mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing spatially large audio objects, comprising: receiving audio data comprising audio objects, the audio objects comprising audio object signals and associated metadata, the metadata including at least audio object size data and audio object position data; determining, based on the audio object size data, a large audio object having an audio object size that is greater than a threshold size and other audio objects that have a size below a threshold value; performing a decorrelation process on audio signals of the large audio object to produce a plurality of decorrelated large audio object audio signals ; and associating the decorrelated large audio object audio signals with locations corresponding to the audio object position data of the other audio objects, wherein the associating process further includes: mixing the decorrelated large audio object audio signals with at least some of the audio signals correspond to the other audio objects, thereby producing mixed audio signals; and outputting audio data including the mixed audio signals; and wherein the method further comprises applying a data compression to the audio data output from the association process. receiving audio data comprising audio objects, the audio objects comprising audio object signals and associated metadata, the metadata including at least audio object size data and audio object position data; determining, based on the audio object size data, a large audio object having an audio object size that is greater than a threshold size and other audio objects that have a size below a threshold value; performing a decorrelation process on audio signals of the large audio object to produce a plurality of decorrelated large audio object audio signals ; and associating the decorrelated large audio object audio signals with locations corresponding to the audio object position data of the other audio objects, wherein the associating process further includes: mixing the decorrelated large audio object audio signals with at least some of the audio signals correspond to the other audio objects, thereby producing mixed audio signals; and outputting audio data including the mixed audio signals; and wherein the method further comprises applying a data compression to the audio data output from the association process. mixing the decorrelated large audio object audio signals with at least some of the audio signals correspond to the other audio objects, thereby producing mixed audio signals; and outputting audio data including the mixed audio signals; and wherein the method further comprises applying a data compression to the audio data output from the association process.
A joint structure for connecting a first element and a second element included in a manipulator (RM) for a robot (R), the joint structure comprising: a Stewart platform configured to control at least one of a position or an angle of the second element relative to the first element , the Stewart platform including a first member to be joined to the first element , a second member to be joined to the second element , a plurality of legs connecting the first member and the second member , a driver configured to change an effective length of each of the plurality of legs to change at least one of a position or an angle of the second member relative to the first member , and a soft structure configured to elastically change the effective length of each of the plurality of legs in response to an external force applied to the second member and to restore the effective length of each of the plurality of legs in response to the external force being removed, characterized in that each of the plurality of legs includes a rod (131; 50) slidably supported by a support (111; 51), the rod (131; 50) being configured to slide to change the effective length of the leg , and the driver includes a wire-shaped member being flexible and attached to the rod (131; 50), and an elastic member elastically deformable in response to the wire-shaped member being pulled and the rod (131; 50) being slid, the elastic member being configured to generate an elastic restoring force against a pulling force on the wire-shaped member . a Stewart platform configured to control at least one of a position or an angle of the second element relative to the first element , the Stewart platform including a first member to be joined to the first element , a second member to be joined to the second element , a plurality of legs connecting the first member and the second member , a driver configured to change an effective length of each of the plurality of legs to change at least one of a position or an angle of the second member relative to the first member , and a soft structure configured to elastically change the effective length of each of the plurality of legs in response to an external force applied to the second member and to restore the effective length of each of the plurality of legs in response to the external force being removed, characterized in that each of the plurality of legs includes a rod (131; 50) slidably supported by a support (111; 51), the rod (131; 50) being configured to slide to change the effective length of the leg , and the driver includes a wire-shaped member being flexible and attached to the rod (131; 50), and an elastic member elastically deformable in response to the wire-shaped member being pulled and the rod (131; 50) being slid, the elastic member being configured to generate an elastic restoring force against a pulling force on the wire-shaped member .
A cable guiding assembly comprising: a central part having a top surface , a bottom surface , a laterally inner surface and a laterally outer surface , the laterally inner surface having a plurality of central recesses forming central openings suitable for receiving a wind turbine power cable ; an outer part surrounding the central part and having a top surface , a bottom surface , a laterally inner surface and a laterally outer surface , the laterally inner surface having a plurality of outer recesses forming outer openings suitable for receiving a wind turbine power cable , wherein an outer portion of the central part is configured to be attached to an inner portion of the outer part , such that the central part delimits the outer openings characterized in that the cable guiding assembly further comprises an inner part configured to be attached to an inner portion of the central part such that the inner part delimits the central openings . a central part having a top surface , a bottom surface , a laterally inner surface and a laterally outer surface , the laterally inner surface having a plurality of central recesses forming central openings suitable for receiving a wind turbine power cable ; an outer part surrounding the central part and having a top surface , a bottom surface , a laterally inner surface and a laterally outer surface , the laterally inner surface having a plurality of outer recesses forming outer openings suitable for receiving a wind turbine power cable , wherein an outer portion of the central part is configured to be attached to an inner portion of the outer part , such that the central part delimits the outer openings characterized in that the cable guiding assembly further comprises an inner part configured to be attached to an inner portion of the central part such that the inner part delimits the central openings .
