mhurhangee/patent-ind-claim-en huggingface dataset:
A thermometer device for temporal artery area measurement, configured to be used in a stationary position, comprising: - an elongated body extending in an axial direction (X) with a front portion having an front end border arranged on a sensing plane (P), wherein the body is circumscribed in a cylinder C defined by a primitive defined by the external edge of the front end border and the axial direction X, and the body additionally comprises a top and/or bottom flattened portion , - an array of at least N infra-red sensors , with N greater than 8, - a sensing region (SR) extending in the sensing plane over an area denoted SRA, at a distance denoted LF from a plane P2 containing the infra-red sensors, the sensing region being encompassed within the border of the front portion, - at least an optical lens , interposed between the infra-red sensors and the sensing region, to deviate light rays, wherein LF 2 < K x SRA, with K =3. - an elongated body extending in an axial direction (X) with a front portion having an front end border arranged on a sensing plane (P), wherein the body is circumscribed in a cylinder C defined by a primitive defined by the external edge of the front end border and the axial direction X, and the body additionally comprises a top and/or bottom flattened portion , - an array of at least N infra-red sensors , with N greater than 8, - a sensing region (SR) extending in the sensing plane over an area denoted SRA, at a distance denoted LF from a plane P2 containing the infra-red sensors, the sensing region being encompassed within the border of the front portion, - at least an optical lens , interposed between the infra-red sensors and the sensing region, to deviate light rays, wherein LF 2 < K x SRA, with K =3.
A radioemission imaging system comprising: a radioemission imaging data acquisition system configured to acquire radioemission imaging data in a field of view (FOV) ; an electronic data processing device programmed to reconstruct the radioemission imaging data by operations including: identifying a background portion (26 B ) of the radioemission imaging data corresponding to a background region (14 B ) of the FOV that is outside of an object disposed in the FOV; characterized by , adjusting an outside-FOV activity estimate for at least one spatial region outside of the FOV to optimize a simulated scatter distribution for the combination of the radioemission imaging data and the outside-FOV activity estimate to match the background portion (26 B ) of the PET imaging data; and reconstructing a scatter-corrected image of the object in the FOV using the optimized simulated scatter distribution. a radioemission imaging data acquisition system configured to acquire radioemission imaging data in a field of view (FOV) ; an electronic data processing device programmed to reconstruct the radioemission imaging data by operations including: identifying a background portion (26 B ) of the radioemission imaging data corresponding to a background region (14 B ) of the FOV that is outside of an object disposed in the FOV; characterized by , adjusting an outside-FOV activity estimate for at least one spatial region outside of the FOV to optimize a simulated scatter distribution for the combination of the radioemission imaging data and the outside-FOV activity estimate to match the background portion (26 B ) of the PET imaging data; and reconstructing a scatter-corrected image of the object in the FOV using the optimized simulated scatter distribution. identifying a background portion (26 B ) of the radioemission imaging data corresponding to a background region (14 B ) of the FOV that is outside of an object disposed in the FOV; characterized by , adjusting an outside-FOV activity estimate for at least one spatial region outside of the FOV to optimize a simulated scatter distribution for the combination of the radioemission imaging data and the outside-FOV activity estimate to match the background portion (26 B ) of the PET imaging data; and reconstructing a scatter-corrected image of the object in the FOV using the optimized simulated scatter distribution.
A liquid electrophotographic electrode ink composition comprising: a thermoplastic polymer comprising a copolymer of an olefin and acrylic acid and/or methacrylic acid; an electroactive material comprising a lithium intercalation material; a charge adjuvant, a liquid carrier; a lithium salt; and a solid polymer electrolyte. a thermoplastic polymer comprising a copolymer of an olefin and acrylic acid and/or methacrylic acid; an electroactive material comprising a lithium intercalation material; a charge adjuvant, a liquid carrier; a lithium salt; and a solid polymer electrolyte.
