mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing apparatus characterised by comprising: an acquisition unit configured to acquire low accuracy quantized position information having a first quantized accuracy and indicating a position of an audio object within a space where a listener is located, determine, based on listener position information indicating a position of the listener, whether the position of the audio object indicated by the low accuracy quantized position information has sufficient quantized accuracy, and if the quantized accuracy is insufficient, request additional information from a server for obtaining higher accuracy quantized position information indicating the position of the audio object with a second quantized accuracy higher than the first quantized accuracy, wherein the additional information is difference information between the low accuracy quantized position information and the higher accuracy quantized position information; and a position information calculation unit configured to obtain the higher accuracy quantized position information based on the low accuracy quantized position information and the additional information. an acquisition unit configured to acquire low accuracy quantized position information having a first quantized accuracy and indicating a position of an audio object within a space where a listener is located, determine, based on listener position information indicating a position of the listener, whether the position of the audio object indicated by the low accuracy quantized position information has sufficient quantized accuracy, and if the quantized accuracy is insufficient, request additional information from a server for obtaining higher accuracy quantized position information indicating the position of the audio object with a second quantized accuracy higher than the first quantized accuracy, wherein the additional information is difference information between the low accuracy quantized position information and the higher accuracy quantized position information; and acquire low accuracy quantized position information having a first quantized accuracy and indicating a position of an audio object within a space where a listener is located, determine, based on listener position information indicating a position of the listener, whether the position of the audio object indicated by the low accuracy quantized position information has sufficient quantized accuracy, and if the quantized accuracy is insufficient, request additional information from a server for obtaining higher accuracy quantized position information indicating the position of the audio object with a second quantized accuracy higher than the first quantized accuracy, wherein the additional information is difference information between the low accuracy quantized position information and the higher accuracy quantized position information; and a position information calculation unit configured to obtain the higher accuracy quantized position information based on the low accuracy quantized position information and the additional information.
A method for adapting content based on a detected heart rate, the method comprising: presenting first content on a display device; obtaining motion data from an inertial measurement device , the motion data representing changes in angle and position for current time blocks relative to prior time blocks; filtering the motion data by applying a smoothing function to the motion data to generate smoothed motion data; additionally filtering the smoothed motion data to remove movements determined to be related to breathing to generate filtered smoothed motion data; identifying a heart beat by identifying a window in the filtered smoothed motion data in which the changes in angle and/or position are within a predefined expected range for a heart beat; identifying a heart rate based on the identified heart beat; and presenting second content on the display device responsive to the identified heart rate falling within a predefined heart rate range. presenting first content on a display device; obtaining motion data from an inertial measurement device , the motion data representing changes in angle and position for current time blocks relative to prior time blocks; filtering the motion data by applying a smoothing function to the motion data to generate smoothed motion data; additionally filtering the smoothed motion data to remove movements determined to be related to breathing to generate filtered smoothed motion data; identifying a heart beat by identifying a window in the filtered smoothed motion data in which the changes in angle and/or position are within a predefined expected range for a heart beat; identifying a heart rate based on the identified heart beat; and presenting second content on the display device responsive to the identified heart rate falling within a predefined heart rate range.
An aerosol-generating apparatus comprising: a housing comprising at least one light-transmitting window configured to transmit external light to an inside of the aerosol-generating apparatus ; a heating element comprising a plurality of nanoparticles configured to generate heat in response to light through Surface Plasmon Resonance (SPR); a light source arranged inside the housing and configured to emit light toward the heating element ; a sensor configured to detect a quantity of the external light transmitted to the inside of the aerosol-generating apparatus through the at least one light-transmitting window ; and a processor configured to adjust a quantity of light received by the heating element by controlling the light source based on the detected quantity of the external light transmitted to the inside of the aerosol-generating apparatus . a housing comprising at least one light-transmitting window configured to transmit external light to an inside of the aerosol-generating apparatus ; a heating element comprising a plurality of nanoparticles configured to generate heat in response to light through Surface Plasmon Resonance (SPR); a light source arranged inside the housing and configured to emit light toward the heating element ; a sensor configured to detect a quantity of the external light transmitted to the inside of the aerosol-generating apparatus through the at least one light-transmitting window ; and a processor configured to adjust a quantity of light received by the heating element by controlling the light source based on the detected quantity of the external light transmitted to the inside of the aerosol-generating apparatus .
