mhurhangee/ep-ind-claims huggingface dataset:
A method of blind source separation of mixed audio from a plurality of audio sources comprising: receiving time instants of audio signals associated with the mixed audio, the time instants of audio signals comprising observation vectors of audio signals at different time instants generated by a set of microphones at a location; determining a distortion measure between frequency components of at least some of the received time instants of audio signals; determining a plurality of similarity measures for the frequency components using the determined distortion measure, the plurality of similarity measures measuring a similarity of the audio signals at different time instants for a frequency bin of a plurality of frequency bins; generating a similarity matrix for a frequency band based on the plurality of similarity measures, wherein an entry of the similarity matrix is generated by aggregating the plurality of similarity measures over the frequency band, the frequency band comprising the plurality of frequency bins, wherein each row and column in the similarity matrix corresponds to a time instant of the received time instants; and performing blind source separation of the mixed audio by processing the audio signals based on the similarity matrix comprising: performing clustering using the generated similarity matrix, the clustering indicating for which time segments a particular cluster is active, the cluster corresponding to a source of sound at the location. receiving time instants of audio signals associated with the mixed audio, the time instants of audio signals comprising observation vectors of audio signals at different time instants generated by a set of microphones at a location; determining a distortion measure between frequency components of at least some of the received time instants of audio signals; determining a plurality of similarity measures for the frequency components using the determined distortion measure, the plurality of similarity measures measuring a similarity of the audio signals at different time instants for a frequency bin of a plurality of frequency bins; generating a similarity matrix for a frequency band based on the plurality of similarity measures, wherein an entry of the similarity matrix is generated by aggregating the plurality of similarity measures over the frequency band, the frequency band comprising the plurality of frequency bins, wherein each row and column in the similarity matrix corresponds to a time instant of the received time instants; and performing blind source separation of the mixed audio by processing the audio signals based on the similarity matrix comprising: performing clustering using the generated similarity matrix, the clustering indicating for which time segments a particular cluster is active, the cluster corresponding to a source of sound at the location. performing clustering using the generated similarity matrix, the clustering indicating for which time segments a particular cluster is active, the cluster corresponding to a source of sound at the location.
An imaging device comprising: an imaging optical system (20, 22) configured to continuously capture a plurality of images of an object; a sensor configured to detect a tilt of the imaging device with respect to a reference direction; and a processor configured to set a fixed amount of correction to be commonly applied to the plurality of images, based on the detected tilt; and correct the tilt of each of the plurality of images using the fixed amount of correction, wherein the processor is further configured to set a fixed-correction mode, and wherein the processor sets the fixed-correction mode, according to a selection of a shooting mode of the plurality of images and determines the fixed amount of correction based on at least one tilt value detected by the sensor at a time of capturing at least one of a first image, a last image, and an intermediate image captured between the first image and the last image, among the plurality of images, characterized in that the processor sets the fixed-correction mode when the selected shooting mode is a shooting mode in which a viewpoint is made stationary, and the processor sets a follow-up correction mode in which an amount of correction is dynamically set based on the detected tilt when the selected shooting mode is a shooting mode in which the viewpoint is presumed to be shifted. an imaging optical system (20, 22) configured to continuously capture a plurality of images of an object; a sensor configured to detect a tilt of the imaging device with respect to a reference direction; and a processor configured to set a fixed amount of correction to be commonly applied to the plurality of images, based on the detected tilt; and correct the tilt of each of the plurality of images using the fixed amount of correction, wherein the processor is further configured to set a fixed-correction mode, and wherein the processor sets the fixed-correction mode, according to a selection of a shooting mode of the plurality of images and determines the fixed amount of correction based on at least one tilt value detected by the sensor at a time of capturing at least one of a first image, a last image, and an intermediate image captured between the first image and the last image, among the plurality of images, characterized in that the processor sets the fixed-correction mode when the selected shooting mode is a shooting mode in which a viewpoint is made stationary, and the processor sets a follow-up correction mode in which an amount of correction is dynamically set based on the detected tilt when the selected shooting mode is a shooting mode in which the viewpoint is presumed to be shifted.
