mhurhangee/ep-ind-claims huggingface dataset:
Device for generating a foamy milk/air mixture, having a foaming unit, a feed line in fluid-conducting communication with the foaming unit for taking in milk from a storage container and supplying the milk to the foaming unit, an air supply line for mixing air into the milk, and a controllable air supply limiter which is arranged in the air supply line, wherein the device has a sensor for determining an air quantity mixed with the milk, which sensor is arranged in the air supply line, and a programmable control unit for adapting the air quantity determined by the sensor to a desired value specified by the control unit, characterised in that the sensor is a volumetric flow sensor which, in the direction of air supply, is arranged either upstream of the air supply limiter or between the air supply limiter and the foaming unit, and the volumetric flow sensor has a heating element, a first temperature sensor arranged upstream of the heating element in the direction of air flow and a second temperature sensor arranged downstream of the heating element in the direction of air flow. the device has a sensor for determining an air quantity mixed with the milk, which sensor is arranged in the air supply line, and a programmable control unit for adapting the air quantity determined by the sensor to a desired value specified by the control unit, characterised in that the sensor is a volumetric flow sensor which, in the direction of air supply, is arranged either upstream of the air supply limiter or between the air supply limiter and the foaming unit, and the volumetric flow sensor has a heating element, a first temperature sensor arranged upstream of the heating element in the direction of air flow and a second temperature sensor arranged downstream of the heating element in the direction of air flow.
A user equipment, UE, comprising: a transceiver; a memory; and a processor communicatively coupled to the transceiver and the memory, wherein the processor is configured to: configure a physical random access channel, PRACH, resource according to a predetermined configuration to indicate that the UE is capable of supporting: repeated transmission of a physical channel carrying a connection message, and counting of available slots that are used for the repeated transmission of the physical channel; and transmit a PRACH using the configured PRACH resource to a network entity; wherein the PRACH resource is further configured as a capability indication used to indicate that the UE is capable of maintaining phase continuity across repeated transmissions of the physical channel carrying the connection message. a transceiver; a memory; and a processor communicatively coupled to the transceiver and the memory, wherein the processor is configured to: configure a physical random access channel, PRACH, resource according to a predetermined configuration to indicate that the UE is capable of supporting: repeated transmission of a physical channel carrying a connection message, and counting of available slots that are used for the repeated transmission of the physical channel; and transmit a PRACH using the configured PRACH resource to a network entity; configure a physical random access channel, PRACH, resource according to a predetermined configuration to indicate that the UE is capable of supporting: repeated transmission of a physical channel carrying a connection message, and counting of available slots that are used for the repeated transmission of the physical channel; and repeated transmission of a physical channel carrying a connection message, and counting of available slots that are used for the repeated transmission of the physical channel; and transmit a PRACH using the configured PRACH resource to a network entity; wherein the PRACH resource is further configured as a capability indication used to indicate that the UE is capable of maintaining phase continuity across repeated transmissions of the physical channel carrying the connection message.
A method for acoustic echo cancellation in a speech signal, said method being performed by an apparatus and comprising: inserting at least one tone in a sampled far-end speech signal to obtain a resulting far-end speech signal, wherein said at least one tone is substantially inaudible to a listener; determining a clock skew between two sampling clocks based on a frequency shift of said at least one tone as included within a sampled near-end speech signal, wherein the two sampling clocks are the sampling clock of the sampled far-end speech signal and the sampling clock of the sampled near-end speech signal, wherein the sampled near-end speech signal is generated by sampling a near-end speech signal containing echo resulting from playback of the resulting far-end speech signal; and re-sampling said sampled near-end speech signal based on said determined clock skew; and performing said acoustic echo cancellation using said re-sampled near-end speech signal. inserting at least one tone in a sampled far-end speech signal to obtain a resulting far-end speech signal, wherein said at least one tone is substantially inaudible to a listener; determining a clock skew between two sampling clocks based on a frequency shift of said at least one tone as included within a sampled near-end speech signal, wherein the two sampling clocks are the sampling clock of the sampled far-end speech signal and the sampling clock of the sampled near-end speech signal, wherein the sampled near-end speech signal is generated by sampling a near-end speech signal containing echo resulting from playback of the resulting far-end speech signal; and re-sampling said sampled near-end speech signal based on said determined clock skew; and performing said acoustic echo cancellation using said re-sampled near-end speech signal.