A torsion spring element rotatably connected to a substrate and suitable for use in micro-electro-mechanical devices, wherein the torsion spring element can be twisted relative to the substrate , as well as moved linearly relative to the substrate ; the torsion spring element is designed in one piece and comprises: a frame structure ; an anchor structure preferably arranged within the frame structure ; and spring structures connecting the anchor structure to the frame structure ; the anchor structure connects the spring structures and the frame structure to the substrate ; the frame structure , with deformation of the spring structures , moves as a whole relative to the anchor structure to produce rotational movements and linear movements of the torsion spring element relative to the substrate ; and the spring structure has at least one pairing of two bending beam springs which extend from the anchor structure at an angle not equal to 0°, characterized in that the two bending beam springs of the pairing each have a kink , converge towards each other after the kink , meet at the frame structure , and are connected to the frame structure at that point. the torsion spring element can be twisted relative to the substrate , as well as moved linearly relative to the substrate ; the torsion spring element is designed in one piece and comprises: a frame structure ; an anchor structure preferably arranged within the frame structure ; and spring structures connecting the anchor structure to the frame structure ; a frame structure ; an anchor structure preferably arranged within the frame structure ; and spring structures connecting the anchor structure to the frame structure ; the anchor structure connects the spring structures and the frame structure to the substrate ; the frame structure , with deformation of the spring structures , moves as a whole relative to the anchor structure to produce rotational movements and linear movements of the torsion spring element relative to the substrate ; and the spring structure has at least one pairing of two bending beam springs which extend from the anchor structure at an angle not equal to 0°, characterized in that the two bending beam springs of the pairing each have a kink , converge towards each other after the kink , meet at the frame structure , and are connected to the frame structure at that point.
A mixing machine for the mixing of a homogeneous mixture with one or more components to obtain a viscous mixture, comprising a mixing chamber which is divided in a push (A), a mixing (B) and a discharge zone (C), and wherein the mixing chamber comprises the following parts: - an outlet mouth ; - an outlet valve ; - several rotors integrated in the side walls of the mixing chamber ; - a self-cleaning system comprising a cleaning plate and a driving mechanism wherein the cleaning plate can move longitudinally through the mixing chamber characterised in that - the mixing chamber comprises multiple walls, consisting of one or more top plates with multiple inflow channels , one or more bottom plates and multiple side walls ; - in and out sliding push and/or mixing blades ; and in that - the rotors are equipped with transit channels for the in and out sliding push or mixing blades . - an outlet mouth ; - an outlet valve ; - several rotors integrated in the side walls of the mixing chamber ; - a self-cleaning system comprising a cleaning plate and a driving mechanism wherein the cleaning plate can move longitudinally through the mixing chamber characterised in that - the mixing chamber comprises multiple walls, consisting of one or more top plates with multiple inflow channels , one or more bottom plates and multiple side walls ; - in and out sliding push and/or mixing blades ; and in that - the rotors are equipped with transit channels for the in and out sliding push or mixing blades .
A downhole expandable metal tubular to be expanded in a well downhole from a first outer diameter (D 1 ) to a second outer diameter (D 2 ) to abut against an inner face of a casing or borehole , the downhole expandable metal tubular having an outer tubular face and a longitudinal extension (L) and comprising: - a first circumferential edge and a second circumferential edge provided in the outer tubular face and having a distance (d) along the longitudinal extension, the first circumferential edge and the second circumferential edge are part of a groove provided in the outer tubular face of the downhole expandable metal tubular, and - a circumferential sealing element arranged between the circumferential edges, characterized in that : the downhole expandable metal tubular further comprises: - a circumferential resilient element having an outer face part facing away from the outer tubular face and having an extension (E 1 , E 2 ) along the longitudinal extension, the extension of the circumferential resilient element being smaller than the distance, - a space arranged adjacent to the circumferential resilient element in the longitudinal extension, and - a first portion of the circumferential sealing element at least partly overlapping the outer face part of the circumferential resilient element , the circumferential resilient element being arranged between the portion of the circumferential sealing element and the outer tubular face, and wherein the circumferential sealing element has one or more recess(es) in which the circumferential resilient element is arranged. - a first circumferential edge and a second circumferential edge provided in the outer tubular face and having a distance (d) along the longitudinal extension, the first circumferential edge and the second circumferential edge are part of a groove provided in the outer tubular face of the downhole expandable metal tubular, and - a circumferential sealing element arranged between the circumferential edges, - a circumferential resilient element having an outer face part facing away from the outer tubular face and having an extension (E 1 , E 2 ) along the longitudinal extension, the extension of the circumferential resilient element being smaller than the distance, - a space arranged adjacent to the circumferential resilient element in the longitudinal extension, and - a first portion of the circumferential sealing element at least partly overlapping the outer face part of the circumferential resilient element , the circumferential resilient element being arranged between the portion of the circumferential sealing element and the outer tubular face, and wherein the circumferential sealing element has one or more recess(es) in which the circumferential resilient element is arranged.
