mhurhangee/ep-ind-claims huggingface dataset:
A method of processing audio signals at a device, the device comprising audio output means for outputting audio signals, the method comprising: receiving audio signals at a plurality of microphones of the device; a beamformer applying beamformer coefficients to the received audio signals, thereby generating a beamformer output; and applying echo cancelling means to the beamformer output, thereby suppressing, from the beamformer output, an echo resulting from audio signals output from the audio output means, the method characterised by: measuring an echo path gain from at least one of the audio signals received by the plurality of microphones; and wherein a level of echo suppression applied by the echo cancelling means is controlled based on the measured echo path gain from the at least one of the audio signals received by the plurality of microphones. receiving audio signals at a plurality of microphones of the device; a beamformer applying beamformer coefficients to the received audio signals, thereby generating a beamformer output; and applying echo cancelling means to the beamformer output, thereby suppressing, from the beamformer output, an echo resulting from audio signals output from the audio output means, the method characterised by: measuring an echo path gain from at least one of the audio signals received by the plurality of microphones; and wherein a level of echo suppression applied by the echo cancelling means is controlled based on the measured echo path gain from the at least one of the audio signals received by the plurality of microphones. measuring an echo path gain from at least one of the audio signals received by the plurality of microphones; and wherein a level of echo suppression applied by the echo cancelling means is controlled based on the measured echo path gain from the at least one of the audio signals received by the plurality of microphones.
A turbine blade comprising a root and an airfoil, the turbine blade comprising: a plurality of cooling channels each including a root cooling channel disposed in the root of the blade and an airfoil cooling channel disposed in the airfoil; characterized in that the airfoil further comprises: means for limiting cooling air flow into each of the airfoil cooling channels, in the form of a metering orifice located between the root cooling channel and the airfoil cooling channel; and means for limiting cooling air flow from each of the airfoil cooling channels, in the form of a film hole opening to the outside of the blade, wherein the plurality of cooling channels are a plurality of radial cooling channels, in which each radial airfoil cooling channel, when in use, directs cooling air in a radially outward direction from a base region of the airfoil to a tip region of the airfoil so that air flowing through a given metering orifice into one of the plurality of radial cooling channels flows radially outward through the airfoil to flow out of the film hole of the one radial cooling channel. a plurality of cooling channels each including a root cooling channel disposed in the root of the blade and an airfoil cooling channel disposed in the airfoil; characterized in that the airfoil further comprises: means for limiting cooling air flow into each of the airfoil cooling channels, in the form of a metering orifice located between the root cooling channel and the airfoil cooling channel; and means for limiting cooling air flow from each of the airfoil cooling channels, in the form of a film hole opening to the outside of the blade, wherein the plurality of cooling channels are a plurality of radial cooling channels, in which each radial airfoil cooling channel, when in use, directs cooling air in a radially outward direction from a base region of the airfoil to a tip region of the airfoil so that air flowing through a given metering orifice into one of the plurality of radial cooling channels flows radially outward through the airfoil to flow out of the film hole of the one radial cooling channel. means for limiting cooling air flow into each of the airfoil cooling channels, in the form of a metering orifice located between the root cooling channel and the airfoil cooling channel; and means for limiting cooling air flow from each of the airfoil cooling channels, in the form of a film hole opening to the outside of the blade, wherein the plurality of cooling channels are a plurality of radial cooling channels, in which each radial airfoil cooling channel, when in use, directs cooling air in a radially outward direction from a base region of the airfoil to a tip region of the airfoil so that air flowing through a given metering orifice into one of the plurality of radial cooling channels flows radially outward through the airfoil to flow out of the film hole of the one radial cooling channel.
Device for securing a screen wash product supply duct on an actuating arm of a windscreen wiper blade of a motor vehicle, said securing device comprising a means (31; 31') for fixing the supply duct, characterized in that it additionally comprises an elastic retaining stirrup (32; 32') having a shape substantially complementary to at least a part of the spring arranged in the vicinity of said stirrup, said elastic retaining stirrup (32; 32') being configured to cooperate with the outer periphery of a wiping pressure spring housed in a cavity of the housing part of the actuating arm or configured to be arranged around a wiping pressure spring housed in a cavity of the housing part of the actuating arm and configured to cooperate with the internal flanks of said cavity, in order to retain the supply duct on the actuating arm.
