mhurhangee/patent-ind-claim-en huggingface dataset:
A cooking robot comprising: a cooking arm configured to perform a cooking operation for making a dish; and a control unit configured to control the cooking operation performed by the cooking arm using recipe data including a data set in which cooking operation data and cook biological data are linked, the cooking operation data describing information regarding an ingredient of the dish and information regarding an operation of a cook in a cooking process using the ingredient, and the cook biological data indicating a biological reaction of the cook measured in conjunction with a progress of the cooking process. a cooking arm configured to perform a cooking operation for making a dish; and a control unit configured to control the cooking operation performed by the cooking arm using recipe data including a data set in which cooking operation data and cook biological data are linked, the cooking operation data describing information regarding an ingredient of the dish and information regarding an operation of a cook in a cooking process using the ingredient, and the cook biological data indicating a biological reaction of the cook measured in conjunction with a progress of the cooking process.
A remote plethysmographic, PPG, method for obtaining a heart rate measurement comprising the steps of: imaging a region of interest on a subject's skin using a video camera to obtain a PPG image signal comprising periodic intensity variations in ambient light reflected from the region of interest; characterized by : imaging a reference region of interest not on the subject's skin using the same video camera to obtain a reference signal; spectrally analysing , using a processor, the reference signal using an auto-regressive, AR, all pole model and identifying poles corresponding to spectral components; spectrally analysing , using the processor, the PPG image signal using an auto-regressive (AR) all pole model to identify poles corresponding to spectral components therein and ignoring poles corresponding to those identified as spectral components of the reference signal ; and obtaining a measurement of the heart rate of the subject by identifying a pole in the PPG signal which is not present in the reference signal. imaging a reference region of interest not on the subject's skin using the same video camera to obtain a reference signal; spectrally analysing , using a processor, the reference signal using an auto-regressive, AR, all pole model and identifying poles corresponding to spectral components; spectrally analysing , using the processor, the PPG image signal using an auto-regressive (AR) all pole model to identify poles corresponding to spectral components therein and ignoring poles corresponding to those identified as spectral components of the reference signal ; and obtaining a measurement of the heart rate of the subject by identifying a pole in the PPG signal which is not present in the reference signal.
An agricultural material comprising: a cellulose acylate layer formed of cellulose acylate; and a polymer layer provided on one surface of the cellulose acylate layer, characterised in that said polymer layer having a moisture permeation resistance of at most 7.5×10 -4 m 2 ·day/g per 1 μm of thickness and being formed of a polymer different from cellulose acylate, wherein the agricultural material has a tear strength of at least 0.10 N. a cellulose acylate layer formed of cellulose acylate; and a polymer layer provided on one surface of the cellulose acylate layer, characterised in that said polymer layer having a moisture permeation resistance of at most 7.5×10 -4 m 2 ·day/g per 1 μm of thickness and being formed of a polymer different from cellulose acylate, wherein the agricultural material has a tear strength of at least 0.10 N.
Process for producing electricity, where the following successive steps are performed: a) providing a non-fermentable solid recovered fuel SRF, b) producing a crude synthesis gas from the solid recovered fuel, c) purifying said crude synthesis gas to generate a synthesis gas whose reduced concentration of tars determines a dew point of said tars of less than or equal to 20°C, said purification step comprising the injection of said crude synthesis gas into a mixing zone, in which said crude synthesis gas encounters and is mixed with at least one plasma jet and/or at least one oxidant stream, and initiation of a reaction between said synthesis gas and said at least one plasma jet and/or said at least one oxidant stream in a reaction zone placed downstream of said mixing zone to thermally crack the tars, the temperature of the synthesis gas at the outlet of said reaction zone being greater than or equal to 1100°C, d) cleaning said synthesis gas thus purified to obtain a clean synthesis gas, e) lowering the relative degree of humidity of the clean synthesis gas, f) injecting at least a portion thereof into at least one gas engine to produce electricity. a) providing a non-fermentable solid recovered fuel SRF, b) producing a crude synthesis gas from the solid recovered fuel, c) purifying said crude synthesis gas to generate a synthesis gas whose reduced concentration of tars determines a dew point of said tars of less than or equal to 20°C, said purification step comprising the injection of said crude synthesis gas into a mixing zone, in which said crude synthesis gas encounters and is mixed with at least one plasma jet and/or at least one oxidant stream, and initiation of a reaction between said synthesis gas and said at least one plasma jet and/or said at least one oxidant stream in a reaction zone placed downstream of said mixing zone to thermally crack the tars, the temperature of the synthesis gas at the outlet of said reaction zone being greater than or equal to 1100°C, d) cleaning said synthesis gas thus purified to obtain a clean synthesis gas, e) lowering the relative degree of humidity of the clean synthesis gas, f) injecting at least a portion thereof into at least one gas engine to produce electricity.
