mhurhangee/ep-ind-claims huggingface dataset:
A device for folding a collapsible crate, the collapsible crate comprising a base, a first pair of opposed walls (14, 18) pivotable about their upper sections from a locked position to initiate folding of the collapsible crate and a second pair of opposed walls (16, 20) configured to buckle after the first pair of opposed walls have moved from the locked position, the device comprising: a frame defining a vertical process channel for the collapsible crate; conveying means (130, 132) defining a conveyor plane moveable along the vertical process channel, the conveying means configured to convey the collapsible crate along the vertical process channel by supporting the base of the collapsible crate on the conveyor plane; unlocking means configured to apply a horizontal force to the first pair of opposed walls to unlock the first pair of opposed walls during the initial conveyance of the collapsible crate along the vertical process channel; pivoting means configured to pivot the first pair of opposed walls away from the conveyor plane; and, buckling means configured to buckle the second pair of opposed walls to enable folding of the collapsible crate during continuing conveyance of the collapsible crate along the vertical process channel. a frame defining a vertical process channel for the collapsible crate; conveying means (130, 132) defining a conveyor plane moveable along the vertical process channel, the conveying means configured to convey the collapsible crate along the vertical process channel by supporting the base of the collapsible crate on the conveyor plane; unlocking means configured to apply a horizontal force to the first pair of opposed walls to unlock the first pair of opposed walls during the initial conveyance of the collapsible crate along the vertical process channel; pivoting means configured to pivot the first pair of opposed walls away from the conveyor plane; and, buckling means configured to buckle the second pair of opposed walls to enable folding of the collapsible crate during continuing conveyance of the collapsible crate along the vertical process channel.
Transparent pane electrically heatable over a large area, comprising: - a large-surfaced, electrically conductive, transparent coating applied on a transparent electrically insulating substrate, - at least two current collector strips electrically connected to the electrically conductive transparent coating, - at least one locally delimited region free of the coating, wherein at least one heating conductor with two poles (8.1) (8.2) is applied within the free region and wherein the first pole (8.1) is electrically connected to the electrically conductive transparent coating and the second pole (8.2) is electrically connected to the electrically conductive transparent coating or to a current collector strip, characterized in that the total resistance of the heating conductors is from 70% to 130% of an equivalent substitute resistance of the locally delimited region free of the coating. - a large-surfaced, electrically conductive, transparent coating applied on a transparent electrically insulating substrate, - at least two current collector strips electrically connected to the electrically conductive transparent coating, - at least one locally delimited region free of the coating,
A method of broadcasting an advertisement event by a broadcasting device, on a wireless channel, the method comprising: generating, by a packetizer, based on data, a data signal comprising one or more data packets, wherein each of the one or more data packets is a non-connectable data packet; generating a plurality of RF signals of different frequencies using a single oscillator circuit and a single chip separate from the single oscillator circuit, wherein the single chip comprises (i) a plurality of thin-film bulk acoustic resonators (602a-c, 622a-c), FBARs, where each of the resonators has a resonant frequency different from the other resonators, (ii) a first contact pad coupled to each FBAR of the plurality of FBAR (602a-c, 622a-c),, wherein the first contact pad is coupled to a ground of the single oscillator circuit such that each FBAR of the plurality of FBARs is coupled to the ground of the single oscillator circuit via the first contact pad, and (iii) a plurality of second contact pads (626a, 626b, 626c), wherein each of the plurality of second contact pads is coupled to a respective FBAR of the plurality of FBARs; wherein the second contact pads are selectively coupled to the single oscillator circuit; directly modulating at least one of the plurality of RF signals, based on the data signal, to generate a modulated RF signal; amplifying by a power amplifier, the modulated RF signal; and broadcasting by an antenna, the amplified modulated RF signal on the wireless