Method for estimating the state of health of an exchangeable rechargeable battery , in particular of an exchangeable rechargeable battery pack for electric power tools, comprising the following method steps: i. determining a remaining capacity of the exchangeable rechargeable battery during a charging process in such a way that • a first charging value (C 1 ) is ascertained by measuring an open-circuit voltage (U l ) as long as there is still no or only a minimal charging current (I C ) flowing, • at least one further charging value (C n ) is ascertained by measuring the charging current (I Cn ) at defined time intervals (t 2b , t 2c ) until the charging process is concluded, and • a sum of the ascertained charging values (C 1 + Σ n C n ) is calculated; characterized by the following method steps: ii. determining a remaining performance of the exchangeable rechargeable battery during the charging process in such a way that • after a predefined rechargeable battery voltage (U CT ) has been reached, the charging current (I C , I CH , I CL ) is briefly changed and the respective rechargeable battery voltage (U C , U C1 , U C2 ) is measured. i. determining a remaining capacity of the exchangeable rechargeable battery during a charging process in such a way that • a first charging value (C 1 ) is ascertained by measuring an open-circuit voltage (U l ) as long as there is still no or only a minimal charging current (I C ) flowing, • at least one further charging value (C n ) is ascertained by measuring the charging current (I Cn ) at defined time intervals (t 2b , t 2c ) until the charging process is concluded, and • a sum of the ascertained charging values (C 1 + Σ n C n ) is calculated; characterized by the following method steps: • a first charging value (C 1 ) is ascertained by measuring an open-circuit voltage (U l ) as long as there is still no or only a minimal charging current (I C ) flowing, • at least one further charging value (C n ) is ascertained by measuring the charging current (I Cn ) at defined time intervals (t 2b , t 2c ) until the charging process is concluded, and • a sum of the ascertained charging values (C 1 + Σ n C n ) is calculated; characterized by the following method steps: ii. determining a remaining performance of the exchangeable rechargeable battery during the charging process in such a way that • after a predefined rechargeable battery voltage (U CT ) has been reached, the charging current (I C , I CH , I CL ) is briefly changed and the respective rechargeable battery voltage (U C , U C1 , U C2 ) is measured. • after a predefined rechargeable battery voltage (U CT ) has been reached, the charging current (I C , I CH , I CL ) is briefly changed and the respective rechargeable battery voltage (U C , U C1 , U C2 ) is measured.
Sandwich structure for a construction element comprising: • a quadrangular frame consisting of two uprights (1; 1') and two crosspieces (2; 2'), • two panels attached to either side of said frame and covering the same so that the inner surface of each of said panels closes a cavity defined between the four inner faces (1a; 2a) of the uprights (1; 1') and crosspiece (2; 2'), said panels each comprising two opposing protruding J-edges cooperating with grooves provided in said uprights or in said crosspieces, in order to secure said panels to said frame where said frame mechanically cooperates with at least one inner connection part , a first face of which is in direct contact with the inner face of an upright and a second face is in direct contact with the inner face of a crosspiece adjacent to said upright . • a quadrangular frame consisting of two uprights (1; 1') and two crosspieces (2; 2'), • two panels attached to either side of said frame and covering the same so that the inner surface of each of said panels closes a cavity defined between the four inner faces (1a; 2a) of the uprights (1; 1') and crosspiece (2; 2'), said panels each comprising two opposing protruding J-edges cooperating with grooves provided in said uprights or in said crosspieces, in order to secure said panels to said frame
A fluid separator comprising: a body ; an inlet for combined fluid ; a first outlet for gas , the first outlet connected to and/or integrated with a top of the body and including a vortex finder which includes a receiving portion extending into the body and including a first section and a second section connected to the first section downstream relative to the gas flow; and a second outlet for liquid , wherein the first section has an inner surface that is tapered in a direction of the gas flow, wherein the outer diameter of the first section is smallest near a top of the body and increases towards a bottom of the body , and wherein the second section has an inner surface that is tapered in an opposite direction, wherein the diameter of the second section is smallest at or near the first section and increases towards the top of the body ; and. wherein the first section is at least twice as long as the second section . a body ; an inlet for combined fluid ; a first outlet for gas , the first outlet connected to and/or integrated with a top of the body and including a vortex finder which includes a receiving portion extending into the body and including a first section and a second section connected to the first section downstream relative to the gas flow; and a second outlet for liquid , wherein the first section has an inner surface that is tapered in a direction of the gas flow, wherein the outer diameter of the first section is smallest near a top of the body and increases towards a bottom of the body , and wherein the second section has an inner surface that is tapered in an opposite direction, wherein the diameter of the second section is smallest at or near the first section and increases towards the top of the body ; and. wherein the first section is at least twice as long as the second section .
A surface acoustic wave (SAW) resonator device, comprising: a substrate supporting an electrically conducting layer ; an interdigital transducer, or IDT (31-32); a reflector grating (41-42) that comprises a plurality of electrically separated fingers ; and, a main ohmic contact ; wherein the IDT is configured so as to be connectable to a ground, the conducting layer is configured so as to be connectable to said ground via the main ohmic contact, while each of said fingers is electrically connected to a lateral side of the conducting layer; characterized in that the conducting layer is gateable and the device further comprises a gate element ; the fingers and the conducting layer defining a gateable channel extending from said fingers to the ground via the conducting layer and the main ohmic contact, and the gate element is electrically insulated from the conducting layer and further configured to allow an electrical impedance of the gateable channel to be continuously tuned by applying a voltage bias to this gate element with respect to said ground, in operation of the device. the IDT is configured so as to be connectable to a ground, the conducting layer is configured so as to be connectable to said ground via the main ohmic contact, while each of said fingers is electrically connected to a lateral side of the conducting layer; characterized in that the conducting layer is gateable and the device further comprises a gate element ; the fingers and the conducting layer defining a gateable channel extending from said fingers to the ground via the conducting layer and the main ohmic contact, and the gate element is electrically insulated from the conducting layer and further configured to allow an electrical impedance of the gateable channel to be continuously tuned by applying a voltage bias to this gate element with respect to said ground, in operation of the device.