A separator for an electrochemical element that is disposed between a pair of electrodes and is for separating the two electrodes from each other and retaining an electrolytic solution, wherein the separator contains a cellulose-based fiber, and characterised in that the limiting viscosity of the separator as measured by the measurement method specified in JIS P 8215 is in the range of 150 to 500 ml/g.
A single input aircraft engine and propeller control system comprising: a fuel control interface configured to produce a first mechanical signal corresponding to a specific amount of fuel to be fed to an engine to produce a specific amount of horsepower, the specific amount of horsepower having a corresponding RPM setting for a propeller coupled to the engine, the RPM setting corresponding to a maximum fuel efficiency; a single input engine controller coupled to the fuel control interface , the single input engine controller being configured to: receive the first mechanical signal, translate the first mechanical signal into a second mechanical signal indicative of the RPM setting corresponding to the specific amount of horsepower, and output a third mechanical signal indicative of the specific amount of fuel in response to the first mechanical signal; a fuel distribution system coupled to the single input engine controller , the fuel distribution system being configured to: receive the third mechanical signal, and feed the specific amount of fuel to the engine in response to the third mechanical signal; and a propeller RPM controller coupled to the single input engine controller , the propeller RPM controller being configured to: receive the second mechanical signal, and set the RPM of the propeller to the corresponding RPM setting in response to the second mechanical signal; wherein the first mechanical signal is transferred into the third mechanical signal using a first ratio, and the third mechanical signal is transferred back at a second ratio that is the reverse of the first ratio. a fuel control interface configured to produce a first mechanical signal corresponding to a specific amount of fuel to be fed to an engine to produce a specific amount of horsepower, the specific amount of horsepower having a corresponding RPM setting for a propeller coupled to the engine, the RPM setting corresponding to a maximum fuel efficiency; a single input engine controller coupled to the fuel control interface , the single input engine controller being configured to: receive the first mechanical signal, translate the first mechanical signal into a second mechanical signal indicative of the RPM setting corresponding to the specific amount of horsepower, and output a third mechanical signal indicative of the specific amount of fuel in response to the first mechanical signal; a fuel distribution system coupled to the single input engine controller , the fuel distribution system being configured to: receive the third mechanical signal, and feed the specific amount of fuel to the engine in response to the third mechanical signal; and a propeller RPM controller coupled to the single input engine controller , the propeller RPM controller being configured to: receive the second mechanical signal, and set the RPM of the propeller to the corresponding RPM setting in response to the second mechanical signal; wherein the first mechanical signal is transferred into the third mechanical signal using a first ratio, and the third mechanical signal is transferred back at a second ratio that is the reverse of the first ratio.
Cutting machine for cutting a material to be cut into slices with - at least one guide tube running in the longitudinal direction with at least one guide tube opening (1.1, 1.2) open at each end face for receiving the material to be cut , - a blade which is positioned in the longitudinal direction directly at the cutting end face of the guide tube , - at least one holding magnet in or at the guide tube positioned in the longitudinal direction near the front, cutting end face of the guide tube , which pulls the blade into contact with the front end face of the guide tube , characterised in that in the penetration direction of the blade into the guide tube cross-section (1.1', 1.2') the at least one holding magnet is arranged only near the outlet side of the guide tube cross-section (1.1', 1.2'). - at least one guide tube running in the longitudinal direction with at least one guide tube opening (1.1, 1.2) open at each end face for receiving the material to be cut , - a blade which is positioned in the longitudinal direction directly at the cutting end face of the guide tube , - at least one holding magnet in or at the guide tube positioned in the longitudinal direction near the front, cutting end face of the guide tube , which pulls the blade into contact with the front end face of the guide tube ,
A composition for depositing a silicon nitride or silicon oxide film, the composition comprising: at least one silicon precursor compound having the following Formula IIA: wherein substituent R is independently selected from a hydrogen, a halide atom, a linear C 1 to C 10 alkyl group; a branched C 3 to C 10 alkyl group; a linear or branched C 3 to C 12 alkenyl group; a linear or branched C 3 to C 12 alkynyl group; a C 4 to C 10 cyclic alkyl group; and a C 6 to C 10 aryl group.
