mhurhangee/ep-ind-claims huggingface dataset:
An assembly for a turbine engine, comprising: a swirler configured with an outer wall, an inner wall, an outer passage and an inner passage, the outer wall circumscribing the inner wall and extending axially along an axis to a distal outer wall end, the inner wall extending axially along the axis to a distal inner wall end that is axially recessed within the swirler from the distal outer wall end, the outer passage formed by and radially between the inner wall and the outer wall, the inner passage formed by and radially within the inner wall; and a fuel nozzle projecting into the inner passage, the fuel nozzle configured with a plurality of orifices axially aligned with the inner wall and arranged circumferentially about the axis, wherein: the distal outer wall end is disposed a distance along the axis from a tip of the fuel nozzle; and the outer passage has a diameter (D sw-ex) at the distal outer wall end, characterised in that the fuel nozzle is further configured with a second orifice that is coaxial with the axis and thereby centrally located between the orifices; and a quotient of the distance divided by the diameter (D sw-ex) is between 0.5 and 0.75. a swirler configured with an outer wall, an inner wall, an outer passage and an inner passage, the outer wall circumscribing the inner wall and extending axially along an axis to a distal outer wall end, the inner wall extending axially along the axis to a distal inner wall end that is axially recessed within the swirler from the distal outer wall end, the outer passage formed by and radially between the inner wall and the outer wall, the inner passage formed by and radially within the inner wall; and a fuel nozzle projecting into the inner passage, the fuel nozzle configured with a plurality of orifices axially aligned with the inner wall and arranged circumferentially about the axis, wherein: the distal outer wall end is disposed a distance along the axis from a tip of the fuel nozzle; and the outer passage has a diameter (D sw-ex) at the distal outer wall end, characterised in that the fuel nozzle is further configured with a second orifice that is coaxial with the axis and thereby centrally located between the orifices; and a quotient of the distance divided by the diameter (D sw-ex) is between 0.5 and 0.75. the distal outer wall end is disposed a distance along the axis from a tip of the fuel nozzle; and the outer passage has a diameter (D sw-ex) at the distal outer wall end, characterised in that the fuel nozzle is further configured with a second orifice that is coaxial with the axis and thereby centrally located between the orifices; and a quotient of the distance divided by the diameter (D sw-ex) is between 0.5 and 0.75.
A suspension arrangement for suspending an object to a frame and for protection against excessive excitation forces (F e) transmitted between the frame and the object, the arrangement comprising: - a first suspension element, which is configured to directly suspend the object to the frame, - a second suspension element, which is configured to suspend the object to the frame, characterized in that - the second suspension element is configured to suspend the object to the frame through a magnetic coupling between the object and the second suspension element, and in that - the magnetic coupling is configured to provide a magnetic coupling force (F h) to act as a threshold, wherein the suspension arrangement is configured to magnetically decouple the second suspension element from the object when the excitation force (F e) transmitted between the frame and the object exceeds the magnetic coupling force (F h). - a first suspension element, which is configured to directly suspend the object to the frame, - a second suspension element, which is configured to suspend the object to the frame, - the second suspension element is configured to suspend the object to the frame through a magnetic coupling between the object and the second suspension element, and in that - the magnetic coupling is configured to provide a magnetic coupling force (F h) to act as a threshold, wherein the suspension arrangement is configured to magnetically decouple the second suspension element from the object when the excitation force (F e) transmitted between the frame and the object exceeds the magnetic coupling force (F h).
A wireless communications base station having a receiver configured for detecting wireless transmissions transmitted by other wireless base stations, a data store configured for storing reference values for properties of the wireless transmissions, a sensor configured for searching for transmissions received by the receiver from the other wireless base stations and having the reference values, wherein the base station is further configured for identifying if a transmission having the reference values ceases to be detected by the sensor, and a reporting system configured for reporting a base station outage, characterised in that the reporting system being configured to generate a base station outage report if transmissions having the reference values are not detected by the sensor on a predetermined number of subsequent searches.
