mhurhangee/ep-ind-claims huggingface dataset:
A method performed by an encoder of a base station system of a wireless communication network, for handling a data stream for transmission over a transmission connection between a remote unit and a base unit of the base station system, the remote unit being arranged to transmit wireless signals to, and receive from, mobile stations, the data stream comprising a plurality of IQ samples comprising a first IQ sample and a second IQ sample, the method comprising: quantizing the plurality of IQ samples by a first quantizer; converting, by an encoder predictor, the quantized plurality of IQ samples to predictions of the plurality of IQ samples, the predictions comprising a prediction of the first IQ sample and a prediction of the second IQ sample; calculating on a per IQ sample level, a difference between the quantized plurality of IQ samples and the predictions of the plurality of IQ samples, so that a difference between the quantized first IQ sample and the prediction of the first IQ sample, as well as a difference between the quantized second IQ sample and the prediction of the second IQ sample are calculated, in order to create a plurality of IQ prediction errors; quantizing the predictions of the plurality of IQ samples before the calculating, or quantizing the plurality of IQ prediction errors after the calculating, by a second quantizer; encoding, after the quantizing (207, 209) by the second quantizer, the plurality of IQ prediction errors with fewer bits than a number of bits of the plurality of IQ prediction errors, and sending the encoded plurality of IQ prediction errors over the transmission connection to a decoder of the base station system. quantizing the plurality of IQ samples by a first quantizer; converting, by an encoder predictor, the quantized plurality of IQ samples to predictions of the plurality of IQ samples, the predictions comprising a prediction of the first IQ sample and a prediction of the second IQ sample; calculating on a per IQ sample level, a difference between the quantized plurality of IQ samples and the predictions of the plurality of IQ samples, so that a difference between the quantized first IQ sample and the prediction of the first IQ sample, as well as a difference between the quantized second IQ sample and the prediction of the second IQ sample are calculated, in order to create a plurality of IQ prediction errors; quantizing the predictions of the plurality of IQ samples before the calculating, or quantizing the plurality of IQ prediction errors after the calculating, by a second quantizer; encoding, after the quantizing (207, 209) by the second quantizer, the plurality of IQ prediction errors with fewer bits than a number of bits of the plurality of IQ prediction errors, and sending the encoded plurality of IQ prediction errors over the transmission connection to a decoder of the base station system.
A filtration cartridge having a fluid inlet and a fluid outlet comprising, a plurality of filtration unit s arranged in a stack, each comprising two membrane support plates, each of the membrane support plates having at least one first filtration membrane bonded to a bottom surface of the membrane support plate and at least one second filtration membrane bonded to a top surface of the membrane support plate, wherein the at least one second filtration membrane is larger than the at least one first filtration membrane, wherein the bottom surface of each membrane support plate has a relatively smaller inner dimension to accommodate the at least one first filtration membrane and the top surface has a relatively larger inner dimension to accommodate the at least one second filtration membrane which is larger than the at least one first filtration membrane with respect to the filter area, wherein the first and second filtration membranes (38,40) are sealed to the entire periphery of the membrane support plate at membrane seal sites (44,46), wherein the two membrane support plates of each filtration unit are bonded to each other at their bottom surfaces at an outer peripheral surface to form seals (64,70) to prevent fluid feed from entering the fluid outlet except by having passed through at least one of the filtration membranes (38,40), and wherein the filtration units in the stack are sealed to each other at their top surfaces; a top end cap (22;65); a bottom end cap (24;67); a vent on one of the end caps (22;65;24;67), wherein the vent extends through the end cap (22;65;24;67) and is arranged to permit the venting of air from the filtration cartridge at start-up and to permit venting of a gas to test for membrane defects when operating the filtration cartridge in tangential flow filtration mode; and fluid flow paths from the fluid inlet, through the filtration membranes (38,40) and through the fluid outlet that prevent fluid feed from the inlet from bypassing the filtration membranes (38,40) and which provide a single permeate pathway including a row of permeate holes for permeate to flow to the fluid outlet.
A compound of formula or one of the pharmaceutically acceptable salts thereof for use for treating or preventing of an anxiety disorder in a patient.
