perform work on the fuselage section while the indexing elements of the track are engaged.