An optical laminate, comprising: an optical functional layer; and a reddening-resistant layer formed on at least one side of the optical functional layer, characterized in that the optical functional layer is a polarizing layer, the reddening-resistant layer comprises a surface having a surface area ratio of 0.02 or more as measured by an atomic force microscope with an x-scan size of 1μm, y-scan size of 1μm, scan rate in the range of 0.7 to 1Hz, and set point in the range of 10 to 15 nm, and an absolute value of a change in an amount of color coordinate a* of CIE L*a*b* according to Equation 1 below is within 2: Δ a * = a * a − a * i wherein Δa* is the change in the amount of the color coordinate a*, a* a is a color coordinate a* after maintaining the optical laminate at 105°C for 250 hours in a state where top and bottom surfaces of the optical laminate come in contact with glass substrates, and a* i is a color coordinate a* before maintaining the optical laminate at 105°C for 250 hours, wherein the color coordinates are measured using a spectrophotometer by rotating an absorption axis of the optical laminate with respect to an absorption axis of a polarizer built into the spectrophotometer and determining the color coordinates at a point where a transmittance of the optical laminate is minimum. an optical functional layer; and a reddening-resistant layer formed on at least one side of the optical functional layer, characterized in that the optical functional layer is a polarizing layer, the reddening-resistant layer comprises a surface having a surface area ratio of 0.02 or more as measured by an atomic force microscope with an x-scan size of 1μm, y-scan size of 1μm, scan rate in the range of 0.7 to 1Hz, and set point in the range of 10 to 15 nm, and an absolute value of a change in an amount of color coordinate a* of CIE L*a*b* according to Equation 1 below is within 2: Δ a * = a * a − a * i wherein Δa* is the change in the amount of the color coordinate a*, a* a is a color coordinate a* after maintaining the optical laminate at 105°C for 250 hours in a state where top and bottom surfaces of the optical laminate come in contact with glass substrates, and a* i is a color coordinate a* before maintaining the optical laminate at 105°C for 250 hours, wherein the color coordinates are measured using a spectrophotometer by rotating an absorption axis of the optical laminate with respect to an absorption axis of a polarizer built into the spectrophotometer and determining the color coordinates at a point where a transmittance of the optical laminate is minimum.
A transport container comprising a transportation space, delimited by side walls of the transport container, for receiving bulk-material-type goods to be transported, which transportation space includes, on its upper side, at least one opening provided for loading with the goods to be transported, wherein the transport container on its upper side includes a grate that at least in part bridges the opening, which grate is arranged between the side walls of the transport container, characterized in that the grate that at least in part bridges the opening is connected in a mechanically fixed manner to at least one side wall, which grate, without having to be removed, permits loading and/or unloading of the transport container with the bulk material through grate openings of the grate, the grate having sufficient strength even when the grate is loaded by pouring the goods to be transported.
An apparatus comprising: a plurality of threshold registers (328, 330, 332); to store respective voltage droop thresholds; an interface to receive a license grant message (124; 326) indicating a license mode for a processor core or domain, the license mode corresponding to a selected set of execution units (116, 118, 129) in the processor core or domain, wherein an amount of voltage droop that can occur in the processor core or domain is different in different license modes; a voltage droop correction module to: based on the license mode indicated in the license grant message (124; 326), select one of the voltage droop thresholds from the plurality of threshold registers (328, 330, 332) such that in a lower licence mode having a relatively low potential current change rate a voltage droop threshold selected by the voltage droop correction module from the plurality of threshold registers is lower than a voltage droop threshold selected in a higher licence mode having a relatively high potential current change rate; compare a voltage droop in the processor core or domain with the selected voltage droop threshold; and based on the comparison, trigger a voltage droop correction process. a plurality of threshold registers (328, 330, 332); to store respective voltage droop thresholds; an interface to receive a license grant message (124; 326) indicating a license mode for a processor core or domain, the license mode corresponding to a selected set of execution units (116, 118, 129) in the processor core or domain, wherein an amount of voltage droop that can occur in the processor core or domain is different in different license modes; a voltage droop correction module to: based on the license mode indicated in the license grant message (124; 326), select one of the voltage droop thresholds from the plurality of threshold registers (328, 330, 332) such that in a lower licence mode having a relatively low potential current change rate a voltage droop threshold selected by the voltage droop correction module from the plurality of threshold registers is lower than a voltage droop threshold selected in a higher licence mode having a relatively high potential current change rate; compare a voltage droop in the processor core or domain with the selected voltage droop threshold; and based on the comparison, trigger a voltage droop correction process. based on the license mode indicated in the license grant message (124; 326), select one of the voltage droop thresholds from the plurality of threshold registers (328, 330, 332) such that in a lower licence mode having a relatively low potential current change rate a voltage droop threshold selected by the voltage droop correction module from the plurality of threshold registers is lower than a voltage droop threshold selected in a higher licence mode having a relatively high potential current change rate; compare a voltage droop in the processor core or domain with the selected voltage droop threshold; and based on the comparison, trigger a voltage droop correction process.
