mhurhangee/ep-ind-claims huggingface dataset:
An audio processing system comprising an audio processing device and an external device, which transmits to the audio processing device information about characteristics of the room, to which said external device is specific and where the external device and the audio processing device are located, said audio processing device comprising • an input transducer providing an electric input signal (IN1, IN2) representing an acoustic signal from an environment of a user of the audio processing device, • a signal processing unit adapted for running an algorithm for processing said input signal or a signal derived therefrom and providing a processed output signal (ODRV1, ODRV2), and • a wireless interface (Rx) adapted to allow the audio processing device to receive an information signal, wherein the audio processing device is adapted to extract a measure of reverberation from the information signal, and wherein the audio processing device is further adapted to use said measure of reverberation as an input to said algorithm, wherein said algorithm is a dereverberation algorithm for reducing an effect of reverberation in said electric input signal, and said algorithm is adapted for taking into account said measure of reverberation; and said external device comprising • a microphone, • a signal processing unit, and • a sound transducer, and • a wireless interface (Tx) adapted to allow the external device to transmit an information signal (IREV) wherein the external device is adapted to make - at certain predefined points in time - a reverberation measurement by • issuing an acoustic probe signal, • receiving a reflected signal by the microphone; and • analysing the received reflected signal by comparing the issued acoustic probe signal with the received reflected signal by the signal processing unit to provide a measure characteristic of the reverberation of said room, and wherein the external device is further adapted to include in said information signal said measure characteristic of the reverberation of said room. • an input transducer providing an electric input signal (IN1, IN2) representing an acoustic signal from an environment of a user of the audio processing device, • a signal processing unit adapted for running an algorithm for processing said input signal or a signal derived therefrom and providing a processed output signal (ODRV1, ODRV2), and • a wireless interface (Rx) adapted to allow the audio processing device to receive an information signal, • a microphone, • a signal processing unit, and • a sound transducer, and • a wireless interface (Tx) adapted to allow the external device to transmit an information signal (IREV) • issuing an acoustic probe signal, • receiving a reflected signal by the microphone; and • analysing the received reflected signal by comparing the issued acoustic probe signal with the received reflected signal by the signal processing unit to provide a measure characteristic of the reverberation of said room, and
A soft chewable dosage form comprising a first active pharmaceutical ingredient encapsulated in a lipid material/matrix, wherein the lipid material comprises a primary lipid and a second lipid, wherein the second lipid is medium-chain triglycerides, wherein the lipid encapsulated active pharmaceutical ingredient is embedded in the soft chewable dosage form, and wherein the soft chewable dosage form comprises at least a second active pharmaceutical ingredient.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, system information for a multimedia broadcast multicast service single frequency network, MBSFN, including information for an area for the MBSFN and information for a Multicast Control Channel, MCCH, related to the area; receiving, from the base station, configuration information for a measurement, the configuration information including target MBSFN area information; performing logging of a measurement result for the target MBSFN area information during both an idle mode and a connected mode based on the configuration information in case that a service corresponding to the target MBSFN area information is received based on the system information; and transmitting, to the base station, the measurement result for to the target MBSFN area information, in case that the terminal has an available logged measurement result related to the configuration information, wherein the measurement result includes a reference signal received power related to the target MBSFN area information, and wherein the reference signal received power is identified based on a reference signal for the service corresponding to the target MBSFN area information. receiving, from a base station, system information for a multimedia broadcast multicast service single frequency network, MBSFN, including information for an area for the MBSFN and information for a Multicast Control Channel, MCCH, related to the area; receiving, from the base station, configuration information for a measurement, the configuration information including target MBSFN area information; performing logging of a measurement result for the target MBSFN area information during both an idle mode and a connected mode based on the configuration information in case that a service corresponding to the target MBSFN area information is received based on the system information; and transmitting, to the base station, the measurement result for to the target MBSFN area information, in case that the terminal has an available logged measurement result related to the configuration information, wherein the measurement result includes a reference signal received power related to the target MBSFN area information, and wherein the reference signal received power is identified based on a reference signal for the service corresponding to the target MBSFN area information.