An information transmission method applied to a user equipment, UE, comprising: when collision between scheduling request, SR, information to be transmitted by the UE and information on physical uplink control channel, PUCCH, occurs, transmitting the SR information and the information on the PUCCH; wherein that the transmitting the SR information and the information on the PUCCH, comprises: performing phase rotation on a symbol at a demodulation reference signal, DMRS, position of the PUCCH, which is closest to a subsequent appearance position of the SR information; using the phase-rotated symbol at the DMRS position to carry the SR information; transmitting the information on the PUCCH, and simultaneously transmitting the SR information carried by the phase-rotated symbol at the DMRS position. when collision between scheduling request, SR, information to be transmitted by the UE and information on physical uplink control channel, PUCCH, occurs, transmitting the SR information and the information on the PUCCH; wherein that the transmitting the SR information and the information on the PUCCH, comprises: performing phase rotation on a symbol at a demodulation reference signal, DMRS, position of the PUCCH, which is closest to a subsequent appearance position of the SR information; using the phase-rotated symbol at the DMRS position to carry the SR information; transmitting the information on the PUCCH, and simultaneously transmitting the SR information carried by the phase-rotated symbol at the DMRS position. performing phase rotation on a symbol at a demodulation reference signal, DMRS, position of the PUCCH, which is closest to a subsequent appearance position of the SR information; using the phase-rotated symbol at the DMRS position to carry the SR information; transmitting the information on the PUCCH, and simultaneously transmitting the SR information carried by the phase-rotated symbol at the DMRS position.
A biocompatible scaffold system for filling a tissue gap of a tissue, the tissue gap extending between first and second anatomical regions of the tissue, the biocompatible scaffold system comprising: a scaffold including a plurality of interconnected porous modules each comprising a biodegradable polymer module material; the scaffold being characterized by a porous scaffold rack comprising a biodegradable polymer rack material, the porous scaffold rack configured to span the tissue gap between the first and second anatomical regions; and, a plurality of screws configured to attach the scaffold to the tissue. a scaffold including a plurality of interconnected porous modules each comprising a biodegradable polymer module material; the scaffold being characterized by a porous scaffold rack comprising a biodegradable polymer rack material, the porous scaffold rack configured to span the tissue gap between the first and second anatomical regions; and, a plurality of screws configured to attach the scaffold to the tissue.
A WiFi/WiMAX (WiWi) device, comprising: a WiMAX transceiver (108, 400); and a WiFi transceiver (110, 600), wherein the WiMAX transceiver comprises: a WiMAX radio frequency integrated circuit (RFIC); and a first RF analog front end, coupled to the WiMAX RFIC, wherein the first RF analog front end comprises: a WiMAX transmit path, including a first WiFi notch filter and a first power amplifier, the first WiFi notch filter placed before the first PA in the WiMAX transmit path; and first and second WiMAX receive paths (402a, 402b), each including a roofing filter (408a, 408b), a first low-noise amplifier (310a, 310b) and a second WiFi notch filter (406a, 406b), the roofing filter placed before the first LNA and the second WiFi notch filter placed after the first LNA in the first and second receive paths, wherein the roofing filter is a high-pass filter configured to pass signals having frequency content in a WiFi band and to protect the first LNA from saturating signals having frequency content below the WiFi band, and wherein the first and second WiFi notch filters are configured to notch out signals having frequency content in the WiFi band. a WiMAX transceiver (108, 400); and a WiFi transceiver (110, 600), wherein the WiMAX transceiver comprises: a WiMAX radio frequency integrated circuit (RFIC); and a first RF analog front end, coupled to the WiMAX RFIC, wherein the first RF analog front end comprises: a WiMAX transmit path, including a first WiFi notch filter and a first power amplifier, the first WiFi notch filter placed before the first PA in the WiMAX transmit path; and a WiMAX radio frequency integrated circuit (RFIC); and a first RF analog front end, coupled to the WiMAX RFIC, wherein the first RF analog front end comprises: a WiMAX transmit path, including a first WiFi notch filter and a first power amplifier, the first WiFi notch filter placed before the first PA in the WiMAX transmit path; and a WiMAX transmit path, including a first WiFi notch filter and a first power amplifier, the first WiFi notch filter placed before the first PA in the WiMAX transmit path; and first and second WiMAX receive paths (402a, 402b), each including a roofing filter (408a, 408b), a first low-noise amplifier (310a, 310b) and a second WiFi notch filter (406a, 406b), the roofing filter placed before the first LNA and the second WiFi notch filter placed after the first LNA in the first and second receive paths, wherein the roofing filter is a high-pass filter configured to pass signals having frequency content in a WiFi band and to protect the first LNA from saturating signals having frequency content below the WiFi band, and wherein the first and second WiFi notch filters are configured to notch out signals having frequency content in the WiFi band.
