mhurhangee/ep-ind-claims huggingface dataset:
Voltage transformer assembly with an upstream fuse, wherein a) an input direct current voltage (U in) is in contact with an entry of a first clocked voltage transformer, transmitting a short circuit, and the fuse, that is upstream of the other inlet of the first clocked voltage transformer, b) the outlets of the first clocked voltage transformer are led via a intermediate circuit voltage (U Z) to the inlets of a second clocked and regulated voltage transformer, c) a firing unit (Z 1) is connected at its firing inlet between the connecting lines between the two clocked voltage transformers (GS1, GS2) for producing a short circuit upon an adjacent firing impulse. d) an overvoltage detector (Ü1) is connected to the outlets of the second clocked voltage transformer, having a output direct current voltage (U out), and producing in case of an overvoltage a firing impulse at its control output, which is connected to the firing inlet of the firing unit (Z 1). a) an input direct current voltage (U in) is in contact with an entry of a first clocked voltage transformer, transmitting a short circuit, and the fuse, that is upstream of the other inlet of the first clocked voltage transformer, b) the outlets of the first clocked voltage transformer are led via a intermediate circuit voltage (U Z) to the inlets of a second clocked and regulated voltage transformer, c) a firing unit (Z 1) is connected at its firing inlet between the connecting lines between the two clocked voltage transformers (GS1, GS2) for producing a short circuit upon an adjacent firing impulse. d) an overvoltage detector (Ü1) is connected to the outlets of the second clocked voltage transformer, having a output direct current voltage (U out), and producing in case of an overvoltage a firing impulse at its control output, which is connected to the firing inlet of the firing unit (Z 1).
A communication method, comprising: receiving, by a terminal device, first indication information sent by a network device, wherein the first indication information is used for scheduling first uplink transmission of the terminal device; receiving, by the terminal device, a physical-layer signaling sent by the network device, wherein the physical-layer signaling is used for instructing the terminal device to abandon the first uplink transmission; and performing, by the terminal device, processing on the first uplink transmission according to the physical-layer signaling, wherein the performing comprises: if the terminal device has not completed the first uplink transmission when receiving the physical-layer signaling, performing, by the terminal device, the processing on the first uplink transmission according to the physical-layer signaling; wherein the terminal device has not completed the first uplink transmission refers to that the first uplink transmission is started but the terminal device has not sent an uplink reference signal, or a Physical Uplink Control Channel, PUCCH, corresponding to the first uplink transmission. receiving, by a terminal device, first indication information sent by a network device, wherein the first indication information is used for scheduling first uplink transmission of the terminal device; receiving, by the terminal device, a physical-layer signaling sent by the network device, wherein the physical-layer signaling is used for instructing the terminal device to abandon the first uplink transmission; and performing, by the terminal device, processing on the first uplink transmission according to the physical-layer signaling, wherein the performing comprises: if the terminal device has not completed the first uplink transmission when receiving the physical-layer signaling, performing, by the terminal device, the processing on the first uplink transmission according to the physical-layer signaling; wherein the terminal device has not completed the first uplink transmission refers to that the first uplink transmission is started but the terminal device has not sent an uplink reference signal, or a Physical Uplink Control Channel, PUCCH, corresponding to the first uplink transmission.
Process for preparing an aqueous colloidal silica sol, comprising the following steps a. preparing an aqueous solution of a water-soluble alkali metal silicate with a pH of less than 2 by mixing a water-soluble alkali metal silicate or an aqueous alkali metal silicate solution with an acidifier a1. contacting the acidic alkali metal silicate solution obtained in process step a) with a resin containing chelate-forming functional groups with binding affinity for divalent or higher-valency metal ions, the chelate-forming functional groups containing phosphonic acid groups and/or substituted or unsubstituted amino phosphonic acid groups and/or sulphonic acid groups and/or carboxyl groups b. contacting the acidic alkali metal silicate solution obtained in process step a1) with a basic anion exchange resin of the hydroxyl type and an acidic cation exchange resin of the hydrogen type in any sequence, the anion exchange resin and the cation exchange resin being used in spatial separation or in a mixture c. forming a stable colloidal silica sol by establishing a temperature, concentration and pH suitable for nucleation and particle growth in the aqueous silica solution obtained from step b). a. preparing an aqueous solution of a water-soluble alkali metal silicate with a pH of less than 2 by mixing a water-soluble alkali metal silicate or an aqueous alkali metal silicate solution with an acidifier a1. contacting the acidic alkali metal silicate solution obtained in process step a) with a resin containing chelate-forming functional groups with binding affinity for divalent or higher-valency metal ions, the chelate-forming functional groups containing phosphonic acid groups and/or substituted or unsubstituted amino phosphonic acid groups and/or sulphonic acid groups and/or carboxyl groups a1. contacting the acidic alkali metal silicate solution obtained in process step a) with a resin containing chelate-forming functional groups with binding affinity for divalent or higher-valency metal ions, the chelate-forming functional groups containing phosphonic acid groups and/or substituted or unsubstituted amino phosphonic acid groups and/or sulphonic acid groups and/or carboxyl groups b. contacting the acidic alkali metal silicate solution obtained in process step a1) with a basic anion exchange resin of the hydroxyl type and an acidic cation exchange resin of the hydrogen type in any sequence, the anion exchange resin and the cation exchange resin being used in spatial separation or in a mixture c. forming a stable colloidal silica sol by establishing a temperature, concentration and pH suitable for nucleation and particle growth in the aqueous silica solution obtained from step b).