A vehicle travel control apparatus, comprising: a sensor that obtains preceding vehicle information representing a status of a first preceding vehicle; a communication apparatus that obtains preceding vehicle acceleration/deceleration information, which is generated in a second preceding vehicle, via communication with the second preceding vehicle; and a controller that generates a first target value related to a target acceleration/deceleration value of a host vehicle based on the preceding vehicle information and a second target value related to the target acceleration/deceleration value of the host vehicle based on the preceding vehicle acceleration/deceleration information, and controls acceleration/deceleration of the host vehicle based on the generated first and second target values, characterized in that the controller corrects the preceding vehicle acceleration/deceleration information according to an index value to generate the second target value, the index value representing an identity between the first preceding vehicle related to the preceding vehicle information and the second preceding vehicle related to the preceding vehicle acceleration/deceleration information. a sensor that obtains preceding vehicle information representing a status of a first preceding vehicle; a communication apparatus that obtains preceding vehicle acceleration/deceleration information, which is generated in a second preceding vehicle, via communication with the second preceding vehicle; and a controller that generates a first target value related to a target acceleration/deceleration value of a host vehicle based on the preceding vehicle information and a second target value related to the target acceleration/deceleration value of the host vehicle based on the preceding vehicle acceleration/deceleration information, and controls acceleration/deceleration of the host vehicle based on the generated first and second target values, characterized in that the controller corrects the preceding vehicle acceleration/deceleration information according to an index value to generate the second target value, the index value representing an identity between the first preceding vehicle related to the preceding vehicle information and the second preceding vehicle related to the preceding vehicle acceleration/deceleration information.
A measuring arrangement with a grounding point for determining the insulation resistance R iso of an energized electrical device or an installation having an operating voltage U B with a positive pole and a negative pole, wherein two switches (S 1, S 2) or a corresponding changeover switch are provided that each establish a current path between one of the two poles and the grounding point, in order to determine the overall resulting insulation resistance R iso in the event of one or more insulation faults with arbitrary potential reference occurring, the measuring arrangement being arranged to carry out two successive measurements in order to determine the insulation resistance, the grounding point being connected successively to the positive pole and the negative pole of the operating voltage, wherein a current measuring device is inserted between the terminal of one of the two switches (S 1, S 2) or the corresponding changeover switch not connected to the grounding point and one of the two poles, the terminal of the other switch or the corresponding changeover switch not connected to the grounding point being connected to the other of the two poles via a constant current source, wherein a transistor is arranged in parallel with the two switches or the corresponding changeover switch such that its emitter or source terminal, respectively, is connected to the constant current source while its collector or drain terminal, respectively, is connected to the current measuring device at a connection point in such a way that the current measuring device is connected between the one pole and this connection point, the transistor being driven in such a way that it provides a supply voltage for the constant current source that is negligible in relation to the operating voltage U B, and the currents measured in the two measurements with the current measuring device being used to calculate the insulation resistance R iso.
Hybrid wound dressing (1, 10, 20) for treating wounds of human or animal skin, which comprises at least one carrier material (2, 12, 21) which is at least partially provided with at least one antiseptic agent, characterised in that the antiseptic agent comprises at least a first and a second metal compound, the first metal compound comprising at least one semiconducting compound of at least one transition metal element which has a plurality of oxidation states and allows the oxidation states to be changed via catalytically active centres, and the second metal compound comprises at least one electrically conductive silver semiconductor, wherein the first metal compound forms a first half-element of a galvanic element and the second metal compound forms a second half-element of the galvanic element, and wherein the two metal compounds are in electrically conductive contact with each other at least with their respective surfaces and thereby develop an antiseptic effect, and wherein the transition metal compound of the first half-element comprises ruthenium which is present in one or both of the oxidation states VI and IV.
A silicon secondary battery charged and discharged using silicon ions, the silicon secondary battery comprising: a first silicon multilayer thin film part in which a plurality of silicon positive electrode thin film layers each formed of a first silicon compound, which generates silicon cations when the silicon secondary battery is charged and generates silicon anions when the silicon secondary battery is discharged, are stacked, wherein the first silicon compound comprises silicon carbide; a second silicon multilayer thin film part in which a plurality of silicon negative electrode thin film layers each formed of a second silicon compound, which generates silicon anions when the silicon secondary battery is charged and generates silicon cations when the silicon secondary battery is discharged, are stacked, wherein the second silicon compound comprises silicon nitride; and a collector configured to collect charges, characterized in that the collector is formed in a porous net shape and a surface of the collector is coated with a conductive polymer. a first silicon multilayer thin film part in which a plurality of silicon positive electrode thin film layers each formed of a first silicon compound, which generates silicon cations when the silicon secondary battery is charged and generates silicon anions when the silicon secondary battery is discharged, are stacked, wherein the first silicon compound comprises silicon carbide; a second silicon multilayer thin film part in which a plurality of silicon negative electrode thin film layers each formed of a second silicon compound, which generates silicon anions when the silicon secondary battery is charged and generates silicon cations when the silicon secondary battery is discharged, are stacked, wherein the second silicon compound comprises silicon nitride; and a collector configured to collect charges, characterized in that the collector is formed in a porous net shape and a surface of the collector is coated with a conductive polymer.