Method for managing access to a set of resources delivered by an electronic device (2.3), the said device being controlled by embedded software stored in rewritable nonvolatile memory, comprising the following steps executed by the said device: - a step (3.1) of receiving a request emitted by a local client (2.1) connected to the said device for a resource managed by the said device; - a step (3.2) of evaluating the static or dynamic nature of the said resource by a selective redirection module (2.4) within the said device, the static resources being data managed by a remote server (2.7) of resources which is accessible by the said device, the dynamic resources comprising data produced by the electronic device; - a step (3.3, 3.4) of redirecting the said request as a function of the result of the evaluation of the said criterion to a local server (2.5) of resources when the resource is dynamic or to the remote server (2.7) when the resource is static; - a step (3.7) of emitting to the local client the response made by the server to which the request was directed. - a step (3.1) of receiving a request emitted by a local client (2.1) connected to the said device for a resource managed by the said device; - a step (3.2) of evaluating the static or dynamic nature of the said resource by a selective redirection module (2.4) within the said device, the static resources being data managed by a remote server (2.7) of resources which is accessible by the said device, the dynamic resources comprising data produced by the electronic device; - a step (3.3, 3.4) of redirecting the said request as a function of the result of the evaluation of the said criterion to a local server (2.5) of resources when the resource is dynamic or to the remote server (2.7) when the resource is static; - a step (3.7) of emitting to the local client the response made by the server to which the request was directed.
A window comprising: a plurality of transparent substrates spaced apart from each other in a thickness direction; a light transmittance-adjusting layer on a surface of at least one of the plurality of transparent substrates and having a thermochromic or thermotropic characteristic; and a circulator configured to circulate a heat transfer medium in a space between the plurality of transparent substrates for changing a light transmittance of the light transmittance-adjusting layer. a plurality of transparent substrates spaced apart from each other in a thickness direction; a light transmittance-adjusting layer on a surface of at least one of the plurality of transparent substrates and having a thermochromic or thermotropic characteristic; and a circulator configured to circulate a heat transfer medium in a space between the plurality of transparent substrates for changing a light transmittance of the light transmittance-adjusting layer.
A process for manufacturing reservoir-type microcapsules, containing a lipophilic active principle in a shell based on at least two covalently bonded polymers forming the wall of said microcapsules, the process comprising the following steps: (i) addition to a lipophilic phase, containing at least one active principle, of at least one silane and/or silicate monomer or oligomer, at least one melamine resin and at least one isocyanate, to form a mixture A, (ii) dispersion with stirring of the mixture A obtained in step (i) in an aqueous continuous phase B at acidic pH containing at least one gelatin and/or at least one water-soluble plant protein, and at least one polyacid, so as to form, by complex coacervation, an emulsion or a dispersion of droplets of oil-in-water type, enveloped by a coacervate, and to initiate the formation of a first silicone/melamine/polyurethane copolymer enclosing said active principle, (iii) optional introduction of a protective colloid such as a cellulose derivative into the aqueous continuous phase containing the dispersion of droplets, (iv) addition, to the dispersion of droplets, at a temperature of less than or equal to 10°C, of at least one coacervate-crosslinking agent, enabling the co-crosslinking, at the interface of said droplets, of the gelatin-based and/or plant protein-based coacervate with the first silicone/melamine/polyurethane copolymer undergoing formation, leading to co-crosslinked polymers constituting the wall of said microcapsules and enclosing said active principle, (v) production of an aqueous suspension of microcapsules enclosing the lipophilic active principle. (i) addition to a lipophilic phase, containing at least one active principle, of at least one silane and/or silicate monomer or oligomer, at least one melamine resin and at least one isocyanate, to form a mixture A, (ii) dispersion with stirring of the mixture A obtained in step (i) in an aqueous continuous phase B at acidic pH containing at least one gelatin and/or at least one water-soluble plant protein, and at least one polyacid, so as to form, by complex coacervation, an emulsion or a dispersion of droplets of oil-in-water type, enveloped by a coacervate, and to initiate the formation of a first silicone/melamine/polyurethane copolymer enclosing said active principle, (iii) optional introduction of a protective colloid such as a cellulose derivative into the aqueous continuous phase containing the dispersion of droplets, (iv) addition, to the dispersion of droplets, at a temperature of less than or equal to 10°C, of at least one coacervate-crosslinking agent, enabling the co-crosslinking, at the interface of said droplets, of the gelatin-based and/or plant protein-based coacervate with the first silicone/melamine/polyurethane copolymer undergoing formation, leading to co-crosslinked polymers constituting the wall of said microcapsules and enclosing said active principle, (v) production of an aqueous suspension of microcapsules enclosing the lipophilic active principle.