A method comprising: receiving, by a sink device (160, 360) and from a source device (110, 210), identity information corresponding to a subscriber information module (130, 230), SIM, of the source device via a connection between the sink device and the source device; creating, at the sink device, a remote SIM with the identity information corresponding to the SIM of the source device; and communicating, by an application of the sink device using the remote SIM, with an external device via a cellular radio transceiver of the source device. receiving, by a sink device (160, 360) and from a source device (110, 210), identity information corresponding to a subscriber information module (130, 230), SIM, of the source device via a connection between the sink device and the source device; creating, at the sink device, a remote SIM with the identity information corresponding to the SIM of the source device; and communicating, by an application of the sink device using the remote SIM, with an external device via a cellular radio transceiver of the source device.
An assembly comprising: - a recording assembly for recording a time-based brain-related signal; - a stimulus generator (4, 6) for providing a stimulus, and - a computer assembly, functionally coupled to said recording assembly and to said stimulus generator (4, 6), said computer assembly comprising: - a memory for storing at least a data segment of said time-based brain-related signal during recording of said time-based brain-related signal, and - a computer program which, when running on said computer assembly, functionally real-time performs: - retrieving a most-recent data segment of said stored data segment of said time-based brain-related signal; - fitting at least one curve to said retrieved most-recent data segment; - predicting a future continuation of said most-recent data segment using said at least one curve fitted to said most-recent data segment; - detecting a predefined pattern in said predicted future continuation for predicting occurrence of said predefined pattern, and defining a predicted event time of said predefined pattern, said predicted event time being in the future with respect to said most-recent data segment, and - actuating said stimulus generator for providing a stimulus within a predefined event time window of said predicted event time. - a recording assembly for recording a time-based brain-related signal; - a stimulus generator (4, 6) for providing a stimulus, and - a computer assembly, functionally coupled to said recording assembly and to said stimulus generator (4, 6), said computer assembly comprising: - a memory for storing at least a data segment of said time-based brain-related signal during recording of said time-based brain-related signal, and - a computer program which, when running on said computer assembly, functionally real-time performs: - retrieving a most-recent data segment of said stored data segment of said time-based brain-related signal; - fitting at least one curve to said retrieved most-recent data segment; - predicting a future continuation of said most-recent data segment using said at least one curve fitted to said most-recent data segment; - detecting a predefined pattern in said predicted future continuation for predicting occurrence of said predefined pattern, and defining a predicted event time of said predefined pattern, said predicted event time being in the future with respect to said most-recent data segment, and - actuating said stimulus generator for providing a stimulus within a predefined event time window of said predicted event time.
An ultra wideband UWB wireless network comprising: a plurality of UWB wireless devices (31a' - 31n') communicating over a plurality of UWB frequency bins extending over a UWB frequency range; wherein at least one of said UWB wireless devices (31a' - 31n') is adapted for determining an existing interference level comprising an existing interference noise temperature level associated with at least one of the UWB frequency bins, and at least one of said UWB wireless devices (31a' - 31n') is adapted for setting a desired transmission level of said one of the UWB wireless devices (31a' - 31n') for use with the at least one UWB frequency bin based upon the existing interference level, wherein said transmission level for use with at least one UWB frequency bin is set to a maximum level which allows keeping the predicted overall interference level of the at least one UWB frequency bin below an imposed interference ceiling, and wherein the maximum level is calculated based on the difference between a determined interference noise temperature and an imposed interference noise temperature. a plurality of UWB wireless devices (31a' - 31n') communicating over a plurality of UWB frequency bins extending over a UWB frequency range; wherein at least one of said UWB wireless devices (31a' - 31n') is adapted for determining an existing interference level comprising an existing interference noise temperature level associated with at least one of the UWB frequency bins, and at least one of said UWB wireless devices (31a' - 31n') is adapted for setting a desired transmission level of said one of the UWB wireless devices (31a' - 31n') for use with the at least one UWB frequency bin based upon the existing interference level, wherein said transmission level for use with at least one UWB frequency bin is set to a maximum level which allows keeping the predicted overall interference level of the at least one UWB frequency bin below an imposed interference ceiling, and wherein the maximum level is calculated based on the difference between a determined interference noise temperature and an imposed interference noise temperature.