Method for determining the electrical properties of a wind turbine (14, 15), wherein the wind turbine (14, 15) is designed to feed electric current to a connecting grid system by means of a power circuit (23, 24, 25, 29), said method comprising the following steps: a. carrying out a complex-frequency-dependent current measurement in an active state of the wind turbine (14, 15), in which the wind turbine (14, 15) feeds electric current to the connecting grid system by means of the power circuit (23, 24, 25, 29); b. carrying out a complex-frequency-dependent voltage measurement in a passive state of the wind turbine (14, 15), in which the wind turbine (14, 15) does not feed electric current to the connecting grid system by means of the power circuit (23, 24, 25, 29); c. determining a grid system base load value from the complex-frequency-dependent voltage measurement and a complex-frequency-dependent impedance (Z ges) of the power circuit (23, 24, 25, 29) of the wind turbine (14, 15), wherein the grid system base load value corresponds to the harmonic content caused by the connecting grid system; d. determining a current characteristic value of the wind turbine (14, 15) as the difference between the complex-frequency-dependent current measurement and the grid system base load value. a. carrying out a complex-frequency-dependent current measurement in an active state of the wind turbine (14, 15), in which the wind turbine (14, 15) feeds electric current to the connecting grid system by means of the power circuit (23, 24, 25, 29); b. carrying out a complex-frequency-dependent voltage measurement in a passive state of the wind turbine (14, 15), in which the wind turbine (14, 15) does not feed electric current to the connecting grid system by means of the power circuit (23, 24, 25, 29); c. determining a grid system base load value from the complex-frequency-dependent voltage measurement and a complex-frequency-dependent impedance (Z ges) of the power circuit (23, 24, 25, 29) of the wind turbine (14, 15), wherein the grid system base load value corresponds to the harmonic content caused by the connecting grid system; d. determining a current characteristic value of the wind turbine (14, 15) as the difference between the complex-frequency-dependent current measurement and the grid system base load value.
A method of classifying forms comprising the steps of; inputting image data representative of an input form; extracting features from the image data of the input form; approximately matching a set of template forms, corresponding to a plurality of known classifications of forms, to the input form, so that a set of candidate template forms are preselected; comparing the extracted features of the input form with stored features of the preselected set of template forms, by comparing extracted features which comprise attributes of tables contained in the template forms and the input form respectively; selecting one of the preselected set of template forms matching the input form using the results of the comparing step; and outputting an output corresponding to the classification of the selected template form wherein the approximate matching step comprises receiving a selection criteria in the form of a percentage value of an allowed difference between a number of cells in a table of the template form and the number of cells in a table of the input form, and the preselection comprises determining whether or not the input form and a template form have the same number of tables and determining whether or not the number of cells in the largest table of the input form is the same number of cells as the number of cells in the largest table of the template form to within the received percentage value.
Rail vehicle coupling device having a coupler head, having a coupling bar which extends along a longitudinal axis and has a first end region for at least indirectly connecting to a vehicle, and a second end region for at least indirectly connecting to the coupler head so as to couple to a mating coupler head of a second vehicle; having an articulated-joint connection installation for connecting in a force-transmitting manner two components which in a first functional position "coupled" extend in each case along a common longitudinal axis and for pivoting one of the two components relative to the other component about a pivot axis that is disposed so as to be perpendicular to and preferably spaced apart from the longitudinal axis to at least one further second functional position "uncoupled"; wherein the articulated-joint connection installation is disposed between the components coupler head and coupling bar, or coupling bar and an articulation of the coupling bar on the vehicle or coupling bar parts (3, 4), characterized in that the articulated-joint connection installation comprises two coupling elements (6, 7), wherein each of the coupling elements (6, 7) has a connector region having a connection or connector installation (8, 9) for releasably connecting to an end region of one of the components; the two coupling elements (6, 7) are connected to each other by way of at least one articulated connection which defines the pivot axis; and the two coupling elements (6, 7) are assigned at least one releasable installation for connecting in a force-transmitting manner the coupling elements (6, 7), wherein the connector region of an individual coupling element (6, 7) that supports the connector installation (8, 9) for releasably connecting to the end region of one of the components has means for generating at least a form-fit or force-fit or a combination thereof when interacting with connector installations (10, 11) disposed in the end region of the component, and the connector region of an individual coupling element (6, 7) that supports the connector installation (8, 9) for releasably connecting to the end region of one of the components is configured as an integral shell-type sleeve for connecting to a shell-type sleeve collar disposed in the end region of the component, and the installation for releasably connecting the coupling elements (6, 7) to each other in the first functional position "coupled" is configured as a locking installation having a locking element and an actuating installation, assigned to the locking element, for activating the locking element.
A system for securing locally deployed applications operating on an electronic platform by having the locally deployed applications updated remotely through a distribution mechanism by an apparatus server, said system further comprises a service provider making available the source code of said locally deployed application, an apparatus imports said source code to the apparatus server, said apparatus server tamper proofs the source code, packages the tamper proofed code and distributes it using the distribution mechanism, characterized in that the apparatus server is adapted to tamper proof said source code by choosing obfuscation mechanism, removal mechanism, PKI mechanism, compiler mechanism and/or distribution mechanism based on a strategic profile chosen by the service provider.
A method for coupling carboxylic acids and amines comprising combining a carboxylic acid, an amine, a carbodiimide, an activator additive, and a base, wherein the base is in an amount of less than 1 equivalent compared to the acid and carrying out activation and coupling at a temperature greater than 30°C, characterized in that the base is present during the entire activation and coupling process..