Dirt container for a hand-held vacuum cleaner, wherein the dirt container is able to be connected via an inlet opening to an inlet nozzle for receiving drawn-in contaminated air and wherein the dirt container, together with a separator which can be received therein, forms a first unit for separating dirt from the contaminated air, wherein the first unit has a first coupling element, which is able to be coupled to a second coupling element of a second unit corresponding thereto, to form a connecting apparatus (5, 6), wherein the second unit comprises a motor-fan unit for generating an air flow and an energy store for driving the motor-fan unit, characterised in that the dirt container is configured to be optionally operated with a separator which functions according to the centrifugal force principle or which is a dust filter bag or a wet separator.
A window assembly comprising: a window including an electro-optic device configured to limit light transmissivity through the window; a controller in communication with a geographic positioning system and configured to limit a range of light transmissivity of the electro-optic device based on a location detected by the geographic positioning system; a manual adjustment control configured to allow a user to adjust the light transmissivity of the window based on the range of light transmissivity provided by the controller; and an automatic adjustment control configured to automatically change the transmissivity of the windows to comply with local requirements in a particular jurisdiction and to comply with preset user preferences. a window including an electro-optic device configured to limit light transmissivity through the window; a controller in communication with a geographic positioning system and configured to limit a range of light transmissivity of the electro-optic device based on a location detected by the geographic positioning system; a manual adjustment control configured to allow a user to adjust the light transmissivity of the window based on the range of light transmissivity provided by the controller; and an automatic adjustment control configured to automatically change the transmissivity of the windows to comply with local requirements in a particular jurisdiction and to comply with preset user preferences.
An impeller assembly for a solid-liquid mixing device, the impeller assembly comprising an impeller body, a plurality of mixing blades which are evenly distributed being located on an inner side of the impeller body and extended outwards from a shaft of the impeller body, and at least two baffle plates being disposed on an outer side of the impeller body along a radial direction of the impeller body outwards and disposed in a circumferential direction of the impeller body, wherein one of every adjacent two baffle plates is fixedly connected to a cavity of the mixing device, an other of the every adjacent two baffle plates is fixedly connected to the impeller body, characterized in that at least one pair of adjacent two baffle plates satisfies following conditions: curves projected by two opposite surfaces of each of adj acent baffle plates on a cross section of the impeller at any height are smooth curves, and at least one of the curves is not fully included in a circle with a center of the shaft as its center.
An organic electroluminescent component comprising - a first organic functional stack, which has a first electroluminescent layer and at least one n-doped organic layer, - a second organic functional stack, which has a second electroluminescent layer and at least one p-doped organic layer, wherein the n-doped and p-doped organic layers (12, 23) are arranged between the first and second electroluminescent layers (11, 21), and a metal layer is arranged therebetween in a manner directly adjacent to the n-doped and p-doped organic layers (12, 23), wherein the first and second organic functional stack (1, 2) is arranged between a first and a second electrode (5, 6) and wherein the first and second electrodes (5, 6) are transparent, characterized in that the metal layer is floating, not contact-connectable and non-transparent. - a first organic functional stack, which has a first electroluminescent layer and at least one n-doped organic layer, - a second organic functional stack, which has a second electroluminescent layer and at least one p-doped organic layer, wherein the n-doped and p-doped organic layers (12, 23) are arranged between the first and second electroluminescent layers (11, 21), and a metal layer is arranged therebetween in a manner directly adjacent to the n-doped and p-doped organic layers (12, 23), wherein the first and second organic functional stack (1, 2) is arranged between a first and a second electrode (5, 6) and wherein the first and second electrodes (5, 6) are transparent, characterized in that the metal layer is floating, not contact-connectable and non-transparent.
Operating mechanism for tripping a circuit-breaker, the operating mechanism comprising a coil having a first terminal and a second terminal, means for generating a first electric impulse, and means for creating, from the first electric impulse, a second electric impulse delayed from the first electric impulse and applied between the first terminal and the second terminal of the coil, characterised in that the means for creating the second electric impulse comprise a switch connected in series with the coil and a delaying circuit having a first input connected to a first output of the means for generating a first electric impulse, a second input connected to a second output of the means for generating a first electric impulse, and an output which delivers the second electric impulse as a command signal to the switch, wherein the delaying circuit comprises a timer circuit having an input and an output, an integrating circuit (R2, C1) connected at the input of the timer circuit and a driving circuit (R3, T1, R4) connected at the output of the timer circuit, the first electric impulse being applied at terminals of the integrating circuit, characterized in that the delaying circuit is powered on when the first electric impulse is applied between its first input and its second input and in that the logical level at the output of the timer circuit being changed from "high" to "low" as soon as the voltage at the input of the timer circuit connected to the integrating circuit reaches a trigger-level, and the driving circuit delivering the command signal to the switch as soon as the logical level at the output of the timer circuit changes when the voltage at the input of the timer circuit reaches the trigger-level.