channel, wherein the amplified modulated RF signal is associated with the advertisement event. generating, by a packetizer, based on data, a data signal comprising one or more data packets, wherein each of the one or more data packets is a non-connectable data packet; generating a plurality of RF signals of different frequencies using a single oscillator circuit and a single chip separate from the single oscillator circuit, wherein the single chip comprises (i) a plurality of thin-film bulk acoustic resonators (602a-c, 622a-c), FBARs, where each of the resonators has a resonant frequency different from the other resonators, (ii) a first contact pad coupled to each FBAR of the plurality of FBAR (602a-c, 622a-c),, wherein the first contact pad is coupled to a ground of the single oscillator circuit such that each FBAR of the plurality of FBARs is coupled to the ground of the single oscillator circuit via the first contact pad, and (iii) a plurality of second contact pads (626a, 626b, 626c), wherein each of the plurality of second contact pads is coupled to a respective FBAR of the plurality of FBARs; wherein the second contact pads are selectively coupled to the single oscillator circuit; directly modulating at least one of the plurality of RF signals, based on the data signal, to generate a modulated RF signal; amplifying by a power amplifier, the modulated RF signal; and broadcasting by an antenna, the amplified modulated RF signal on the wireless channel, wherein the amplified modulated RF signal is associated with the advertisement event.
Method for controlling the startup of the heat engine of a hybrid power train comprising a heat engine and an electric drive machine, two concentric main shafts (1, 6) coupled one to the heat engine and one to the electric machine, at least one step-down gear (8, 9) of each main shaft (1, 6) on a secondary shaft connected to the wheels of the vehicle, and a means for coupling the two main shafts (1, 6), characterized in that said method comprises the following steps: - coupling the two main shafts, - inhibiting the fuel injection of the heat engine, - launching the heat engine by means of the electric machine, - synchronizing the speed of the heat engine and of the electric machine without fuel injection, - activating the fuel injection, - turning off the electric machine and decoupling the two main shafts. - coupling the two main shafts, - inhibiting the fuel injection of the heat engine, - launching the heat engine by means of the electric machine, - synchronizing the speed of the heat engine and of the electric machine without fuel injection, - activating the fuel injection, - turning off the electric machine and decoupling the two main shafts.
A method in a telecommunications system including a Data Network, DN, a base station, a connection via the base station from the DN to a User Equipment, UE, executing a UE application producing application data, and an algorithm entity on the DN, wherein: the base station transmits a network configuration for a UE radio interface to a DN application executing on the algorithm entity; the DN application produces and transmits a filtering configuration based on the network configuration to the UE for use in filtering the application data before transmission to the algorithm entity, allowing the UE to produce application data filtered according to the filtering configuration; and the connection transmits the filtered application data to the algorithm entity. the base station transmits a network configuration for a UE radio interface to a DN application executing on the algorithm entity; the DN application produces and transmits a filtering configuration based on the network configuration to the UE for use in filtering the application data before transmission to the algorithm entity, allowing the UE to produce application data filtered according to the filtering configuration; and the connection transmits the filtered application data to the algorithm entity.
An energy return system (10, 700) comprising: a base layer (12, 712); an orthotic (18, 718); a platen (16, 716) operably coupled directly or indirectly to said base layer (12, 712), said orthotic (18, 718) or both; a lever (14, 714) including a slide portion (22, 722) in movable contact with said base layer (12,712); and a tensioning member (28, 728) having a first end coupled to said lever (14, 714) and a second end coupled to said orthotic (18, 718). a base layer (12, 712); an orthotic (18, 718); a platen (16, 716) operably coupled directly or indirectly to said base layer (12, 712), said orthotic (18, 718) or both; a lever (14, 714) including a slide portion (22, 722) in movable contact with said base layer (12,712); and a tensioning member (28, 728) having a first end coupled to said lever (14, 714) and a second end coupled to said orthotic (18, 718).