An air purifier comprising: - a casing and cylindrical filter, wherein the casing of the air purifier is polygonal such that a space is formed between a corner of the polygonal casing and the cylindrical filter, the air purifier further comprising - a filter cleaner module located in said space for cleaning and sterilizing an air-filter, the filter cleaner module being configured to: - perform mechanical cleaning of the air-filter by making a cleaning member contact the surface of the air-filter for a first period of time, and then - perform sterilization of the air-filter by applying UV light from at least one UV light source located in the filter cleaning module. on the air-filter for a second period of time. - a casing and cylindrical filter, wherein the casing of the air purifier is polygonal such that a space is formed between a corner of the polygonal casing and the cylindrical filter, the air purifier further comprising - a filter cleaner module located in said space for cleaning and sterilizing an air-filter, the filter cleaner module being configured to: - perform mechanical cleaning of the air-filter by making a cleaning member contact the surface of the air-filter for a first period of time, and then - perform sterilization of the air-filter by applying UV light from at least one UV light source located in the filter cleaning module.
Polypropylene composition comprising (a) 60 to 85 parts per weight of a heterophasic propylene copolymer (HECO); (b) 5 to 15 parts per weight of a plastomer; and (c) 10 to 20 parts per weight of an inorganic filler; based on the total parts per weight of compounds (a), (b) and (c); wherein the heterophasic propylene copolymer (HECO) comprises i) 5 to 49 parts per weight of a first heterophasic propylene copolymer (HECO1), and ii) 51 to 95 parts per weight of a second heterophasic propylene copolymer (HECO2), based on the total parts per weight of the heterophasic propylene copolymer (HECO1) and the heterophasic propylene copolymer (HECO2); wherein the heterophasic propylene copolymer (HECO2) and the heterophasic propylene copolymer (HECO1) together fulfil in-equation: MFR HECO 2 / MFR HECO 1 > 1.0 wherein MFR [HECO2] is the melt flow rate MFR 2 (230 °C, 2.16 kg) measured according to ISO 1133 of the heterophasic propylene copolymer (HECO2) MFR [HECO1] is the melt flow rate MFR 2 (230 °C, 2.16 kg) measured according to ISO 1133 of the heterophasic propylene copolymer (HECO1); wherein the polypropylene composition has an amount of xylene cold soluble fraction of at least 22 wt.-%, based on the weight of the polypropylene composition; and wherein the intrinsic viscosity of the xylene soluble fraction of the polypropylene composition is not more than 3.3 dl/g. (a) 60 to 85 parts per weight of a heterophasic propylene copolymer (HECO); (b) 5 to 15 parts per weight of a plastomer; and (c) 10 to 20 parts per weight of an inorganic filler; based on the total parts per weight of compounds (a), (b) and (c); wherein the heterophasic propylene copolymer (HECO) comprises i) 5 to 49 parts per weight of a first heterophasic propylene copolymer (HECO1), and ii) 51 to 95 parts per weight of a second heterophasic propylene copolymer (HECO2), i) 5 to 49 parts per weight of a first heterophasic propylene copolymer (HECO1), and ii) 51 to 95 parts per weight of a second heterophasic propylene copolymer (HECO2), based on the total parts per weight of the heterophasic propylene copolymer (HECO1) and the heterophasic propylene copolymer (HECO2); wherein the heterophasic propylene copolymer (HECO2) and the heterophasic propylene copolymer (HECO1) together fulfil in-equation: MFR HECO 2 / MFR HECO 1 > 1.0 wherein MFR [HECO2] is the melt flow rate MFR 2 (230 °C, 2.16 kg) measured according to ISO 1133 of the heterophasic propylene copolymer (HECO2) MFR [HECO1] is the melt flow rate MFR 2 (230 °C, 2.16 kg) measured according to ISO 1133 of the heterophasic propylene copolymer (HECO1); MFR [HECO2] is the melt flow rate MFR 2 (230 °C, 2.16 kg) measured according to ISO 1133 of the heterophasic propylene copolymer (HECO2) MFR [HECO1] is the melt flow rate MFR 2 (230 °C, 2.16 kg) measured according to ISO 1133 of the heterophasic propylene copolymer (HECO1); wherein the polypropylene composition has an amount of xylene cold soluble fraction of at least 22 wt.-%, based on the weight of the polypropylene composition; and wherein the intrinsic viscosity of the xylene soluble fraction of the polypropylene composition is not more than 3.3 dl/g.