A separator comprising a plurality of convex portions and a plurality of concave portions which are sequentially provided along a first direction, wherein at least one convex portion comprises a partition connected to the adjacent concave portion and a top surface connected to the partition, wherein in the convex portions, first openings are each provided on top surfaces at predetermined intervals along a second direction orthogonal to the first direction, the first openings of two adjacent convex portions are each provided so as not to be positioned coaxially based on a virtual first line parallel to the first direction, the first opening is formed to have a length along the first direction larger than a width along the second direction, and the first opening is formed over the top surface and a partial area of the partition, wherein in the concave portions, second openings are each provided on bottom surfaces at predetermined intervals along a second direction orthogonal to the first direction, and wherein the second openings of two adjacent concave portions are provided so as not to be positioned coaxially based on a virtual first line parallel to the first direction. wherein at least one convex portion comprises a partition connected to the adjacent concave portion and a top surface connected to the partition, wherein in the convex portions, first openings are each provided on top surfaces at predetermined intervals along a second direction orthogonal to the first direction, the first openings of two adjacent convex portions are each provided so as not to be positioned coaxially based on a virtual first line parallel to the first direction, the first opening is formed to have a length along the first direction larger than a width along the second direction, and the first opening is formed over the top surface and a partial area of the partition, wherein in the concave portions, second openings are each provided on bottom surfaces at predetermined intervals along a second direction orthogonal to the first direction, and wherein the second openings of two adjacent concave portions are provided so as not to be positioned coaxially based on a virtual first line parallel to the first direction.
A method for aligning a card for printing within a printing device, the printing device including a transport mechanim, a print unit that is configured to move relative to the transport mechanism thereby defining a print area, and a card feeder having an alignment bracket placed at an end of the card feeder near the transport mechanism on top of the card feeder, the method comprising: positioning the card feeder in a first orientation and depositing the card from the card feeder onto the transport mechanism along a processing axis; moving the transport mechanism in a first direction where the card moves away from the card feeder along the first direction on the transport mechanism; positioning the card feeder in a second orientation different from the first orientation where the alignment bracket aligns with the transport mechanism along the processing axis, the alignment bracket having a rear wall that engages the card when the card is moved into the alignment bracket and a guide that projects in a perpendicular direction from the rear wall; moving the transport mechanism in a second direction opposite the first direction such that the card moves into the alignment bracket and an edge of the card abuts the rear wall, wherein the guide aligns the card along the processing axis; moving the transport mechanism in the first direction such that the card clears the alignment bracket; and positioning the card feeder to a third orientation separate from the first and second orientations where the card feeder is outside the print area when the card feeder is in the third position. positioning the card feeder in a first orientation and depositing the card from the card feeder onto the transport mechanism along a processing axis; moving the transport mechanism in a first direction where the card moves away from the card feeder along the first direction on the transport mechanism; positioning the card feeder in a second orientation different from the first orientation where the alignment bracket aligns with the transport mechanism along the processing axis, the alignment bracket having a rear wall that engages the card when the card is moved into the alignment bracket and a guide that projects in a perpendicular direction from the rear wall; moving the transport mechanism in a second direction opposite the first direction such that the card moves into the alignment bracket and an edge of the card abuts the rear wall, wherein the guide aligns the card along the processing axis; moving the transport mechanism in the first direction such that the card clears the alignment bracket; and positioning the card feeder to a third orientation separate from the first and second orientations where the card feeder is outside the print area when the card feeder is in the third position.