Method for generating a tooth space profile between two teeth of a wheel engaging with a roller pinion in a reference plane perpendicular to a central axis whose intersection with the reference plane defines a centre, comprising the steps of: - Defining, in the reference plane, a radial reference axis (Δ) of a tooth space passing through the centre; - Defining a first tooth side profile comprising a trochoidal active portion intended to come into contact with a roller and extending to a circle delimiting a crest of the teeth, and a bottom portion extending until it intersects the radial reference axis (Δ) at a bottom point on a tangent perpendicular to the radial reference axis (Δ); - Defining a second side profile, symmetrical to the first profile with respect to the radial axis, to delimit a nominal tooth space suitable for receiving a roller which comes into contact without clearance with the facing active portions of the first and second profiles at the level of a primitive diameter; characterized in that the method comprises the following steps, performed before the step of defining the second profile: - Deforming the bottom portion of the first profile so that the bottom point is brought nearer to the centre by an amount equal to a given radial clearance; - Moving the first profile angularly through a given angular half-clearance (Jα) around the centre to shift it away from the radial reference axis (Δ). - Defining, in the reference plane, a radial reference axis (Δ) of a tooth space passing through the centre; - Defining a first tooth side profile comprising a trochoidal active portion intended to come into contact with a roller and extending to a circle delimiting a crest of the teeth, and a bottom portion extending until it intersects the radial reference axis (Δ) at a bottom point on a tangent perpendicular to the radial reference axis (Δ); - Defining a second side profile, symmetrical to the first profile with respect to the radial axis, to delimit a nominal tooth space suitable for receiving a roller which comes into contact without clearance with the facing active portions of the first and second profiles at the level of a primitive diameter; - Deforming the bottom portion of the first profile so that the bottom point is brought nearer to the centre by an amount equal to a given radial clearance; - Moving the first profile angularly through a given angular half-clearance (Jα) around the centre to shift it away from the radial reference axis (Δ).
A pesticidal control device comprising: a. an insecticidal and/or acaricidal active ingredient selected from the group consisting of an organophosphate, pyrethroid, carbamate, nicotinoid, organochlorine, pyrrole, pyrazole, oxadiazine, macrocyclic lactone, and combinations thereof; b. a plasticizer; c. a stabilizer; d. a polymer selected from the group consisting of polyvinyl chloride, polyolefin, polyurethane, polyamide, methacrylate, silicon polymer, and combinations thereof; and e. a cellulose fiber, obtainable by mixing together the ingredients and then molding the mixture into the control device. a. an insecticidal and/or acaricidal active ingredient selected from the group consisting of an organophosphate, pyrethroid, carbamate, nicotinoid, organochlorine, pyrrole, pyrazole, oxadiazine, macrocyclic lactone, and combinations thereof; b. a plasticizer; c. a stabilizer; d. a polymer selected from the group consisting of polyvinyl chloride, polyolefin, polyurethane, polyamide, methacrylate, silicon polymer, and combinations thereof; and e. a cellulose fiber,
A pressurized inverse thermosensitive polymer foam formulation configured to be stored in a valved container designed to maintain the formulation under pressure and dispense the formulation upon opening a valve of the valve container, the formulation comprising: an aqueous solution of a copolymer of ethylene oxide and propylene oxide, wherein the aqueous solution is configured to undergo a reverse phase change from a liquid to a gel; one or more antibiotics, the one or more antibiotics including vancomycin at a concentration between about 0.1% w/w to about 6.0% w/w; a preservative; a pH adjuster; and an expanding component that is a liquified hydrofluorocarbon gas, wherein the formulation comprises a stable and macroscopically homogenous solution, the formulation is configured to be deployed from the container such that the liquified hydrofluorocarbon gas causes the formulation to foam after the formulation is dispensed from the container, the formulation is configured to be applied topically, and the formulation is configured to initially be deployed from the container at a lower viscosity to spread more easily and becomes more viscous upon contact with the body. an aqueous solution of a copolymer of ethylene oxide and propylene oxide, wherein the aqueous solution is configured to undergo a reverse phase change from a liquid to a gel; one or more antibiotics, the one or more antibiotics including vancomycin at a concentration between about 0.1% w/w to about 6.0% w/w; a preservative; a pH adjuster; and an expanding component that is a liquified hydrofluorocarbon gas, wherein the formulation comprises a stable and macroscopically homogenous solution, the formulation is configured to be deployed from the container such that the liquified hydrofluorocarbon gas causes the formulation to foam after the formulation is dispensed from the container, the formulation is configured to be applied topically, and the formulation is configured to initially be deployed from the container at a lower viscosity to spread more easily and becomes more viscous upon contact with the body. the formulation comprises a stable and macroscopically homogenous solution, the formulation is configured to be deployed from the container such that the liquified hydrofluorocarbon gas causes the formulation to foam after the formulation is dispensed from the container, the formulation is configured to be applied topically, and the formulation is configured to initially be deployed from the container at a lower viscosity to spread more easily and becomes more viscous upon contact with the body.