A method for producing a filter device, in particular for stabilizing beverages, with at least one filter unit which has at least one filter element, wherein the filter element is at least partially formed of a first and a third precursor (18; 21), wherein the first and third precursors (18; 21) are dissolved in a solvent to form a polymer solution; wherein the filter unit is formed as a hollow fibre by means of reactive spinning; wherein the first precursor comprises at least polyvinylpyrrolidone and at least partially forms an integrated stabilizing means of the filter unit, which is formed integrally with the filter element, wherein the formation of the stabilizing means (14, 16) by at least the first precursor is initiated by an activator in the form of a radical initiator which is added to the polymer solution before reactive spinning, wherein the first precursor is radically cross-linked and at least partially forms the filter element; wherein the third precursor comprises polysulphone, polyethersulphone and/or polyvinylidene fluoride; and wherein optionally a second precursor is provided in the polymer solution, to at least partially form a stabilizing means (14, 16). wherein the filter element is at least partially formed of a first and a third precursor (18; 21), wherein the first and third precursors (18; 21) are dissolved in a solvent to form a polymer solution; wherein the filter unit is formed as a hollow fibre by means of reactive spinning; wherein the first precursor comprises at least polyvinylpyrrolidone and at least partially forms an integrated stabilizing means of the filter unit, which is formed integrally with the filter element, wherein the formation of the stabilizing means (14, 16) by at least the first precursor is initiated by an activator in the form of a radical initiator which is added to the polymer solution before reactive spinning, wherein the first precursor is radically cross-linked and at least partially forms the filter element; wherein the third precursor comprises polysulphone, polyethersulphone and/or polyvinylidene fluoride; and wherein optionally a second precursor is provided in the polymer solution, to at least partially form a stabilizing means (14, 16).
A mechanically lined pipe comprising a host pipe having an inner surface which is lined with a metallic liner, the metallic liner having an inner surface which is lined with a polymer liner which presses the metallic liner against the inner surface of the host pipe.
A steam turbine rotor comprising: a rotor shaft made of a heat resistant 12-Cr ferritic steel; and a blade made of a titanium-aluminum alloy, wherein the titanium-aluminum alloy consists of: from 38 to 45 atomic % of aluminum; from 0.5 to 2 atomic % of vanadium; from 2 to 6 atomic % of chromium and/or molybdenum; and the balance being titanium and incidental impurities, wherein the titanium-aluminum alloy may optionally further include: one or more of niobium, tantalum, tungsten, iron, manganese and nickel in a total amount from 0.5 to 3 atomic %; and/or from 0.05 to 0.2 atomic % of boron, wherein the 12-Cr steel consists of: from 0.05 to 0.30 mass % of carbon; 0.2 or less mass % of silicon; from 0.01 to 1.5 mass % of manganese; from 0.005 to 0.3 mass % of nickel; from 8.5 to 11.0 mass % of chromium; from 0.05 to 0.5 mass % of molybdenum; from 1.0 to 3.0 mass % of tungsten; from 0.05 to 0.30 mass % of vanadium; from 0.01 to 0.20 mass % of niobium; from 0.5 to 2.5 mass % of cobalt; from 0.01 to 1.0 mass % of rhenium; from 0.01 to 0.1 mass % of nitrogen; from 0.001 to 0.030 mass % of boron; from 0.0005 to 0.006 mass % of aluminum; and the balance being iron and incidental impurities. a rotor shaft made of a heat resistant 12-Cr ferritic steel; and a blade made of a titanium-aluminum alloy, wherein the titanium-aluminum alloy consists of: from 38 to 45 atomic % of aluminum; from 0.5 to 2 atomic % of vanadium; from 2 to 6 atomic % of chromium and/or molybdenum; and the balance being titanium and incidental impurities, wherein the titanium-aluminum alloy may optionally further include: one or more of niobium, tantalum, tungsten, iron, manganese and nickel in a total amount from 0.5 to 3 atomic %; and/or from 0.05 to 0.2 atomic % of boron, wherein the 12-Cr steel consists of: from 0.05 to 0.30 mass % of carbon; 0.2 or less mass % of silicon; from 0.01 to 1.5 mass % of manganese; from 0.005 to 0.3 mass % of nickel; from 8.5 to 11.0 mass % of chromium; from 0.05 to 0.5 mass % of molybdenum; from 1.0 to 3.0 mass % of tungsten; from 0.05 to 0.30 mass % of vanadium; from 0.01 to 0.20 mass % of niobium; from 0.5 to 2.5 mass % of cobalt; from 0.01 to 1.0 mass % of rhenium; from 0.01 to 0.1 mass % of nitrogen; from 0.001 to 0.030 mass % of boron; from 0.0005 to 0.006 mass % of aluminum; and the balance being iron and incidental impurities.