A dialysis machine comprising: a microphone ; an alert module for producing an audible alert related to an operating condition of the dialysis machine; and a processing module configured for: receiving, from the microphone, information related to measured noise, wherein the measured noise is a second audible alert related to an operating condition of a second dialysis machine and wherein the information related to the second audible alert includes a measurement of a timing of the second audible alert, and; determining, based on the information related to measured noise, an audible alert that will not be masked by the measured noise when the audible alert is produced by the alert module; and providing, to the alert module, instructions for producing the audible alert, wherein the instructions cause the alert module to produce an audible alert that has a timing that is out of phase with the timing of the second audible alert. a microphone ; an alert module for producing an audible alert related to an operating condition of the dialysis machine; and a processing module configured for: receiving, from the microphone, information related to measured noise, wherein the measured noise is a second audible alert related to an operating condition of a second dialysis machine and wherein the information related to the second audible alert includes a measurement of a timing of the second audible alert, and; determining, based on the information related to measured noise, an audible alert that will not be masked by the measured noise when the audible alert is produced by the alert module; and providing, to the alert module, instructions for producing the audible alert, wherein the instructions cause the alert module to produce an audible alert that has a timing that is out of phase with the timing of the second audible alert. receiving, from the microphone, information related to measured noise, wherein the measured noise is a second audible alert related to an operating condition of a second dialysis machine and wherein the information related to the second audible alert includes a measurement of a timing of the second audible alert, and; determining, based on the information related to measured noise, an audible alert that will not be masked by the measured noise when the audible alert is produced by the alert module; and providing, to the alert module, instructions for producing the audible alert, wherein the instructions cause the alert module to produce an audible alert that has a timing that is out of phase with the timing of the second audible alert.
Coupling device for fastening an actuator to an actuating member (B), in particular a pedal (P) of a vehicle, wherein the coupling device can be connected to the actuator and can be brought into engagement with the actuating member (B), the coupling device comprises a base body on which a hook-shaped first coupling element is arranged, the first coupling element comprising a first leg projecting from a rear side (10") of the base body and a second leg extending transversely thereto, characterized in that the first leg , in the mounted state of the coupling device , is arranged lateral with respect to the actuating member (B) and the second leg is arranged behind the actuating member (B), and that the base body comprises at least one second coupling element , said second coupling element having a first leg projecting from one side of the base body and a second leg extending transversely thereto, wherein, in the mounted state, the first leg extends on the front side of the actuating member (B) and the second leg of the second coupling element extends transversely with respect to said first leg , so that the first hook-shaped coupling element and the second hook-shaped coupling element engage around the actuating member (B)in a form-fitting manner.
Polymer composition containing at least one polyolefin and at least one thermoplastic elastomer, wherein the at least one thermoplastic elastomer is a copolymer having at least one diene-based block A and at least one alpha-methylstyrene-based block B, wherein the ratio of the difference between the shrinkage of the polyolefin and the shrinkage of the polymer composition to the shrinkage of the polyolefin has at least a value of 30%, where the shrinkages are determined to DIN ISO 294-4, wherein the polymer composition contains reinforcing fibres in an amount of 10% by weight to 70% by weight, based in each case on the total weight of the polymer composition, where the reinforcing fibres comprise glass fibres configured as flat fibres. wherein the at least one thermoplastic elastomer is a copolymer having at least one diene-based block A and at least one alpha-methylstyrene-based block B, wherein the ratio of the difference between the shrinkage of the polyolefin and the shrinkage of the polymer composition to the shrinkage of the polyolefin has at least a value of 30%, where the shrinkages are determined to DIN ISO 294-4, wherein the polymer composition contains reinforcing fibres in an amount of 10% by weight to 70% by weight, based in each case on the total weight of the polymer composition, where the reinforcing fibres comprise glass fibres configured as flat fibres.