A head-up display device that is to be mounted in a moving vehicle and enables an occupant in the moving vehicle to view a virtual image based on a reflected image of S-polarized light in a projection section, the head-up display device comprising: an image projector configured to apply projection light including S-polarized light; and the projection section on which the projection light is to be projected, the projection section comprising laminated glass including a first glass plate defining a surface of the laminated glass on which the projection light is to be incident, a second glass plate defining a surface of the laminated glass from which the projection light is to be emitted, and a half-wave plate disposed between the first glass plate and the second glass plate, the first glass plate and the second glass plate each being formed from a glass composition containing silicon oxide, iron oxide, and an alkali metal oxide, at least one of the first glass plate or the second glass plate having a thickness of 0.3 mm to 3 mm, a total iron oxide content in terms of Fe 2 O 3 in the glass composition of 0.2% by mass to 2.0% by mass, and a FeO content of 0.1% by mass to 0.5% by mass, the half-wave plate having visible light transmissivity and being configured to transmit light with an a* value of -2.5 to 4.5 and a b* value of -1.0 to 7.0 in a CIE color system, the reflected image being formed on a surface of the first glass plate which is to face an inside of the vehicle, the second glass plate being configured to emit from a surface thereof which is to face an outside of the vehicle the projection light converted to P-polarized light. an image projector configured to apply projection light including S-polarized light; and the projection section on which the projection light is to be projected, the projection section comprising laminated glass including a first glass plate defining a surface of the laminated glass on which the projection light is to be incident, a second glass plate defining a surface of the laminated glass from which the projection light is to be emitted, and a half-wave plate disposed between the first glass plate and the second glass plate, the first glass plate and the second glass plate each being formed from a glass composition containing silicon oxide, iron oxide, and an alkali metal oxide, at least one of the first glass plate or the second glass plate having a thickness of 0.3 mm to 3 mm, a total iron oxide content in terms of Fe 2 O 3 in the glass composition of 0.2% by mass to 2.0% by mass, and a FeO content of 0.1% by mass to 0.5% by mass, the half-wave plate having visible light transmissivity and being configured to transmit light with an a* value of -2.5 to 4.5 and a b* value of -1.0 to 7.0 in a CIE color system, the reflected image being formed on a surface of the first glass plate which is to face an inside of the vehicle, the second glass plate being configured to emit from a surface thereof which is to face an outside of the vehicle the projection light converted to P-polarized light.
A torque bearing , comprising at least one row of roller bearings (13; 14) and - two annular housing parts (15; 16) which are arranged rotatably to each other and concentrically; - wherein an annular housing part may be driven by several worm shafts , - wherein the drivable housing part is coupled with an pinion , - wherein the row of roller bearings (13; 14) comprises cylindrical, spherical, conical or barrel-shaped rolling elements, characterised in that the torque bearing with the two housing parts (15; 16) which are rotatable to each other and the pinion is implemented with an open centre so that the torque bearing comprises a cylindrical recess with an inner diameter (D). - two annular housing parts (15; 16) which are arranged rotatably to each other and concentrically; - wherein an annular housing part may be driven by several worm shafts , - wherein the drivable housing part is coupled with an pinion , - wherein the row of roller bearings (13; 14) comprises cylindrical, spherical, conical or barrel-shaped rolling elements,
A device for producing a floating light symbol comprising an aperture having a light window , a primary optic and a primary light source , the emitted primary light of which is directed through the primary optic in a direction of the light window , characterized in that at least one secondary light source is arranged offset from the primary light source , an additional light guide extends between the primary light source and the light window , the additional light guide has a pigmented symbol , and an emitted secondary light of the secondary light source can be coupled into the additional light guide such that the secondary light can at least partially reflect on the pigmented symbol and be deflected through the light window .