Test appliance for testing a mirror, in particular a mirror of a microlithographic projection exposure apparatus, wherein the test appliance comprises a computer-generated hologram and wherein a test can be carried out on at least a portion of the mirror by way of an interferometric superposition of a test wave that is directed onto the mirror by this computer-generated hologram and a reference wave, wherein the computer-generated hologram (120, 320) is designed in such a way that, during operation of the appliance, it provides a first test wave for testing a first portion of the mirror (101, 301) by interferometric superposition with a reference wave in a first position of the mirror (101, 301) and at least a second test wave for testing a second portion of the mirror (101, 301) by interferometric superposition with a reference wave in a second position of the mirror (101, 301); characterized in that the computer-generated hologram (120, 320) for providing the first test wave and the second test wave has a complex encoding of CGH structures that differ from one another.
Luminaire with wake-up function comprising - at least one transparent, pellucid organic light-emitting diode, - at least one driving device, and - at least one touch-sensitive operating element, wherein - the at least one organic light-emitting diode is designed to emit white light, - the at least one organic light-emitting diode comprises a radiation-emitting region having a plurality of emission layers (111, 112, 113), - at least a first one of the emission layers is designed to emit red light and contains a phosphorescent emitter material, - at least a second one of the emission layers is designed to emit green light, - at least a third one of the emission layers is designed to emit blue light and contains a fluorescent emitter material, - the at least one organic light-emitting diode comprises at least one encapsulation which forms a seal of the radiation-emitting region against environmental influences, - the at least one driving device is designed to increase the light intensity of the light emitted by the organic light-emitting diode starting from a predeterminable wake-up time, - the at least one touch-sensitive operating element comprises at least one touch sensor integrated into the at least one organic light-emitting diode, - the wake-up time can be predetermined by means of the at least one touch-sensitive operating element, - the luminaire is designed to emit light with a maximum light intensity (Imax) of at least 1000 cd. - at least one transparent, pellucid organic light-emitting diode, - at least one driving device, and - at least one touch-sensitive operating element, wherein - the at least one organic light-emitting diode is designed to emit white light, - the at least one organic light-emitting diode comprises a radiation-emitting region having a plurality of emission layers (111, 112, 113), - at least a first one of the emission layers is designed to emit red light and contains a phosphorescent emitter material, - at least a second one of the emission layers is designed to emit green light, - at least a third one of the emission layers is designed to emit blue light and contains a fluorescent emitter material, - the at least one organic light-emitting diode comprises at least one encapsulation which forms a seal of the radiation-emitting region against environmental influences, - the at least one driving device is designed to increase the light intensity of the light emitted by the organic light-emitting diode starting from a predeterminable wake-up time, - the at least one touch-sensitive operating element comprises at least one touch sensor integrated into the at least one organic light-emitting diode, - the wake-up time can be predetermined by means of the at least one touch-sensitive operating element, - the luminaire is designed to emit light with a maximum light intensity (Imax) of at least 1000 cd.