A Kit comprising: a formulation comprising at least one selected inhalation anaesthetic and an anaesthetic control release medium in the form of an emulsion provided by at least one, including any selected combination of, non-ionic surfactant(s) selected from the group comprising ethylene oxide based fluorocarbon surfactants, and propylene oxide or ethylene oxide based hydrocarbon surfactants, wherein the amount of said medium relative to said anaesthetic is such that anaesthetic is delivered at a selected Minimum alveolar concentration, at a substantially constant or controllable rate, within the range of 0.25 - 4.0 x Minimum alveolar concentration thereby allowing for either i) induction and/or maintenance of anaesthesia or ii) sedation; and a cartridge containing said formulation wherein said cartridge is for use with an inhalation device to deliver an inhalational or volatilised anaesthetic to a patient wherein said cartridge comprises an adjustable stirrer or agitator. a formulation comprising at least one selected inhalation anaesthetic and an anaesthetic control release medium in the form of an emulsion provided by at least one, including any selected combination of, non-ionic surfactant(s) selected from the group comprising ethylene oxide based fluorocarbon surfactants, and propylene oxide or ethylene oxide based hydrocarbon surfactants, wherein the amount of said medium relative to said anaesthetic is such that anaesthetic is delivered at a selected Minimum alveolar concentration, at a substantially constant or controllable rate, within the range of 0.25 - 4.0 x Minimum alveolar concentration thereby allowing for either i) induction and/or maintenance of anaesthesia or ii) sedation; and a cartridge containing said formulation wherein said cartridge is for use with an inhalation device to deliver an inhalational or volatilised anaesthetic to a patient wherein said cartridge comprises an adjustable stirrer or agitator.
A marine propulsion unit having an air intake, and having a valve (1,1') for closing the air-intake upon any one of immersion of the air intake of the propulsion unit in water, expected immersion of the air intake in water and tilting of the propulsion unit beyond a predefined angle, wherein the valve comprises: a body; an internal passage through the valve body, the internal passage communicating with the atmosphere; an aperture (5,6) in the valve body, the aperture communicating with the internal passage; and a piston (4,4') moveable within the internal passage; wherein the valve (1,1') is configured such that, upon immersion of an air intake of an associated propulsion unit in water or upon expected immersion of the air intake of the associated propulsion unit in water or upon tilting of the associated propulsion unit beyond a predefined angle, the piston moves to a first position within the internal passage in which it seals the aperture to thereby isolate the air intake from the atmosphere; and an actuator for causing the piston (4,4') to move to the first position upon immersion of the propulsion unit in water or tilting of the propulsion unit beyond the predefined angle. a body; an internal passage through the valve body, the internal passage communicating with the atmosphere; an aperture (5,6) in the valve body, the aperture communicating with the internal passage; and a piston (4,4') moveable within the internal passage; wherein the valve (1,1') is configured such that, upon immersion of an air intake of an associated propulsion unit in water or upon expected immersion of the air intake of the associated propulsion unit in water or upon tilting of the associated propulsion unit beyond a predefined angle, the piston moves to a first position within the internal passage in which it seals the aperture to thereby isolate the air intake from the atmosphere; and an actuator for causing the piston (4,4') to move to the first position upon immersion of the propulsion unit in water or tilting of the propulsion unit beyond the predefined angle.
A method for hyperpolarisation of spins comprising the following steps: a) placing a sample containing spins (s) in a stationary magnetic field (B 0); b) magnetically coupling the sample to an electromagnetic resonator configured to have a resonance frequency ω 0 equal to the Larmor frequency of the spins in the stationary magnetic field, with the coupling force and the quality factor of the resonator being high enough so that the coupling with the resonator dominates the relaxation dynamics of the spins; and c) reducing the effective temperature T eff = k ħω 0 ln 1 + 1 n ph − 1 of the electromagnetic field inside the electromagnetic resonator below its physical temperature and that of the sample, with k being the Boltzmann constant, ħ being the reduced Planck constant and n ph being the average number of photons of frequency ω 0 in the resonator; as a result of which the polarisation of the spins of the sample is established at a value that is higher than its thermal equilibrium value. a) placing a sample containing spins (s) in a stationary magnetic field (B 0); b) magnetically coupling the sample to an electromagnetic resonator configured to have a resonance frequency ω 0 equal to the Larmor frequency of the spins in the stationary magnetic field, with the coupling force and the quality factor of the resonator being high enough so that the coupling with the resonator dominates the relaxation dynamics of the spins; and c) reducing the effective temperature T eff = k ħω 0 ln 1 + 1 n ph − 1 of the electromagnetic field inside the electromagnetic resonator below its physical temperature and that of the sample, with k being the Boltzmann constant, ħ being the reduced Planck constant and n ph being the average number of photons of frequency ω 0 in the resonator;
A roller with a sensor for a roller track, wherein the sensor comprises a transmitter, a receiver, a sensor element which is integrated into the roller, and an evaluation unit for detecting objects located on the roller track using a sensor signal of the sensor element, wherein the sensor element comprises a high frequency line (20, 30, 34) and wherein the sensor signal is a high frequency signal fed into the high frequency line (20, 30, 34) by the transmitter and subsequently received in the receiver, wherein the evaluation unit is configured to detect the presence of objects with reference to influences of the high frequency signal on the high frequency line (20, 30, 34), characterized in that the high frequency line (20, 30, 34) is configured as - several high frequency lines (20a-b) distributed over the circumference of the roller, - at least one winded conductor strip which is configured as a microstrip line, slot line or coplanar line and whose curves cover additional area on the surface of the sensor element in a circumferential direction or - a hollow line having holes distributed over the circumference. - several high frequency lines (20a-b) distributed over the circumference of the roller, - at least one winded conductor strip which is configured as a microstrip line, slot line or coplanar line and whose curves cover additional area on the surface of the sensor element in a circumferential direction or - a hollow line having holes distributed over the circumference.
