mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communications, comprising: performing, by a device, a discrete Fourier transform, DFT, on a data stream to generate a first signal in the frequency domain; processing, by the device, the first signal in the frequency domain to generate a second signal in the frequency domain, wherein processing the first signal comprises performing a modular permutation on the first signal in accordance with a modular permutation index, the modular permutation index being an integer, and the greatest common divisor of the modular permutation index and a number of DFT points used in the DFT equal to one, wherein the modular permutation is a modular arithmetic operation that rearranges an order of elements in a sequence of the first signal; processing, by the device, the second signal to generate an orthogonal frequency division multiplexing, OFDM, symbol, wherein the modular permutation index is determined so that the OFDM symbol satisfies a peak to average power ratio, PAPR, criteria; and transmitting, by the device, the OFDM symbol. performing, by a device, a discrete Fourier transform, DFT, on a data stream to generate a first signal in the frequency domain; processing, by the device, the first signal in the frequency domain to generate a second signal in the frequency domain, wherein processing the first signal comprises performing a modular permutation on the first signal in accordance with a modular permutation index, the modular permutation index being an integer, and the greatest common divisor of the modular permutation index and a number of DFT points used in the DFT equal to one, wherein the modular permutation is a modular arithmetic operation that rearranges an order of elements in a sequence of the first signal; processing, by the device, the second signal to generate an orthogonal frequency division multiplexing, OFDM, symbol, wherein the modular permutation index is determined so that the OFDM symbol satisfies a peak to average power ratio, PAPR, criteria; and transmitting, by the device, the OFDM symbol.
A method for reporting signal quality, comprising: measuring (S102) signal quality of a measurement signal within a radio link monitoring, RLM, assessment period and before a moment when the measurement signal changes and/or measuring signal quality of a changed measurement signal within the RLM assessment period; comparing (S104) the measured signal quality with a preset threshold value; and generating (S106) an in-sync, IS, indication or an out-of-sync, OSS, indication according to the comparison result and reporting the IS indication or the OOS indication. measuring (S102) signal quality of a measurement signal within a radio link monitoring, RLM, assessment period and before a moment when the measurement signal changes and/or measuring signal quality of a changed measurement signal within the RLM assessment period; comparing (S104) the measured signal quality with a preset threshold value; and generating (S106) an in-sync, IS, indication or an out-of-sync, OSS, indication according to the comparison result and reporting the IS indication or the OOS indication.
Laminated glazing comprising a first glass sheet and a second glass sheet laminated by means of at least one thermoplastic interlayer , characterized in that the at least one thermoplastic interlayer comprises a zone that is opaque to visible wavelength radiation , having a light transmission of less than 5% of the incident light, in that the laminated glazing comprises, on face 4, an enamel strip comprising dots and in that the at least one first interlayer is formed from an opaque frame positioned around a nonopaque zone .
A composition comprising a first compound; wherein the first compound is capable of functioning as a phosphorescent emitter in an organic light emitting device at room temperature; wherein the first compound has the formula of Ir(L 1 ) 2 (L 2 ), wherein L 1 has a structure of Formula I, in which R 3 , R 4 , X and G are defined as: wherein R C2 has the following structure: and wherein R D6 has the following structure: and L 2 is selected from the group consisting of L C1 through L C1260 , where L C1 through L C1260 are based on a structure of Formula X, in which R 1 , R 2 , and R 3 are defined as: wherein R D1 to R D81 has the following structures: wherein the first compound is capable of functioning as a phosphorescent emitter in an organic light emitting device at room temperature; wherein the first compound has the formula of Ir(L 1 ) 2 (L 2 ), wherein L 1 has a structure of Formula I, in which R 3 , R 4 , X and G are defined as: wherein R C2 has the following structure: and wherein R D6 has the following structure: and L 2 is selected from the group consisting of L C1 through L C1260 , where L C1 through L C1260 are based on a structure of Formula X, in which R 1 , R 2 , and R 3 are defined as: wherein R D1 to R D81 has the following structures:
A line driver device (LTV) for efficient, error-tolerant dataflow control, comprising: - a first interface unit (A), set up for communication with a command unit or a first further line driver device (LTV); - a second interface unit (B), set up for communication with a second further line driver device (LTV); - a third interface unit (C), set up for communication with a plurality of execution units (AE), wherein a first communication path is arranged between the first interface unit (A) and the second interface unit (B), and a second communication path is arranged between the first interface unit (A), the second interface unit (B) and the third interface unit (C), characterized in that at least two resistors (W1, W2) and a switch (S) in between being arranged on the first communication path, and the dataflow being divertable via the first communication path or the second communication path by means of a switch position, and the resistors (W1, W2) being settable as pass-through resistors through the first communication path in case the switch (S) is open or termination resistors in case the switch (S) is closed such that the data flow is performed through the second communication path as a function of the switch position, and a termination voltage being applied to the switch (S) by means of a voltage source (VCC), wherein the switch (S) is closed merely when the termination voltage is applied to the switch (S) and the switch (S) is open in case no termination voltage is applied. - a first interface unit (A), set up for communication with a command unit or a first further line driver device (LTV); - a second interface unit (B), set up for communication with a second further line driver device (LTV); - a third interface unit (C), set up for communication with a plurality of execution units (AE), wherein a first communication path is arranged between the first interface unit (A) and the second interface unit (B), and a second communication path is arranged between the first interface unit (A), the second interface unit (B) and the third interface unit (C), characterized in that at least two resistors (W1, W2) and a switch (S) in between being arranged on the first communication path, and the dataflow being divertable via the first communication path or the second communication path by means of a switch position, and the resistors (W1, W2) being settable as pass-through resistors through the first communication path in case the switch (S) is open or termination resistors in case the switch (S) is closed such that the data flow is performed through the second communication path as a function of the switch position, and a termination voltage being applied to the switch (S) by means of a voltage source (VCC), wherein the switch (S) is closed merely when the termination voltage is applied to the switch (S) and the switch (S) is open in case no termination voltage is applied.