A fiber optic connector, comprising: a connector assembly comprising a ferrule and a resilient member for biasing the ferrule forward; a connector sleeve assembly comprising a housing with one or more features configured for attaching to the connector assembly and a passageway between a first end and a second end for receiving a ferrule sleeve in a loosely captive manner for aligning the ferrule of the connector assembly with a mating ferrule of a mating connector, wherein the ferrule is at least partially disposed in the ferrule sleeve when assembled; and a balancing resilient member for biasing the connector sleeve assembly to a forward position characterised by a portion of the balancing resilient member contacting the connector sleeve assembly , the balancing resilient member having a predetermined resilient force that is 5 Newton or greater, and wherein the connector sleeve assembly comprises a latch, and the balancing resilient member biases the connector sleeve assembly forward with the latch engaging the connector assembly when assembled. a connector assembly comprising a ferrule and a resilient member for biasing the ferrule forward; a connector sleeve assembly comprising a housing with one or more features configured for attaching to the connector assembly and a passageway between a first end and a second end for receiving a ferrule sleeve in a loosely captive manner for aligning the ferrule of the connector assembly with a mating ferrule of a mating connector, wherein the ferrule is at least partially disposed in the ferrule sleeve when assembled; and a balancing resilient member for biasing the connector sleeve assembly to a forward position characterised by a portion of the balancing resilient member contacting the connector sleeve assembly , the balancing resilient member having a predetermined resilient force that is 5 Newton or greater, and wherein the connector sleeve assembly comprises a latch, and the balancing resilient member biases the connector sleeve assembly forward with the latch engaging the connector assembly when assembled.
A head-mounted audio output apparatus comprising: at least one hybrid audio system comprising multiple transducers , wherein the hybrid audio system is configured to render sound for a user of the head-mounted audio output apparatus into different audio output channels using different associated transducers of the multiple transducers , wherein the hybrid audio system is configured to render sound for the user of the apparatus into a bone-conduction audio output channel using an associated bone-conduction transducer and an air-conduction audio output channel using an associated air-conduction transducer; means for changing a cut-off frequency of at least a first one of the audio output channels in dependence upon the transducer associated with the first one of the audio output channels, wherein the first one of the audio output channels is the bone-conduction audio output channel, and wherein the means for changing a cut-off frequency of at least the first one of the audio output channels is configured to: automatically change a cross-over frequency of the first one of the audio output channels and a second one of the audio output channels; and automatically change the cut-off frequency of the first one of the audio output channels in dependence upon spectral analysis of exterior noise. at least one hybrid audio system comprising multiple transducers , wherein the hybrid audio system is configured to render sound for a user of the head-mounted audio output apparatus into different audio output channels using different associated transducers of the multiple transducers , wherein the hybrid audio system is configured to render sound for the user of the apparatus into a bone-conduction audio output channel using an associated bone-conduction transducer and an air-conduction audio output channel using an associated air-conduction transducer; means for changing a cut-off frequency of at least a first one of the audio output channels in dependence upon the transducer associated with the first one of the audio output channels, wherein the first one of the audio output channels is the bone-conduction audio output channel, and wherein the means for changing a cut-off frequency of at least the first one of the audio output channels is configured to: automatically change a cross-over frequency of the first one of the audio output channels and a second one of the audio output channels; and automatically change the cut-off frequency of the first one of the audio output channels in dependence upon spectral analysis of exterior noise. automatically change a cross-over frequency of the first one of the audio output channels and a second one of the audio output channels; and automatically change the cut-off frequency of the first one of the audio output channels in dependence upon spectral analysis of exterior noise.
A sensor for measuring skin conductance, comprising: an amplifier for converting the skin conductance into an analog output voltage; an analog to digital converter for converting the analog output voltage to a digital output signal; and a digital processor for extracting the phasic skin response and increases in the tonic skin response from the digital output signal, wherein the amplifier has a logarithmic gain for generating an output signal which is a logarithm of the skin conductance, thereby with a decreasing gain for increasing skin conductance values, wherein the digital processor is adapted to identify the phasic response as a period of monotonic rise of the skin conductance with a rise time between a certain minimum and a certain maximum value, and wherein the digital processor is adapted to identify increases in the tonic skin response as a rise of the skin conductance with a rise time longer than the said certain maximumn value and when no phasic response has been identified. an amplifier for converting the skin conductance into an analog output voltage; an analog to digital converter for converting the analog output voltage to a digital output signal; and a digital processor for extracting the phasic skin response and increases in the tonic skin response from the digital output signal, wherein the amplifier has a logarithmic gain for generating an output signal which is a logarithm of the skin conductance, thereby with a decreasing gain for increasing skin conductance values, wherein the digital processor is adapted to identify the phasic response as a period of monotonic rise of the skin conductance with a rise time between a certain minimum and a certain maximum value, and wherein the digital processor is adapted to identify increases in the tonic skin response as a rise of the skin conductance with a rise time longer than the said certain maximumn value and when no phasic response has been identified.