A polycarbonate composition, comprising: a bisphenol A polycarbonate homopolymer formed by a melt process; and a hexamethylene-bis[3-(3,5-di-tert-butyl-4-hydroxyphenyl) propionate] antioxidant in an amount of 450 ppm or less; wherein the composition has a yellowness index of 1.3 or less, preferably of 0.8 or less when measured at 2.55 mm thickness; a melt volume rate of from 3 to 56 cc/10 min, when measured according to ASTM D1238; an endcap percentage of 65% to 90%; and a Fries content of from 200 ppm to 2750 ppm, wherein the composition further comprises from 50 ppm to 1000 ppm of a phosphite stabilizer, wherein the yellowness index and Fries content are determined using the methods disclosed in the present specification. a bisphenol A polycarbonate homopolymer formed by a melt process; and a hexamethylene-bis[3-(3,5-di-tert-butyl-4-hydroxyphenyl) propionate] antioxidant in an amount of 450 ppm or less; wherein the composition has a yellowness index of 1.3 or less, preferably of 0.8 or less when measured at 2.55 mm thickness; a melt volume rate of from 3 to 56 cc/10 min, when measured according to ASTM D1238; an endcap percentage of 65% to 90%; and a Fries content of from 200 ppm to 2750 ppm, wherein the composition further comprises from 50 ppm to 1000 ppm of a phosphite stabilizer, wherein the yellowness index and Fries content are determined using the methods disclosed in the present specification.
A Wi-Fi sensing system for monitoring a place, the system comprising: a plurality of mesh devices located in the place, wherein each mesh device comprises a transmitter component which, when activated, configures the mesh device as a transmitter to generate Wi-Fi signals, and a receiver component which, when activated, configures the mesh device as a receiver, wherein at least two of the mesh devices have activated receiver components; wherein each mesh device having an activated receiver component is configured, by a configuration tool, to receive sensed data for processing from at least one other selected mesh device of the plurality of mesh devices, the selected mesh device selected by the configuration tool and having an activated transmitter component, the sensed data generated from a Wi-Fi signal transmitted by the transmitter device and received by each receiver device over a wireless communication medium, wherein the system further comprises a first sensing mode engine for processing the sensed data in a first sensing mode and a second sensing mode engine for processing the sensed data in a second sensing mode, wherein, for each of the selected mesh devices, one or more of the first sensing mode and the second sensing mode are selected by the configuration tool for processing the sensed data. a plurality of mesh devices located in the place, wherein each mesh device comprises a transmitter component which, when activated, configures the mesh device as a transmitter to generate Wi-Fi signals, and a receiver component which, when activated, configures the mesh device as a receiver, wherein at least two of the mesh devices have activated receiver components; wherein each mesh device having an activated receiver component is configured, by a configuration tool, to receive sensed data for processing from at least one other selected mesh device of the plurality of mesh devices, the selected mesh device selected by the configuration tool and having an activated transmitter component, the sensed data generated from a Wi-Fi signal transmitted by the transmitter device and received by each receiver device over a wireless communication medium, wherein the system further comprises a first sensing mode engine for processing the sensed data in a first sensing mode and a second sensing mode engine for processing the sensed data in a second sensing mode, wherein, for each of the selected mesh devices, one or more of the first sensing mode and the second sensing mode are selected by the configuration tool for processing the sensed data.
Control arrangement for a centrifugal pump, in particular a circulation pump, having a central unit which is arranged in a housing which has a housing cover, wherein a module for configuring the control arrangement is integrated in the housing cover, characterized in that the housing comprises a first housing part and a second housing part, wherein the first housing part is partially closed by the second housing part and the housing cover closes the region of the housing part that is not closed by the housing part.