A method performed by a core network device , the method comprising: receiving , via a network interface , a first request from a consumer network function, NF ; forwarding the first request via the network interface to a first provider NF ; detecting , at a time after forwarding the first request, a violation by the first provider NF of a predetermined response criterion with respect to the first request; receiving , via the network interface, a second request ; and locating a service identifier in the second request ; and forwarding the second request to a selected second provider NF different from the first provider NF at least partly in response to the violation, wherein the selection of the second provider NF is at least in part based on the service identifier . receiving , via a network interface , a first request from a consumer network function, NF ; forwarding the first request via the network interface to a first provider NF ; detecting , at a time after forwarding the first request, a violation by the first provider NF of a predetermined response criterion with respect to the first request; receiving , via the network interface, a second request ; and locating a service identifier in the second request ; and forwarding the second request to a selected second provider NF different from the first provider NF at least partly in response to the violation, wherein the selection of the second provider NF is at least in part based on the service identifier .
An optical sensor for detecting objects in a monitoring area, having at least one transmitter emitting light beams , having at least one receiver receiving light beams , and having an evaluation unit in which an object detection signal is generated as a function of received signals from the receiver , whereby an amplitude modulation is imparted to the light beams , wherein the evaluation unit has an analogue-digital converter , in which the received signals are digitised in a clock of the analogue-digital converter , and a digital filter , by means of which the digitised received signal is transformed into a complex-value signal, characterised in that the evaluation unit has a multiplier , in which the complex-value signal is multiplied by a complex-value auxiliary signal, a complex-value output signal being obtained at the output of the multiplier in a baseband whose frequencies are lower than the frequencies of the amplitude modulation, and the object detection signal being generated from the complex-value output signal. whereby an amplitude modulation is imparted to the light beams , wherein the evaluation unit has an analogue-digital converter , in which the received signals are digitised in a clock of the analogue-digital converter , and a digital filter , by means of which the digitised received signal is transformed into a complex-value signal, characterised in that the evaluation unit has a multiplier , in which the complex-value signal is multiplied by a complex-value auxiliary signal, a complex-value output signal being obtained at the output of the multiplier in a baseband whose frequencies are lower than the frequencies of the amplitude modulation, and the object detection signal being generated from the complex-value output signal.