An injection molding machine, comprising: a cylinder in which a molding material is supplied to the inside; a front support to which a rear end portion of the cylinder is attached; an injection member which is rotatable and movable forward and backward inside the cylinder; a plasticizing motor which rotates the injection member; a rear support which supports a bearing holder that holds a bearing, which rotatably supports an output shaft of the plasticizing motor, and the injection member and moves forward and backward with respect to the front support behind the front support; and a load detector which is attached to a front surface of the bearing holder and the rear support and detects a load which is applied to the injection member. a cylinder in which a molding material is supplied to the inside; a front support to which a rear end portion of the cylinder is attached; an injection member which is rotatable and movable forward and backward inside the cylinder; a plasticizing motor which rotates the injection member; a rear support which supports a bearing holder that holds a bearing, which rotatably supports an output shaft of the plasticizing motor, and the injection member and moves forward and backward with respect to the front support behind the front support; and a load detector which is attached to a front surface of the bearing holder and the rear support and detects a load which is applied to the injection member.
A saddle riding vehicle, comprising: a fuel tank that is supported by a body frame; a filler opening that is provided in an upper surface of the fuel tank; a tank cover that covers the upper surface of the fuel tank; and a fuel sump that collects fuel overflowing from the filler opening, wherein the saddle riding vehicle includes a shroud that covers a side surface of the fuel tank, the fuel sump is placed around the filler opening and under the tank cover, the fuel sump includes a drain pipe that discharges fuel downward, characterized in that the tank cover includes an overlap portion that is covered from outside a vehicle body with the shroud, and in that the drain pipe passes through an opening that is formed in the overlap portion, and then the drain pipe extends between the tank cover and the shroud. a fuel tank that is supported by a body frame; a filler opening that is provided in an upper surface of the fuel tank; a tank cover that covers the upper surface of the fuel tank; and a fuel sump that collects fuel overflowing from the filler opening, wherein the saddle riding vehicle includes a shroud that covers a side surface of the fuel tank, the fuel sump is placed around the filler opening and under the tank cover, the fuel sump includes a drain pipe that discharges fuel downward, characterized in that the tank cover includes an overlap portion that is covered from outside a vehicle body with the shroud, and in that the drain pipe passes through an opening that is formed in the overlap portion, and then the drain pipe extends between the tank cover and the shroud.
Vehicle seat, in particular a motor vehicle seat, having a seat member and a backrest which can be pivoted about a pivot axis, at least one lockable fitting for pivotably connecting the backrest to the seat member, at least one rail pair for longitudinally adjusting the vehicle seat and a rail lock for locking the at least one rail pair, wherein the vehicle seat can be moved into an easy-entry position which can be assumed for easier accessibility to a rear seat row and in which the vehicle seat with respect to at least one position for use which is suitable for transporting persons is displaced into a front longitudinal position by means of the at least one rail pair, the backrest is pivoted forwards about the pivot axis and the backrest is secured in the pivoted-forward position by means of a detent, characterised in that the detent can be blocked by means of a blocking lever in order to prevent release of the backrest as long as the vehicle seat is displaced into a longitudinal position which corresponds to the easy-entry position.