An ultraviolet radiation curable coating, comprising: a compound consisting of tetrahyrofurfuryl acrylate (THFA) (CAS # 2399-48-6) modified to an amide acrylate (ester acrylate bioisostere): and a dimer of THFA tethered by an ether linkage:
A spring device, in particular for a secondary suspension device of a rail vehicle, comprising - a spring body (120.1) substantially made of a polymeric material and defining an axial direction and a radial direction; - said spring body (120.1), in said axial direction, having a central section (120.2) located between a first end section (120.3) terminating in a first outer end surface (120.4) and a second end section (120.3) terminating in a second outer end surface (120.4); - said central section (120.2) having at least one radially waisted section (120.5); - said first end section (120.3) having a recess extending, in said axial direction, from said first outer end surface (120.4) towards said central section (120.2) such that an axial spring body cavity (120.7) is formed, said axial spring body cavity (120.7) being confined by a compliant inner surface (120.8); - an insert being inserted into said axial spring body cavity (120.7); characterized in that - said insert is a ring toroid component in contact with said inner surface (120.8) of said spring body (120.1) to modify, by said contact with said inner surface (120.8) in said first end section (120.3), a rigidity of said spring device compared to a reference state, where said insert is not inserted into said axial spring body cavity (120.7). - a spring body (120.1) substantially made of a polymeric material and defining an axial direction and a radial direction; - said spring body (120.1), in said axial direction, having a central section (120.2) located between a first end section (120.3) terminating in a first outer end surface (120.4) and a second end section (120.3) terminating in a second outer end surface (120.4); - said central section (120.2) having at least one radially waisted section (120.5); - said first end section (120.3) having a recess extending, in said axial direction, from said first outer end surface (120.4) towards said central section (120.2) such that an axial spring body cavity (120.7) is formed, said axial spring body cavity (120.7) being confined by a compliant inner surface (120.8); - an insert being inserted into said axial spring body cavity (120.7); characterized in that - said insert is a ring toroid component in contact with said inner surface (120.8) of said spring body (120.1) to modify, by said contact with said inner surface (120.8) in said first end section (120.3), a rigidity of said spring device compared to a reference state, where said insert is not inserted into said axial spring body cavity (120.7).
An ultrasound diagnostic apparatus comprising: a transducer array ; a transmission circuit configured to transmit an ultrasonic beam from the transducer array toward a subject, a reception circuit configured to process a reception signal outputted from the transducer array having received ultrasonic echoes from the subject to generate reception radio-frequency data that has undergone phasing addition, a quadrature detection section configured to perform quadrature detection on the reception radio-frequency data generated by the reception circuit to generate complex data, a frequency analyzer configured to perform a first frequency analysis using the complex data of a set number of sample points starting from a first start point and a second frequency analysis using at least one group of the complex data of the set number of sample points starting from a second start point that is different from the first start point, and to acquire a spectral signal corresponding to each pixel of a Doppler waveform image based on results of the first frequency analysis and the second frequency analysis, and a Doppler waveform image generator configured to generate the Doppler waveform image using the spectral signal, characterized in that the frequency analyzer extracts a maximum power value of respective frequency components in the results of the first frequency analysis and the second frequency analysis to thereby acquire the spectral signal corresponding to each pixel. a transducer array ; a transmission circuit configured to transmit an ultrasonic beam from the transducer array toward a subject, a reception circuit configured to process a reception signal outputted from the transducer array having received ultrasonic echoes from the subject to generate reception radio-frequency data that has undergone phasing addition, a quadrature detection section configured to perform quadrature detection on the reception radio-frequency data generated by the reception circuit to generate complex data, a frequency analyzer configured to perform a first frequency analysis using the complex data of a set number of sample points starting from a first start point and a second frequency analysis using at least one group of the complex data of the set number of sample points starting from a second start point that is different from the first start point, and to acquire a spectral signal corresponding to each pixel of a Doppler waveform image based on results of the first frequency analysis and the second frequency analysis, and a Doppler waveform image generator configured to generate the Doppler waveform image using the spectral signal, characterized in that the frequency analyzer extracts a maximum power value of respective frequency components in the results of the first frequency analysis and the second frequency analysis to thereby acquire the spectral signal corresponding to each pixel.