A gamma-prime nickel-base superalloy consisting of, by weight: 17.1 to 20.9% cobalt, 11.5 to 14.3% chromium, 4.4 to 5.6% tantalum, 2.1 to 3.7% aluminum, 1.7 to 5.0% titanium, 1.0 to 5.0% tungsten, 1.3 to 4.9% molybdenum; 0.9 to 2.5% niobium, up to 0.6% hafnium, 0.02 to 0.10% carbon, 0.01 to 0.05% boron, 0.02 to 0.08% zirconium, the balance nickel and impurities, wherein the titanium:aluminum weight ratio is 0.54 to 1.83. 17.1 to 20.9% cobalt, 11.5 to 14.3% chromium, 4.4 to 5.6% tantalum, 2.1 to 3.7% aluminum, 1.7 to 5.0% titanium, 1.0 to 5.0% tungsten, 1.3 to 4.9% molybdenum; 0.9 to 2.5% niobium, up to 0.6% hafnium, 0.02 to 0.10% carbon, 0.01 to 0.05% boron, 0.02 to 0.08% zirconium, the balance nickel and impurities, wherein the titanium:aluminum weight ratio is 0.54 to 1.83.
Resistor assembly comprising a resistor chip and a clamping element to clamp the resistor chip to a cooling element, wherein the clamping element has a clamping arm to apply a pressure to the resistor chip, wherein between the clamping arm and the resistor chip a pressure distribution plate is arranged such that the pressure applied by the clamping arm is distributed over the entire area of the resistor chip, characterized in that the lower side of the clamping arm connected to the pressure distribution plate comprises an alignment feature, and the upper surface of the pressure distribution plate comprises a corresponding alignment feature engaging the alignment feature of the clamping arm, and is configured to align the position of the clamping arm and the pressure distribution plate. a resistor chip and a clamping element to clamp the resistor chip to a cooling element, wherein the clamping element has a clamping arm to apply a pressure to the resistor chip, wherein between the clamping arm and the resistor chip a pressure distribution plate is arranged such that the pressure applied by the clamping arm is distributed over the entire area of the resistor chip, characterized in that the lower side of the clamping arm connected to the pressure distribution plate comprises an alignment feature, and the upper surface of the pressure distribution plate comprises a corresponding alignment feature engaging the alignment feature of the clamping arm, and is configured to align the position of the clamping arm and the pressure distribution plate.
A water-dissolvable compressed oral nicotine lozenge comprising a first module and a second module, the first and the second modules being fused by compression, the first and second modules being formed by a plurality of compressed particles, the first module being a lozenge module comprising at least one sugar alcohol in an amount of at least 50% by weight of the first module, and the second module being a fast disintegrating tablet -module comprising at least one sugar alcohol in an amount of at least 50% by weight of the second module and nicotine, wherein the second module comprises disintegrant, wherein the second module comprises nicotine in an amount of less than 5% by weight of the second module, wherein the disintegrant comprises super disintegrant, wherein the super disintegrants includes crosslinked polymers, and wherein the amount of super disintegrant is between 2 and 13 % by weight of the second module. the first and the second modules being fused by compression, the first and second modules being formed by a plurality of compressed particles, the first module being a lozenge module comprising at least one sugar alcohol in an amount of at least 50% by weight of the first module, and the second module being a fast disintegrating tablet -module comprising at least one sugar alcohol in an amount of at least 50% by weight of the second module and nicotine, wherein the second module comprises disintegrant, wherein the second module comprises nicotine in an amount of less than 5% by weight of the second module, wherein the disintegrant comprises super disintegrant, wherein the super disintegrants includes crosslinked polymers, and wherein the amount of super disintegrant is between 2 and 13 % by weight of the second module.
Rotary joint having a stationary and a rotating part, at least one of the parts comprising a rotary joint body of a plastic material, having at least one slip ring track (131, 132), the rotary joint body holding a capacitive data link, the capacitive data link having a data transmission line for contactless transmission of data, and the rotary joint body holding a rotating transformer magnetic core for contactless transmission of electrical power, said rotating transformer magnetic core having at least one winding (121, 122), characterized by the said at least one part having a shield provided for shielding electrical and/or magnetic fields generated by the rotating transformer, to reduce interference with the capacitive data link and the said at least one part having at least one slip ring track (131, 132) used for grounding by being connected to the shield.