A method for preparing an anode active material comprising a core comprising a crystalline carbon-based material and a composite coating layer comprising a hydrophilic material and at least one material selected from the group consisting of low crystalline carbon and amorphous carbon, the method comprising: (a) mixing a precursor of a material for preparing the at least one material selected from the group consisting of low crystalline carbon and amorphous carbon with the hydrophilic material, followed by purification to prepare a mixture for coating; (b) mixing the mixture for coating with the crystalline carbon-based material to prepare a core-shell precursor in which the mixture for coating is coated on the core comprising the crystalline carbon-based material; and (c) calcining the core-shell precursor to carbonize the material for preparing the at least one material selected from the group consisting of low crystalline carbon and amorphous carbon into the at least one material selected from the group consisting of low crystalline carbon and amorphous carbon. wherein the hydrophilic material comprises an oxide capable of intercalating and deintercalating ions, and wherein the purification involves heat treatment under inert atmosphere at a temperature ranging from 350 to 700°C, followed by cooling and grinding. (a) mixing a precursor of a material for preparing the at least one material selected from the group consisting of low crystalline carbon and amorphous carbon with the hydrophilic material, followed by purification to prepare a mixture for coating; (b) mixing the mixture for coating with the crystalline carbon-based material to prepare a core-shell precursor in which the mixture for coating is coated on the core comprising the crystalline carbon-based material; and (c) calcining the core-shell precursor to carbonize the material for preparing the at least one material selected from the group consisting of low crystalline carbon and amorphous carbon into the at least one material selected from the group consisting of low crystalline carbon and amorphous carbon.
A digital camera comprising: a lens; an image sensor; a first optical path folding element OPFE for folding light arriving from an object in a first optical path to a second optical path; and a second OPFE for folding light from the second optical path to a third optical path toward the image sensor, wherein the third optical path is parallel with the first optical path, wherein the lens and the first OPFE form a split folded lens that is operative to move as an assembly in a first direction parallel to the second optical path to provide focus, and wherein the split folded lens is operative to move as an assembly in a second direction perpendicular to both the first and second optical paths to compensate for tilt of the camera around the first direction. a lens; an image sensor; a first optical path folding element OPFE for folding light arriving from an object in a first optical path to a second optical path; and a second OPFE for folding light from the second optical path to a third optical path toward the image sensor, wherein the third optical path is parallel with the first optical path, wherein the lens and the first OPFE form a split folded lens that is operative to move as an assembly in a first direction parallel to the second optical path to provide focus, and wherein the split folded lens is operative to move as an assembly in a second direction perpendicular to both the first and second optical paths to compensate for tilt of the camera around the first direction.
A method comprising: receiving, by a media gateway device connected to a network, video data; querying, based on the video data, a lighting scheme database to identify one or more lighting schemes corresponding to the video data; determining, from the plurality of lighting schemes corresponding to the video data and based on information associated with each lighting scheme of the one or more lighting schemes, a particular lighting scheme to be used with the video data; downloading the particular lighting scheme to the media gateway device, the particular lighting scheme comprising lighting data associated with the video data; outputting, based on the video data, video content for display on a display screen associated with the media gateway device; and outputting, based on the lighting data, ambient lighting instructions time-synchronized with the video content, the ambient lighting instructions indicating sequenced ambient lighting effects for a plurality of light channels, wherein each light channel is associated with a light source in a predetermined location relative to a location of the display screen; wherein the media gateway device, via the network, is connected with an auxiliary device; and wherein the method further comprises: after occurrence of a notification event associated with the auxiliary device, outputting ambient lighting instructions for a specific lighting effect associated with the notification event instead of the ambient lighting instructions associated with the video data. receiving, by a media gateway device connected to a network, video data; querying, based on the video data, a lighting scheme database to identify one or more lighting schemes corresponding to the video data; determining, from the plurality of lighting schemes corresponding to the video data and based on information associated with each lighting scheme of the one or more lighting schemes, a particular lighting scheme to be used with the video data; downloading the particular lighting scheme to the media gateway device, the particular lighting scheme comprising lighting data associated with the video data; outputting, based on the video data, video content for display on a display screen associated with the media gateway device; and outputting, based on the lighting data, ambient lighting instructions time-synchronized with the video content, the ambient lighting instructions indicating sequenced ambient lighting effects for a plurality of light channels, wherein each light channel is associated with a light source in a predetermined location relative to a location of the display screen; wherein the media gateway device, via the network, is connected with an auxiliary device; and wherein the method further comprises: after occurrence of a notification event associated with the auxiliary device, outputting ambient lighting instructions for a specific lighting effect associated with the notification event instead of the ambient lighting instructions associated with the video data.