Net drawing-in device, having a filling form, into which a quantity of meat can be placed together with a net in which it is to be wrapped and to which a conveyor member is assigned, with a net tube the outside peripheral surface of which is furnished with pleated net material, of which the outlet opening farthest from the filling form can be closed by the net material, and of which the inlet opening closest to the filling form allows the quantity of meat placed in the filling form to pass through into the net tube by the action of the conveyor member on the filling form side, said quantity of meat being movable through said net tube until it reaches the outlet opening on the side farthest from the filling form, where the quantity of meat upon exiting the outlet opening of the net tube on the side farthest from the filling form can be encased with a net from the net material which is pleated on the outside peripheral surface of the net tube and which closes off the outlet opening thereof farthest from the filling form, and a with a film tube that is arranged coaxially inside the net tube, the outer peripheral surface of which is furnished with a collagen film, and of which the outlet opening farthest from the filling form is closable by the collagen film, and through whose inlet opening closest to the filling form the quantity of meat placed in the filling form can be moved by the action of the conveyor member on the filling form side into the film tube and through said film tube as far as the outlet opening on the of the film tube on the side farthest from the filling form arranged in or close to the outlet opening of the net tube farthest from the filling form, where the quantity of meat upon exiting the outlet opening of the film tube on the side farthest from the filling form can be encased with a casing from the collagen film which is arranged on the outside peripheral surface of the film tube and which closes the outlet opening thereof farthest from the filling form, which is arranged between the quantity of meat and the net surrounding the quantity of meat, characterised by a collagen top piece which is disposed between the filling form and the inlet opening of the net tube closest to the filling form, and through which the film tube extends, on the outside of which facing away from the filling form the inlet opening of the net tube closest to the filling form is disposed, and in or on which a collagen film roll from which the collagen film can be unrolled, and a deflection device are disposed, by means of which the collagen film unrolled from the collagen film roll can be introduced into an encircling space between the outside peripheral surface of the film tube and the inside peripheral surface of the net tube in such manner that the film tube can be completely encased by the collagen film on the outside peripheral surface thereof.
A drinks preparation machine for preparing a drink from a portion capsule, comprising - a brewing chamber for inserting the portion capsule, - a water container, - a pump, - and a water heating means ∘ wherein water which is contained in the water container is heatable and can be delivered into the brewing chamber by way of the pump and the water heating means; - a drinks outlet, from which the drink which is brewed in the brewing chamber from the heated water gets into a drinks vessel which is placed therebelow, - a removable capture container which is open to the top and which in an initial position is arranged below the brewing chamber and is configured for receiving spent portion capsules which are ejected from the brewing chamber, characterised in that the capture container is liquid-tight and is movable between the initial position and a liquid-receiving position, in which it is arranged below the drinks outlet in a positionally stable manner. - a brewing chamber for inserting the portion capsule, - a water container, - a pump, - and a water heating means ∘ wherein water which is contained in the water container is heatable and can be delivered into the brewing chamber by way of the pump and the water heating means; ∘ wherein water which is contained in the water container is heatable and can be delivered into the brewing chamber by way of the pump and the water heating means; - a drinks outlet, from which the drink which is brewed in the brewing chamber from the heated water gets into a drinks vessel which is placed therebelow, - a removable capture container which is open to the top and which in an initial position is arranged below the brewing chamber and is configured for receiving spent portion capsules which are ejected from the brewing chamber, characterised in that
A polymer, comprising ethylene and at least one alpha olefin having from 4 to 20 carbon atoms, wherein the polymer has: a melt index ratio greater than 40; a value for Mwl/Mw2 of at least 2.0, wherein Mwl/Mw2 is a ratio of a weight average molecular weight (Mw) for a first half of a temperature rising elution (TREF) curve from a cross-fractionation analysis to a Mw for a second half of the TREF curve; and a value for Tw1 - Tw2 of less than -15°C, wherein Tw1 - Tw2 is a difference of a weight average elution temperature (Tw) for the first half of the TREF curve to a Tw for the second half of the TREF curve, wherein the polymer comprises a polymer chain formed by a catalyst system comprising bis(n-butyl, methyl cyclopentadienyl) zirconium (CH 3) 2, bis(1-ethylindenyl) zirconium (CH 3) 2, or any one of the compounds represented by the following formulas: or wherein R 1 and R 2 are each, independently, methyl, chloro, fluoro, or a hydrocarbyl group and wherein the catalyst system comprises two catalysts. a melt index ratio greater than 40; a value for Mwl/Mw2 of at least 2.0, wherein Mwl/Mw2 is a ratio of a weight average molecular weight (Mw) for a first half of a temperature rising elution (TREF) curve from a cross-fractionation analysis to a Mw for a second half of the TREF curve; and a value for Tw1 - Tw2 of less than -15°C, wherein Tw1 - Tw2 is a difference of a weight average elution temperature (Tw) for the first half of the TREF curve to a Tw for the second half of the TREF curve, wherein the polymer comprises a polymer chain formed by a catalyst system comprising bis(n-butyl, methyl cyclopentadienyl) zirconium (CH 3) 2, bis(1-ethylindenyl) zirconium (CH 3) 2, or any one of the compounds represented by the following formulas: or wherein R 1 and R 2 are each, independently, methyl, chloro, fluoro, or a hydrocarbyl group and wherein the catalyst system comprises two catalysts.