An arrangement system comprising a plurality of electrical/electronic components (2, 3, 4), particularly of a voltage converter device of a power supply system for use in oil/natural gas production, comprising at least one support member which is provided at least on one side with an accommodating recess (6, 7), a circuit carrier which is arranged in the accommodating recess and electrically connected to the components (2, 3, 4), and a holding member which fixes the circuit carrier and the components (2, 3, 4) in the accommodating recess (6, 7), wherein an insulating material is arranged at least in part between circuit carrier and components (2, 3, 4) and a surface of the accommodating recess of the support member.
An energy dissipater (2000, 3000, 5000) comprising a plurality of shells (140, 142), all surfaces of the shells (140, 142) being formed as periodic hyperbolic paraboloidal surfaces forming a continuous solid, thin shell surface-structure that envelopes contiguous tunnels there through, the tunnels being arranged according to a dual-intertwined cubic network pair.
A controller that controls behavior of a lean vehicle, the controller comprising: a control section configured to perform a brake control to increase a braking force of the lean vehicle in a situation where a brake operation is performed by a rider of the lean vehicle, the control section configured to perform the brake control based on a collision possibility that is determined in response to an output result from an environment sensor, wherein the control section, in the brake control performed based on the collision possibility in the situation where the brake operation is performed by the rider, controls the braking force based on posture information of the lean vehicle, and characterised in that the control section, in the brake control performed based on the collision possibility in the situation where the brake operation is performed by the rider, changes an upper limit value of a degree of increase in the braking force and/or an upper limit value of the braking force, according to an operation amount of the brake operation. a control section configured to perform a brake control to increase a braking force of the lean vehicle in a situation where a brake operation is performed by a rider of the lean vehicle, the control section configured to perform the brake control based on a collision possibility that is determined in response to an output result from an environment sensor, wherein the control section, in the brake control performed based on the collision possibility in the situation where the brake operation is performed by the rider, controls the braking force based on posture information of the lean vehicle, and characterised in that the control section, in the brake control performed based on the collision possibility in the situation where the brake operation is performed by the rider, changes an upper limit value of a degree of increase in the braking force and/or an upper limit value of the braking force, according to an operation amount of the brake operation.
A method for wireless communications by a user equipment (115; 605; 705; 905), comprising: receiving (405; 1405; 1505; 1605) control information indicating a resource allocation within a slot, the slot being one of a defined number of slots included in a cyclic time interval; identifying (410; 1410; 1510; 1610) that the slot includes at least one additional symbol period as compared to a defined number of symbol periods included in other slots of the defined number of slots, based at least in part on a position of the slot within the cyclic time interval; and transmitting or receiving (420; 1415; 1515; 1615) a waveform within the slot; wherein transmitting or receiving (420; 1415; 1515; 1615) the waveform within the slot further comprises: receiving the waveform within the slot, and decoding the waveform based at least in part on the identifying that the slot includes the at least one additional symbol period; or generating the waveform based at least in part on the identifying that the slot includes the at least one additional symbol period, and transmitting the waveform within the slot. receiving (405; 1405; 1505; 1605) control information indicating a resource allocation within a slot, the slot being one of a defined number of slots included in a cyclic time interval; identifying (410; 1410; 1510; 1610) that the slot includes at least one additional symbol period as compared to a defined number of symbol periods included in other slots of the defined number of slots, based at least in part on a position of the slot within the cyclic time interval; and transmitting or receiving (420; 1415; 1515; 1615) a waveform within the slot; wherein transmitting or receiving (420; 1415; 1515; 1615) the waveform within the slot further comprises: receiving the waveform within the slot, and decoding the waveform based at least in part on the identifying that the slot includes the at least one additional symbol period; or generating the waveform based at least in part on the identifying that the slot includes the at least one additional symbol period, and transmitting the waveform within the slot. receiving the waveform within the slot, and decoding the waveform based at least in part on the identifying that the slot includes the at least one additional symbol period; or generating the waveform based at least in part on the identifying that the slot includes the at least one additional symbol period, and transmitting the waveform within the slot.