A method for use in a wireless transmit/receive unit, WTRU, for transmitting information using a unique word, UW, with discrete Fourier transform spread orthogonal frequency division multiplexing, DFT-s-OFDM, the method comprising: generating, by the WTRU, a plurality of reference sequences; generating, by the WTRU, a demodulation reference signal, DMRS, sequence based on upsampling of the plurality of reference sequences, wherein the DMRS sequence includes a plurality of repeating sequences, wherein each repeating sequence includes a head sequence, one of the plurality of reference sequences and a tail sequence, and wherein a UW sequence within the DMRS sequence includes one of the repeated head sequences and one of the repeated tail sequences; generating, by the WTRU, a DMRS based on a waveform operation on the DMRS sequence; and transmitting, by the WTRU, the DMRS as a reference signal. generating, by the WTRU, a plurality of reference sequences; generating, by the WTRU, a demodulation reference signal, DMRS, sequence based on upsampling of the plurality of reference sequences, wherein the DMRS sequence includes a plurality of repeating sequences, wherein each repeating sequence includes a head sequence, one of the plurality of reference sequences and a tail sequence, and wherein a UW sequence within the DMRS sequence includes one of the repeated head sequences and one of the repeated tail sequences; generating, by the WTRU, a DMRS based on a waveform operation on the DMRS sequence; and transmitting, by the WTRU, the DMRS as a reference signal.
A decoder for sub-block decoding a data signal received through a transmission channel in a communication system, said transmission channel being represented by an upper triangular matrix, said signal carrying transmitted symbols, each symbol carrying a set of information bits, wherein said decoder comprises: - a processing unit configured to determine at least one sub-block decoding parameter given a target quality of service metric; - A sub-block decoding unit configured to divide said data signal into a number of sub-vectors based on said at least one sub-block decoding parameter in accordance with a division of said upper triangular matrix into a number of sub-matrices comprising sub-upper triangular matrices, said sub-block decoding unit being further configured to determine at least one estimate of each sub-vector of transmitted symbols using a sub-upper triangular matrix and by successively cancelling interference from previously estimated sub-vectors, and determine an estimate of the transmitted symbols from said estimates. - a processing unit configured to determine at least one sub-block decoding parameter given a target quality of service metric; - A sub-block decoding unit configured to divide said data signal into a number of sub-vectors based on said at least one sub-block decoding parameter in accordance with a division of said upper triangular matrix into a number of sub-matrices comprising sub-upper triangular matrices, said sub-block decoding unit being further configured to determine at least one estimate of each sub-vector of transmitted symbols using a sub-upper triangular matrix and by successively cancelling interference from previously estimated sub-vectors, and determine an estimate of the transmitted symbols from said estimates.
A compound or a stereoisomer, geometric isomer, tautomer, nitrogen oxide, hydrate, solvate, or pharmaceutically acceptable salt of the compound for use in treating osteoporosis or osteopenia, wherein the compound has one of the following structures:
A wireless communication control method, in which a base station, AP, of an unlicensed band, a base station, BS, of a licensed band, one or more terminal stations, STAs, of the unlicensed band, and one or more terminal stations, UEs, operable in the licensed band and the unlicensed band are provided and a management server manages the licensed band and the unlicensed band, the method includes: temporarily deciding, by the management server, a given UE that uses the licensed band from the one or more terminal stations, UEs,; for the temporarily decided UE, determining that there is no flow that does not satisfy the required quality in the licensed band; and optimizing, by the management server, parameters of the unlicensed band for a group of terminal stations, where the group of terminal stations includes one or more STAs and one or more UEs but excludes the temporarily decided UE. temporarily deciding, by the management server, a given UE that uses the licensed band from the one or more terminal stations, UEs,; for the temporarily decided UE, determining that there is no flow that does not satisfy the required quality in the licensed band; and optimizing, by the management server, parameters of the unlicensed band for a group of terminal stations, where the group of terminal stations includes one or more STAs and one or more UEs but excludes the temporarily decided UE.
Microphone circuit (1, 7) for linearising the proximity effect in a dynamic directional microphone, characterised in that the microphone circuit has at least one inductive impedance element which can be connected in parallel with the microphone capsule.