An apparatus for separation of at least two synthetic materials in particulate form having different characteristics, comprising - a rotating drum having a cylindrical shape with a truncoconical tapered end and an opposite flat bottom wall ; - means for setting the drum in rotation; - means for introducing into the drum a mixture composed of at least two synthetic materials in particle form, having different specific weight, and of a liquid, having an intermediate specific weight to the specific weights of the two products; - a radial discharge hole located in the lateral wall of the tapered end of the drum; - an axial slithering discharge opening located in the flat bottom wall of the drum, at a distance d from the axis of the drum ; - a rotor located inside the drum provided with a first external helical blade having the same external shape as the drum shape and having respective cylindrical and tapered conical portions; - means for setting the rotor in rotation relatively to the drum , in such a way that the rotor pushes the material towards the tapered ends of the drum; wherein the first external helical blade extends along the entire length of the drum and is located at a distance from the axis of the rotor and of the drum greater than the distance between the drum axis and the axial discharge opening provided in the larger-section drum bottom, characterised in that the rotor comprises a second helical blade , inside the first helical blade and wrapped at a distance from the drum axis in opposite direction than the first helical blade , the second helical blade extending for the entire length of the cylindrical tract of the drum , and being supported to the first helical blade in the cross points with the first helical blade to leave free the axial portion of the drum. - a rotating drum having a cylindrical shape with a truncoconical tapered end and an opposite flat bottom wall ; - means for setting the drum in rotation; - means for introducing into the drum a mixture composed of at least two synthetic materials in particle form, having different specific weight, and of a liquid, having an intermediate specific weight to the specific weights of the two products; - a radial discharge hole located in the lateral wall of the tapered end of the drum; - an axial slithering discharge opening located in the flat bottom wall of the drum, at a distance d from the axis of the drum ; - a rotor located inside the drum provided with a first external helical blade having the same external shape as the drum shape and having respective cylindrical and tapered conical portions; - means for setting the rotor in rotation relatively to the drum , in such a way that the rotor pushes the material towards the tapered ends of the drum;
A charging station , comprising a marking component , wherein the marking component includes a first marking component and a second marking component , the first marking component and the second marking component have different distribution surfaces on the charging station , and the marking component is used for indicating a position of the charging station so that a lawnmowing robot is capable of docking with the charging station for charging, wherein the charging station comprises a charging station body and a charging structure , both the first marking component and the charging structure are arranged on a first side surface of the charging station body with the charging structure protruding from the first side surface of the charging station body and the second marking component is arranged on the charging structure , the first marking component is a plurality in number, and the plurality of first marking components are distributed around the charging structure .
A patient support system comprising a bed having first and second longitudinally spaced ends , first and second laterally spaced sides and at least one computer-controllable function, a controller operably coupled to the bed to control at least one bed function, and a plurality of user modules operably coupled to the controller , characterized in that each user module is configured to display output relating to a bed function and receive input from a user relating to a bed function, and in that the system includes a memory including instructions executable to process first input received by a first user module and second input received by a second user module and automatically update the displays of the user modules , wherein each user module includes a user interface, and wherein each of the user interfaces are synchronized to provide the same display and data at the same time. a bed having first and second longitudinally spaced ends , first and second laterally spaced sides and at least one computer-controllable function, a controller operably coupled to the bed to control at least one bed function, and a plurality of user modules operably coupled to the controller , characterized in that each user module is configured to display output relating to a bed function and receive input from a user relating to a bed function, and in that the system includes a memory including instructions executable to process first input received by a first user module and second input received by a second user module and automatically update the displays of the user modules , wherein each user module includes a user interface, and wherein each of the user interfaces are synchronized to provide the same display and data at the same time.
A heating chamber for an aerosol generation device , the heating chamber comprising: a chamber side wall ; a chamber base , wherein the chamber side wall , and chamber base together define an interior volume of the heating chamber ; a heater in thermal contact with the chamber side wall ; and an insulating member comprising an insulating side wall and an insulating base , the insulating member being arranged so that a part of the heating chamber including the chamber base is nested inside the insulating member ; wherein the heater extends around the chamber side wall but does not extend around the chamber base , and the chamber base is spaced from the insulating base . a chamber side wall ; a chamber base , wherein the chamber side wall , and chamber base together define an interior volume of the heating chamber ; a heater in thermal contact with the chamber side wall ; and an insulating member comprising an insulating side wall and an insulating base , the insulating member being arranged so that a part of the heating chamber including the chamber base is nested inside the insulating member ; wherein the heater extends around the chamber side wall but does not extend around the chamber base , and the chamber base is spaced from the insulating base .