Display container in which horizontally stacked products are arranged comprising an elastic band to bring said products towards the anterior part of the container, formed by a quadrangular cardboard sheet (1.1) comprising a first side (1.2) that corresponds to a first folding line (1.2), from which emerges a first tab (1.3), in parallel and sequentially a second (1.4), third (1.5) and fourth (1.6) sides are arranged respectively corresponding to a second, third and fourth folding lines, parallel to the fourth side (1.6) and following this sequence is a fifth side (1.7) as an end of the sheet (1.1), on each side of the same and perpendicularly to the sides (1.2, 1.4,1.5,1.6,1.7) are placed fifth (1.12) and sixth (1.17) folding lines, which respectively correspond to sixth and seventh sides, characterised in that from each of the fifth (1.12) and sixth (1.17) folding lines and towards the nearest corresponding end of the sheet (1.1), are made in correspondence with the second (1.4), third (1.5) and fourth (1.6) sides the corresponding first (1.22), second (1.23), third (1.24), fourth (1.25), fifth (1.26) and sixth (1.27) notches, the second (1.23), third (1.24) notches extending into the sheet, thereby defining the following faces: rear (1.8) between the first (1.2), second (1.4), sixth (1.12) and seventh (1.17) sides; right side (1.9) between the second (1.4), third (1.5), sixth (1.12) and seventh (1.17) sides; anterior (1.10) between the third (1.5), fourth (1.6), sixth (1.12) and seventh (1.17) sides; left side (1.11) between the fourth (1.6), fifth (1.7), sixth (1.12) and seventh (1.17) sides; defining in this way the following tabs: second (1.13) between the sixth side (1.12) and the first notch (1.22); third (1.14) between the sixth side (1.12), first (1.22) and second (1.23) notches; fourth (1.15) between the sixth side (1.12), second (1.23) and third (1.24) notches; fifth (1.16) between the third notch (1.24) and the fifth (1.7) and sixth (1.12) sides; sixth (1.18) between the seventh side (1.17) and the fourth notch (1.25); seventh (1.19) between the seventh side (1.17), fourth (1.25) and fifth (1.26) notches; eighth (1.20) between the seventh side (1.17) and the fifth (1.26) and sixth (1.27) notches; ninth (1.21) between the sixth notch (1.27) and the fifth (1.7) and seventh (1.17) sides; a first slit (1.28) is made in the rear (1.8) and right side (1.9) faces, and a second slit (1.29) is made in the left side face (1.11), such that when the container is formed the first tab (1.3) coincides with the fifth side (1.7) and the first slit (1.28) in the first side (1.2) coincides with the second slit (1.29) in the fifth side (1.7) to form a channel in which runs the elastic band, which embraces the products, the same also passing through the second (1.23) and third (1.24) notches behind the fourth tab (1.15), such that a constant pull is exerted on the products towards the anterior face (1.10) of the container and said band is concealed from the user.
Double pedal system for an industrial truck, comprising: - a first spring-reset pedal; - a second spring-reset pedal; wherein the first and the second spring-reset pedals (34, 36) are provided so as to be mechanically independent of one another, and are each provided with a device for electronically capturing the current actuation path of the corresponding pedal (34, 36); and a control unit which is operatively coupled to the devices for electronically capturing the actuation paths of the two pedals (34, 36), and is designed to determine a travel target value from the current actuation paths of the two pedals (34, 36), characterized in that the control unit is designed to determine the travel target value by calculating the difference between the two current actuation paths of the pedals (34, 36). - a first spring-reset pedal; - a second spring-reset pedal; wherein the first and the second spring-reset pedals (34, 36) are provided so as to be mechanically independent of one another, and are each provided with a device for electronically capturing the current actuation path of the corresponding pedal (34, 36); and a control unit which is operatively coupled to the devices for electronically capturing the actuation paths of the two pedals (34, 36), and is designed to determine a travel target value from the current actuation paths of the two pedals (34, 36), characterized in that the control unit is designed to determine the travel target value by calculating the difference between the two current actuation paths of the pedals (34, 36). wherein the first and the second spring-reset pedals (34, 36) are provided so as to be mechanically independent of one another, and are each provided with a device for electronically capturing the current actuation path of the corresponding pedal (34, 36); and a control unit which is operatively coupled to the devices for electronically capturing the actuation paths of the two pedals (34, 36), and is designed to determine a travel target value from the current actuation paths of the two pedals (34, 36), characterized in that the control unit is designed to determine the travel target value by calculating the difference between the two current actuation paths of the pedals (34, 36).