Use of a copolymer as dispersant for a positive electrode of a power storage device, comprising a copolymer that contains a constitutional unit A represented by the following general formula and at least one constitutional unit B selected from the group consisting of a constitutional unit B 1 represented by the following general formula and a constitutional unit B 2 represented by the following general formula, wherein a total content of the constitutional unit A and the constitutional unit B in the copolymer is 80% by mass or more, and the content of the constitutional unit A in all constitutional units of the copolymer is 35% by mass or more: where R 1, R 2, R 3, R 5, R 6, R 7, R 10, R 11, and R 12 are the same or different and represent a hydrogen atom, a methyl group, or an ethyl group, X 1 represents an oxygen atom or NH, R 4 represents a hydrocarbon group having 16 to 30 carbon atoms, X 2 represents an oxygen atom, R 8 represents a linear or branched alkylene group having 2 to 4 carbon atoms, p represents 1, R 9 represents a hydrogen atom or a methyl group, and X 3 represents a pyridinyl group that may have a hydrocarbon group having 1 to 4 carbon atoms. wherein a total content of the constitutional unit A and the constitutional unit B in the copolymer is 80% by mass or more, and the content of the constitutional unit A in all constitutional units of the copolymer is 35% by mass or more: where R 1, R 2, R 3, R 5, R 6, R 7, R 10, R 11, and R 12 are the same or different and represent a hydrogen atom, a methyl group, or an ethyl group, X 1 represents an oxygen atom or NH, R 4 represents a hydrocarbon group having 16 to 30 carbon atoms, X 2 represents an oxygen atom, R 8 represents a linear or branched alkylene group having 2 to 4 carbon atoms, p represents 1, R 9 represents a hydrogen atom or a methyl group, and X 3 represents a pyridinyl group that may have a hydrocarbon group having 1 to 4 carbon atoms.
A method for performing pyrolysis in connection with a fluidized bed boiler, in which method solid fuel in particle form is supplied to a pyrolyzer and pyrolysis conditions are maintained in the pyrolyzer in order to separate condensible materials from the solid fuel, in which case the temperature required by the pyrolysis conditions is brought at least partly with the solid fluidized bed material of the fluidized bed boiler, which solid fluidized bed material is circulated via the pyrolyzer, and the solid fluidized bed material of the fluidized bed boiler and the solid fuel in particle form is fluidized in the pyrolyzer with fluidizing gas in such a way that the solid fluidized bed material and the solid fuel flow through the pyrolyzer transversely to the flow direction of the fluidizing gas, and the condensible gaseous substances separated from the solid fuel are directed from the pyrolyzer to a condenser, where they are separated in liquid form as so-called pyrolysis oil, characterized in that the solid fuel to be pyrolyzed is supplied to the solid fluidized bed material in several sequential points along the flow direction of the solid fluidized bed material flowing through the pyrolyzer.
A closed cycle system for waste heat recovery, the system comprising: a heat exchanger configured to transfer heat from an external heat source to a working fluid; an expander fluidly connected to an outlet of the heat exchanger and configured to expand the working fluid and produce mechanical energy; a recuperator fluidly connected to an outlet of the expander and configured to remove heat from the working fluid; a condensing unit fluidly connected to an outlet of the recuperator and configured to condense the working fluid, the condensing unit including a first cooler mechanism located upstream of a multistage compressor with an inter-cooler mechanism and a second cooler mechanism located downstream of the multistage compressor such that the working fluid is arranged to enter into a supercritical state; and a pump fluidly connected to an outlet of the condensing unit and configured to pump the condensed working fluid back to the recuperator, wherein the recuperator is fluidly connected to the heat exchanger such that the working fluid follows a closed path; and wherein the expander, the multistage compressor and the pump are connected through an integrally geared system. a heat exchanger configured to transfer heat from an external heat source to a working fluid; an expander fluidly connected to an outlet of the heat exchanger and configured to expand the working fluid and produce mechanical energy; a recuperator fluidly connected to an outlet of the expander and configured to remove heat from the working fluid; a condensing unit fluidly connected to an outlet of the recuperator and configured to condense the working fluid, the condensing unit including a first cooler mechanism located upstream of a multistage compressor with an inter-cooler mechanism and a second cooler mechanism located downstream of the multistage compressor such that the working fluid is arranged to enter into a supercritical state; and a pump fluidly connected to an outlet of the condensing unit and configured to pump the condensed working fluid back to the recuperator, wherein the recuperator is fluidly connected to the heat exchanger such that the working fluid follows a closed path; and wherein the expander, the multistage compressor and the pump are connected through an integrally geared system.