A steel sheet having a chemical composition comprising, by mass%, C: 0.050 to 0.300%, Si: 0.01 to 2.00%, Mn: 0.10 to 4.00%, P: 0.0001 to 0.0200%, S: 0.0001 to 0.0200%, N: 0.0001 to 0.0200%, Al: 0.001 to 1.000%, Ti: 0.001 to 0.500%, B: 0.0007 to 0.0100%, Co: 0 to 0.50%, Ni: 0 to 1.00%, Mo: 0 to 1.00%, Cr: 0 to 2.000%, Nb: 0 to 0.500%, V: 0 to 0.500%, Cu: 0 to 0.500%, W: 0 to 0.100%, Ta: 0 to 0.100%, Sn: 0 to 0.050%, Sb: 0 to 0.050%, As: 0 to 0.050%, Mg: 0 to 0.0500%, Ca: 0 to 0.050%, Y: 0 to 0.050%, Zr: 0 to 0.050%, La: 0 to 0.050%, Ce: 0 to 0.050%, and a balance of Fe and impurities, wherein the steel sheet comprises, by area ratio, ferrite: 5.0 to 40.0%, total of martensite and tempered martensite: 10.0 to 60.0%, bainite: 5.0 to 40.0%, and retained austenite: 5.0 to 25.0%, when there are remaining structures, the remaining structures consist of 10.0% or less of pearlite, in a surface layer region down to a depth of 100 μm from the surface in the sheet thickness direction, (Fe, Mn) 2 B precipitates having a circle equivalent diameter of 50 to 300 nm are present in a number density of 1/500 μm 2 or more, wherein the microstructure and (Fe, Mn) 2 B precipitates are measured as defined in the description. C: 0.050 to 0.300%, Si: 0.01 to 2.00%, Mn: 0.10 to 4.00%, P: 0.0001 to 0.0200%, S: 0.0001 to 0.0200%, N: 0.0001 to 0.0200%, Al: 0.001 to 1.000%, Ti: 0.001 to 0.500%, B: 0.0007 to 0.0100%, Co: 0 to 0.50%, Ni: 0 to 1.00%, Mo: 0 to 1.00%, Cr: 0 to 2.000%, Nb: 0 to 0.500%, V: 0 to 0.500%, Cu: 0 to 0.500%, W: 0 to 0.100%, Ta: 0 to 0.100%, Sn: 0 to 0.050%, Sb: 0 to 0.050%, As: 0 to 0.050%, Mg: 0 to 0.0500%, Ca: 0 to 0.050%, Y: 0 to 0.050%, Zr: 0 to 0.050%, La: 0 to 0.050%, Ce: 0 to 0.050%, and a balance of Fe and impurities, wherein the steel sheet comprises, by area ratio, ferrite: 5.0 to 40.0%, total of martensite and tempered martensite: 10.0 to 60.0%, bainite: 5.0 to 40.0%, and retained austenite: 5.0 to 25.0%, when there are remaining structures, the remaining structures consist of 10.0% or less of pearlite, ferrite: 5.0 to 40.0%, total of martensite and tempered martensite: 10.0 to 60.0%, bainite: 5.0 to 40.0%, and retained austenite: 5.0 to 25.0%, when there are remaining structures, the remaining structures consist of 10.0% or less of pearlite, in a surface layer region down to a depth of 100 μm from the surface in the sheet thickness direction, (Fe, Mn) 2 B precipitates having a circle equivalent diameter of 50 to 300 nm are present in a number density of 1/500 μm 2 or more, wherein the microstructure and (Fe, Mn) 2 B precipitates are measured as defined in the description.
A method for analyzing one or more analytes in a source sample, comprising the steps of: (a) extracting the one or more analytes from the source sample with an extraction solvent to obtain an extraction sample; (b) applying the extraction sample and a solvent system to a first liquid chromatography (LC) column with an LC pump system, wherein the first LC column is directly connected to a second LC column through a tube with a diverting valve; (c) setting the diverting valve to a first position at a first predetermined time such that the solvent effluent from the first LC column is directed to waste; (d) setting the diverting valve to a second position at a second predetermined time such that the solvent effluent from the first LC column enters the second LC column for further separation; (e) repeating steps (c) and (d) as needed; and (f) analyzing the chromatographically separated sample obtained from the second LC column, wherein the method utilizes only one LC pump system for both LC columns. (a) extracting the one or more analytes from the source sample with an extraction solvent to obtain an extraction sample; (b) applying the extraction sample and a solvent system to a first liquid chromatography (LC) column with an LC pump system, wherein the first LC column is directly connected to a second LC column through a tube with a diverting valve; (c) setting the diverting valve to a first position at a first predetermined time such that the solvent effluent from the first LC column is directed to waste; (d) setting the diverting valve to a second position at a second predetermined time such that the solvent effluent from the first LC column enters the second LC column for further separation; (e) repeating steps (c) and (d) as needed; and (f) analyzing the chromatographically separated sample obtained from the second LC column,
A glass panel unit comprising: a first glass panel; a second glass panel placed opposite the first glass panel; a seal with a rectangular frame shape hermetically bonding the first glass panel and the second glass panel to each other; an evacuated space enclosed by the first glass panel, the second glass panel, and the seal; and at least one spacer placed between the first glass panel and the second glass panel, the seal enclosing the evacuated space completely, the at least one spacer containing polyimide represented by following chemical formula : wherein in the chemical formula R1 represents an organic group containing at least one aromatic ring, R2 represents an organic group, and n represents an integer equal to or larger than one, wherein the organic group represented by R2 in the chemical formula includes a diphenylether structure. a first glass panel; a second glass panel placed opposite the first glass panel; a seal with a rectangular frame shape hermetically bonding the first glass panel and the second glass panel to each other; an evacuated space enclosed by the first glass panel, the second glass panel, and the seal; and at least one spacer placed between the first glass panel and the second glass panel, the seal enclosing the evacuated space completely, the at least one spacer containing polyimide represented by following chemical formula : wherein in the chemical formula R1 represents an organic group containing at least one aromatic ring, R2 represents an organic group, and n represents an integer equal to or larger than one, wherein the organic group represented by R2 in the chemical formula includes a diphenylether structure.