A method for enhancing a captive portal service provided by a control entity to a communication device, comprising the following steps in the control entity: after authentication of a user of the communication device, sending a status page about the captive portal to the communication device for a display of the status page in one tab of the browser, the status page containing a cookie, describing information about a success redirect URL and an initial requested URL, based on the content of which a browser in the communication device sends a request for the success redirect URL and the initial requested URL for a display of the web page corresponding to success redirect URL and the web page corresponding to the initial requested URL each in another tab of the browser. after authentication of a user of the communication device, sending a status page about the captive portal to the communication device for a display of the status page in one tab of the browser, the status page containing a cookie, describing information about a success redirect URL and an initial requested URL, based on the content of which a browser in the communication device sends a request for the success redirect URL and the initial requested URL for a display of the web page corresponding to success redirect URL and the web page corresponding to the initial requested URL each in another tab of the browser.
A method of communication, comprising: obtaining a message (120,520) for communication using visible light communication, VLC, through a light emitting diode, LED, luminary device (102, 530); formatting the message to provide a formatted message using a synchronization signal followed by one or more data signals, wherein the one or more data signals are modulated using a Frequency Shift Keying, FSK, modulation scheme; receiving a first dimming level value associated with a first brightness of light to be emitted from the LED luminary device (102, 530) for the communication using VLC and a second dimming level value associated with a second brightness of light to be emitted from the LED luminary device for the communication using VLC; generating a first waveform (124, 524) with frequencies based on the formatted message and a first duty cycle for the LED luminary device based on the first dimming level value (102,530); sending the generated first waveform (124, 524) to the LED luminary device (102, 530) for communication using VLC; generating a second waveform (124, 524) with frequencies based on the formatted message and a second duty cycle for the LED luminary device based on the second dimming level value (102, 530); and sending the generated second waveform (124, 524) to the LED luminary device (102, 530) for the communication using VLC, wherein the first and second waveforms are square waves. obtaining a message (120,520) for communication using visible light communication, VLC, through a light emitting diode, LED, luminary device (102, 530); formatting the message to provide a formatted message using a synchronization signal followed by one or more data signals, wherein the one or more data signals are modulated using a Frequency Shift Keying, FSK, modulation scheme; receiving a first dimming level value associated with a first brightness of light to be emitted from the LED luminary device (102, 530) for the communication using VLC and a second dimming level value associated with a second brightness of light to be emitted from the LED luminary device for the communication using VLC; generating a first waveform (124, 524) with frequencies based on the formatted message and a first duty cycle for the LED luminary device based on the first dimming level value (102,530); sending the generated first waveform (124, 524) to the LED luminary device (102, 530) for communication using VLC; generating a second waveform (124, 524) with frequencies based on the formatted message and a second duty cycle for the LED luminary device based on the second dimming level value (102, 530); and sending the generated second waveform (124, 524) to the LED luminary device (102, 530) for the communication using VLC, wherein the first and second waveforms are square waves.
A resonant unit, comprising: a dielectric substrate; a metal microstrip disposed on a plane of the dielectric substrate, wherein the metal microstrip is used as a signal input/output port; and a defected ground structure disposed on another plane opposite to the plane of the dielectric substrate on which the metal microstrip is disposed, wherein the defected ground structure comprises a ground loop and an interdigital structure located inside the ground loop, the interdigital structure comprises multiple fingers, characterised in that at least one finger in the interdigital structure comprises at least one embedded interdigital structure. a dielectric substrate; a metal microstrip disposed on a plane of the dielectric substrate, wherein the metal microstrip is used as a signal input/output port; and a defected ground structure disposed on another plane opposite to the plane of the dielectric substrate on which the metal microstrip is disposed, wherein the defected ground structure comprises a ground loop and an interdigital structure located inside the ground loop, the interdigital structure comprises multiple fingers, characterised in that at least one finger in the interdigital structure comprises at least one embedded interdigital structure.
A fuel filling aperture device, comprising: a closing member turned to an open position by an insertion of a fuel filling nozzle to open a fuel filling aperture, wherein the closing member includes a pair of flap members, and urging devices urging the respective pair of flap members to be positioned at a closed position, the pair of flap members respectively includes a turning assembly portion which becomes a center of turning, and an abutment portion relative to the other flap member, characterized in that a surface portion of each of the pair of flap members includes a seal projecting piece abutting against an opening edge portion of a pass-through opening of the fuel filling nozzle at the closed position, and an edge projecting piece continuing to a terminal of the seal projecting piece and forming an edge of at least one portion of the abutment portion. a closing member turned to an open position by an insertion of a fuel filling nozzle to open a fuel filling aperture, wherein the closing member includes a pair of flap members, and urging devices urging the respective pair of flap members to be positioned at a closed position, the pair of flap members respectively includes a turning assembly portion which becomes a center of turning, and an abutment portion relative to the other flap member, characterized in that a surface portion of each of the pair of flap members includes a seal projecting piece abutting against an opening edge portion of a pass-through opening of the fuel filling nozzle at the closed position, and an edge projecting piece continuing to a terminal of the seal projecting piece and forming an edge of at least one portion of the abutment portion.