A brush unit, with a brush holder that can be driven in rotation and a ring brush with a bristle ring with bristles projecting outwards, and with a stop means dipping into the rotating bristle ring , characterised in that the stop means constituted non-round in cross section is constituted rotatable about its longitudinal axis .
A joint lock comprising a lock body , which has a housing that accommodates a locking mechanism , and a jointed bar hoop which has a plurality of jointed bars pivotably connected to one another and a locking bar , wherein the locking bar can be selectively locked to the lock body by means of the locking mechanism , wherein the locking mechanism is at least partly held in a holder which is fixed in the housing by means of a latch connection, characterized in that the housing has at least one edge to which the holder is fixed by means of at least one latch nose .
A system for measuring analyte presence on a graphene varactor by evaluating capacitance across a range of DC bias voltages, comprising: - a capacitance to digital converter (CDC) ; - a plurality of graphene varactors ; and - a controller circuit configured to receive an electrical signal reflecting the capacitance of the plurality of graphene varactors at a plurality of DC bias voltages; wherein the CDC is in electrical communication with the plurality of graphene varactors and is configured to measure the capacitance of the graphene varactors in response to an excitation signal over the range of DC bias voltages, wherein the measured capacitance across the range of DC bias voltages forms part of a pattern for a given sample; wherein the controller circuit is configured to record the measured capacitance values across the range of DC bias voltages; further comprising a switch and two programmable digital to analog converters (DACs) , the CDC being in electrical communication with the switch and controlling the switch to selectively provide communication with output voltages of the two programmable digital to analog converters (DACs) , the DACs being in series with the graphene varactors. - a capacitance to digital converter (CDC) ; - a plurality of graphene varactors ; and - a controller circuit configured to receive an electrical signal reflecting the capacitance of the plurality of graphene varactors at a plurality of DC bias voltages; wherein the controller circuit is configured to record the measured capacitance values across the range of DC bias voltages; further comprising a switch and two programmable digital to analog converters (DACs) , the CDC being in electrical communication with the switch and controlling the switch to selectively provide communication with output voltages of the two programmable digital to analog converters (DACs) , the DACs being in series with the graphene varactors.
Packaging paper having barrier properties particularly with respect to oily and greasing materials, made from a base paper having a basis weight of between 15 g/m 2 and 500 g/m 2 and a porosity of greater than 150 Gurley-s according to ISO 5636/5:2013, with a pulp mix consisting of a fraction of 0 to 70% long fibres and 30 to 100% short fibres, with an ash fraction according to DIN 54370:2007 of less than 15%, and with an auxiliary, characterized in that the paper on at least one surface has a barrier layer formed at least of a nanoscale cationic potato starch as film former and/or a nanoscale modified corn starch as film former, a platelet-shaped pigment having an aspect ratio of greater than 1:20, preferably of greater than 1:40, more particularly of 1:80, and an anionic surface hydrophobizing agent as surface sizing agent. having a basis weight of between 15 g/m 2 and 500 g/m 2 and a porosity of greater than 150 Gurley-s according to ISO 5636/5:2013, with a pulp mix consisting of a fraction of 0 to 70% long fibres and 30 to 100% short fibres, with an ash fraction according to DIN 54370:2007 of less than 15%, and with an auxiliary, characterized in that the paper on at least one surface has a barrier layer formed at least of a nanoscale cationic potato starch as film former and/or a nanoscale modified corn starch as film former, a platelet-shaped pigment having an aspect ratio of greater than 1:20, preferably of greater than 1:40, more particularly of 1:80, and an anionic surface hydrophobizing agent as surface sizing agent.
A method for fetal diagnosis comprising: splitting by binning one or more fetal cells enriched from maternal blood such that each individual fetal cell is in a discrete addressable location, wherein each location contains 0 or 1 fetal cell, wherein said binning is performed using a number of bins greater than 100; amplifying a plurality of genomic DNA regions from the one or more fetal cells in the addressable locations, wherein the resulting amplicons comprise a cell-specific label; and determining the presence or absence of a fetal abnormality by analyzing said amplicons. splitting by binning one or more fetal cells enriched from maternal blood such that each individual fetal cell is in a discrete addressable location, wherein each location contains 0 or 1 fetal cell, wherein said binning is performed using a number of bins greater than 100; amplifying a plurality of genomic DNA regions from the one or more fetal cells in the addressable locations, wherein the resulting amplicons comprise a cell-specific label; and determining the presence or absence of a fetal abnormality by analyzing said amplicons.