Working machine (1; 200) comprising a communication adapter attachment device (8; 208), wherein the communication adapter attachment device (8; 208) includes an adapter housing portion (10; 210) provided inside the working machine (1; 200), and having an opening on an outer surface of the working machine (1; 200), wherein the adapter housing portion (10; 210) is configured to accommodate a communication adapter that is detachable through the opening, the communication adapter including an adapter-side interface (66a, 66b, 77a, 77b, 79, 80) and configured to wirelessly communicate data with an external device, the adapter-side interface (66a, 66b, 77a, 77b, 79, 80) configured to enable an output of information to outside of the communication adapter and/or an input operation to the communication adapter, wherein the communication adapter attachment device (8; 208) further includes a cap configured to close the opening, and a cap-side interface (31a, 31b, 37a, 37b) provided in the cap, and wherein the cap-side interface (31a, 31b, 37a, 37b) includes a window (31b, 37b) configured to enable viewing of the adapter-side interface (66a, 66b, 77a, 77b, 79, 80) and/or includes a cap-side operating portion (31a, 37a) configured to enable an input operation to the adapter-side interface (66a, 66b, 77a, 77b, 79, 80) from outside of the working machine (1; 200), in a state in which the communication adapter is accommodated in the adapter housing portion (10; 210) and the opening is closed with the cap.
Squirrel-cage rotor of an asynchronous machine, in particular a die-cast rotor - with grooves running in a laminated core, the laminated core being positioned rotatably fixed on a shaft, it being possible for the shaft to rotate about an axle, - with a squirrel-cage winding which has rotor rods in the grooves and cage rings respectively electrically connecting the rotor rods on the end faces of the laminated core, - with a pair of retaining elements positioned on the shaft, a retaining element being disposed at each end face of the laminated core, each retaining element extending in a radial direction in the manner of a disk or spoke and in the axial direction having a wall and/or axially extending fingers, which in the axial direction radially externally overlaps not only the cage ring but also a definable axial section of the rotor rods entering the cage ring, without increasing the external diameter of the laminated core or squirrel-cage rotor, the retaining element extending radially outside the cage ring in an axial direction into free-turned or free-milled sections at the start and at the end of the laminated core, and the axial section being approximately one third of the depth of a groove. - with grooves running in a laminated core, the laminated core being positioned rotatably fixed on a shaft, it being possible for the shaft to rotate about an axle, - with a squirrel-cage winding which has rotor rods in the grooves and cage rings respectively electrically connecting the rotor rods on the end faces of the laminated core, - with a pair of retaining elements positioned on the shaft, a retaining element being disposed at each end face of the laminated core, each retaining element extending in a radial direction in the manner of a disk or spoke and in the axial direction having a wall and/or axially extending fingers, which in the axial direction radially externally overlaps not only the cage ring but also a definable axial section of the rotor rods entering the cage ring, without increasing the external diameter of the laminated core or squirrel-cage rotor, the retaining element extending radially outside the cage ring in an axial direction into free-turned or free-milled sections at the start and at the end of the laminated core, and the axial section being approximately one third of the depth of a groove.
A wheel for a rail vehicle, having a wheel tire with a ridge formed on the inner circumference of the wheel tire and extending circumferentially in the direction of the rotation axis (X-X) of the wheel, a wheel body with a ring flange formed on the outer circumference and on an axial side face of the wheel body and running radially outward, and a clamp ring attached to the wheel body in a friction-locking and/or positively locking manner via a fastening means, on a side face opposite the ring flange, with damping means being arranged between the clamp ring and the circumferential ridge of the wheel tire and between the circumferential ridge of the wheel tire and the ring flange of the wheel body, characterized in that each of the damping means is configured as at least two separate circular ring segments extending in the circumferential direction of the wheel, each segment extending over a circular segment of the wheel having a central angle of at least 30° to a maximum of 180°, wherein on the contact surfaces, that bear against the circumferential ridge of the wheel tire and against the clamp ring or the ring flange of the wheel body, the circular ring segments have, at least on one side, at least two centering cams extending in the axial direction and spaced apart in the circumferential direction, which mesh in a positively locking manner into corresponding recesses on the circumferential ridge of the wheel tire and on the ring flange of the wheel body or on the clamp ring, wherein the circular ring segments have a core made of an elastomer material, wherein the core of the circular ring segments is enclosed by metal sheet segments, at least on its contact surfaces.