A brake disc mounting hub for mounting a brake disc to a flange member on a vehicle axis, the hub member comprising: • a flange section comprising a plurality of first openings adapted to receive mounting members for mounting the flange section to a flange member; • a brake disc attachment section connected to the flange section , said brake disc attachment section circumferentially surrounding the flange section and comprising a plurality of circumferentially spaced, radially extending portions whereby the spaces between the portions define, respectively, a plurality of second openings arranged along an outside circumference of the attachment section , wherein the plurality of second openings are adapted to receive mounting members for mounting the attachment section to a brake disc, wherein the attachment section comprises at least one reinforcement rib extending from the flange section and connected to at least one of the plurality of second openings . • a flange section comprising a plurality of first openings adapted to receive mounting members for mounting the flange section to a flange member; • a brake disc attachment section connected to the flange section , said brake disc attachment section circumferentially surrounding the flange section and comprising a plurality of circumferentially spaced, radially extending portions whereby the spaces between the portions define, respectively, a plurality of second openings arranged along an outside circumference of the attachment section , wherein the plurality of second openings are adapted to receive mounting members for mounting the attachment section to a brake disc,
A transmitter circuit for an RF communication device, the transmitter circuit comprising a first carrier signal generator for generating a first digital carrier signal, a second earner signal generator for generating a second digital carrier signal, the second digital carrier signal having the same frequency as the first digital carrier signal, modulation circuitry adapted to receive an amplitude modulation signal and to determine a phase shift value (φ) based on the amplitude modulation signal, outphasing circuitry adapted to generate a first digital output signal by adding the phase shift value to the phase of the first digital carrier signal and to generate a second digital output signal by subtracting the phase shift value from the phase of the second digital carrier signal, characterised by comprising a first switched-capacitor digital to analog converter adapted to receive the first digital output signal and generate a corresponding first analog antenna output signal, and a second switched-capacitor digital to analog converter adapted to receive the second digital output signal and generate a corresponding second analog antenna output signal, wherein the sampling phase of the first switched-capacitor digital to analog converter is opposite to the sampling phase of the second switched-capacitor digital to analog converter, whereby the first analog antenna output signal and the second analog antenna output signal form a time-interleaved antenna output signal.
A camera module thin film heater, comprising: a first heating structure including a first electrode , and a first thin film heating body electrically connected to the first electrode and having a variable resistance corresponding to a heating temperature; a second heating structure insulated from the first heating structure , and including a second electrode , and the second thin film heating body electrically connected to the second electrode and having a variable resistance corresponding to a heating temperature; and an insulation member having an opening to insulate the first and second heating structures and exposing a portion of the first and second electrodes , characterized in that the first electrode includes a first electrode pattern and a second electrode pattern overlapped with the first electrode pattern , the second electrode includes a third electrode pattern and a fourth electrode pattern overlapped with the third electrode pattern , and the first thin film heating body is interposed between the first and second electrode patterns , and the second thin film heating body is interposed between the third and fourth electrode patterns , and wherein the camera module thin film heater further comprises third electrodes disposed at an outside of the insulation member to be electrically connected to the second pattern of the first electrode and the fourth pattern of the second electrode through the opening . a second heating structure insulated from the first heating structure , and including a second electrode , and the second thin film heating body electrically connected to the second electrode and having a variable resistance corresponding to a heating temperature; and an insulation member having an opening to insulate the first and second heating structures and exposing a portion of the first and second electrodes , characterized in that the first electrode includes a first electrode pattern and a second electrode pattern overlapped with the first electrode pattern , the second electrode includes a third electrode pattern and a fourth electrode pattern overlapped with the third electrode pattern , and the first thin film heating body is interposed between the first and second electrode patterns , and the second thin film heating body is interposed between the third and fourth electrode patterns , and wherein the camera module thin film heater further comprises third electrodes disposed at an outside of the insulation member to be electrically connected to the second pattern of the first electrode and the fourth pattern of the second electrode through the opening .