A process for manufacturing ceramic-metal composite material, the method comprising obtaining an aqueous solution of Li 2 MoO 4 or other ceramic by dissolving Li 2 MoO 4 powder or other ceramic powder into water; obtaining a powder containing Li 2 MoO 4 or said other ceramic precipitated on a surface of metal particles by mixing metal powder with the aqueous solution of Li 2 MoO 4 or said other ceramic, the metal powder having a multimodal particle size where largest particle size is above 50 μm and less than 180 μm; obtaining a powder mixture by mixing the powder containing Li 2 MoO 4 or said other ceramic precipitated on the surface of the metal particles, with Li 2 MoO 4 or said other ceramic powder having a particle size below 50 μm; obtaining an aqueous composition containing Li 2 MoO 4 or said other ceramic, and metal, by adding saturated aqueous solution of Li 2 MoO 4 or said other ceramic to the powder mixture; forming a disc of ceramic-metal composite material containing Li 2 MoO 4 said other ceramic, and metal, by compressing the aqueous composition in a mould; removing water from the ceramic-metal composite material by drying the disc; wherein the content of Li 2 MoO 4 or said other ceramic is at least 10 vol-% in the disc, and wherein the content of said metal is above 65 vol-% in the disc. obtaining an aqueous solution of Li 2 MoO 4 or other ceramic by dissolving Li 2 MoO 4 powder or other ceramic powder into water; obtaining a powder containing Li 2 MoO 4 or said other ceramic precipitated on a surface of metal particles by mixing metal powder with the aqueous solution of Li 2 MoO 4 or said other ceramic, the metal powder having a multimodal particle size where largest particle size is above 50 μm and less than 180 μm; obtaining a powder mixture by mixing the powder containing Li 2 MoO 4 or said other ceramic precipitated on the surface of the metal particles, with Li 2 MoO 4 or said other ceramic powder having a particle size below 50 μm; obtaining an aqueous composition containing Li 2 MoO 4 or said other ceramic, and metal, by adding saturated aqueous solution of Li 2 MoO 4 or said other ceramic to the powder mixture; forming a disc of ceramic-metal composite material containing Li 2 MoO 4 said other ceramic, and metal, by compressing the aqueous composition in a mould; removing water from the ceramic-metal composite material by drying the disc; wherein the content of Li 2 MoO 4 or said other ceramic is at least 10 vol-% in the disc, and wherein the content of said metal is above 65 vol-% in the disc.
Control facility for a hoisting gear , having a kinematic transformation , wherein a spatial position of a body and an orientation position of the body is provided for transformation, wherein a plurality of electrical drives can be actuated, wherein the hoisting gear is overdetermined for a movement of the body by the hoisting gear , characterised in that the control facility has a rope force computer .
An aerosol generating article comprising: a combustible heat source having a longitudinal outer surface; an aerosol-forming substrate downstream of the combustible heat source ; and a retaining wrap comprising: an upstream portion extending at least about 50 percent of the way along the length of the combustible heat source on the longitudinal outer surface of the combustible heat source , and comprising at least one opening , the at least one opening overlaying at least about 30 percent of the longitudinal outer surface of the combustible heat source , and a downstream portion circumscribing at least a portion of the aerosol-forming substrate . a combustible heat source having a longitudinal outer surface; an aerosol-forming substrate downstream of the combustible heat source ; and a retaining wrap comprising: an upstream portion extending at least about 50 percent of the way along the length of the combustible heat source on the longitudinal outer surface of the combustible heat source , and comprising at least one opening , the at least one opening overlaying at least about 30 percent of the longitudinal outer surface of the combustible heat source , and a downstream portion circumscribing at least a portion of the aerosol-forming substrate . an upstream portion extending at least about 50 percent of the way along the length of the combustible heat source on the longitudinal outer surface of the combustible heat source , and comprising at least one opening , the at least one opening overlaying at least about 30 percent of the longitudinal outer surface of the combustible heat source , and a downstream portion circumscribing at least a portion of the aerosol-forming substrate .