A method for representing a second presentation of audio channels or objects as a data stream, the method comprising the steps of: (a) providing base signals, said base signals representing a first presentation of the audio channels or objects; (b) providing transformation parameters, said transformation parameters intended to transform the base signals of said first presentation into output signals of said second presentation; said transformation parameters including at least high frequency transformation parameters specified for a higher frequency band and low frequency transformation parameters specified for a lower frequency band, with the low frequency transformation parameters including a set of multi-tap convolution matrix parameters for convolving low frequency components of the base signals with the low frequency transformation parameters to produce convolved low frequency components and the high frequency transformation parameters including a set of parameters of a stateless matrix for multiplying high frequency components of the base signals with the high frequency transformation parameters to produce multiplied high frequency components; the first presentation being intended for loudspeaker playback and the second presentation being intended for headphone playback, or vice versa; and (c) combining said base signals and said transformation parameters to form said data stream. (a) providing base signals, said base signals representing a first presentation of the audio channels or objects; (b) providing transformation parameters, said transformation parameters intended to transform the base signals of said first presentation into output signals of said second presentation; said transformation parameters including at least high frequency transformation parameters specified for a higher frequency band and low frequency transformation parameters specified for a lower frequency band, with the low frequency transformation parameters including a set of multi-tap convolution matrix parameters for convolving low frequency components of the base signals with the low frequency transformation parameters to produce convolved low frequency components and the high frequency transformation parameters including a set of parameters of a stateless matrix for multiplying high frequency components of the base signals with the high frequency transformation parameters to produce multiplied high frequency components; the first presentation being intended for loudspeaker playback and the second presentation being intended for headphone playback, or vice versa; and (c) combining said base signals and said transformation parameters to form said data stream.
A control information transmission method, wherein the method comprises: extracting , by a base station, a radio resource from a preset resource block set; sending , by the base station, control information in a first time period by using the radio resource; wherein the method further comprises: sending, in a second time period, user data information scheduled by using the control information, and the sending the user data information scheduled by using the control information comprises: determining, by the base station, based on the control information, a first sending resource used to send the user data information; and sending, by the base station, the user data information - by using one radio resource, which can be used to send first control information and is not occupied by the first control information, in the first sending resource, and - without using one further radio resource, which can be used to send second control information, in the first sending resource. extracting , by a base station, a radio resource from a preset resource block set; sending , by the base station, control information in a first time period by using the radio resource; wherein the method further comprises: sending, in a second time period, user data information scheduled by using the control information, and the sending the user data information scheduled by using the control information comprises: determining, by the base station, based on the control information, a first sending resource used to send the user data information; and sending, by the base station, the user data information - by using one radio resource, which can be used to send first control information and is not occupied by the first control information, in the first sending resource, and - without using one further radio resource, which can be used to send second control information, in the first sending resource. determining, by the base station, based on the control information, a first sending resource used to send the user data information; and sending, by the base station, the user data information - by using one radio resource, which can be used to send first control information and is not occupied by the first control information, in the first sending resource, and - without using one further radio resource, which can be used to send second control information, in the first sending resource. - by using one radio resource, which can be used to send first control information and is not occupied by the first control information, in the first sending resource, and - without using one further radio resource, which can be used to send second control information, in the first sending resource.
An image pickup device, comprising: an image pickup section that picks up an image of a subject and that is sensitive to at least a red range, a green range, and a blue range of a visible light, and an infrared range; an extraction region processing section that sets extraction regions for extracting infrared signal information and visible light signal information in an image picked up by the image pickup section ; an infrared extraction processing section that extracts infrared signal information from each of the regions of the image that were set by the extraction region processing section ; a visible light extraction processing section that extracts visible light signal information from each of the regions of the image that were set by the extraction region processing section ; a white balance processing section that conducts white balance processing on the image using a prescribed color gain; and a system control section that controls the white balance processing section , wherein the system control section , in accordance with the infrared signal information and visible light signal information extracted from each of the regions of the image, performs control so that the color gain of the white balance processing section is set to a prescribed value using the visible light signal information of the region in which an infrared amount of the infrared signal information extracted by the infrared extraction processing section is no higher than a predetermined value. an image pickup section that picks up an image of a subject and that is sensitive to at least a red range, a green range, and a blue range of a visible light, and an infrared range; an extraction region processing section that sets extraction regions for extracting infrared signal information and visible light signal information in an image picked up by the image pickup section ; an infrared extraction processing section that extracts infrared signal information from each of the regions of the image that were set by the extraction region processing section ; a visible light extraction processing section that extracts visible light signal information from each of the regions of the image that were set by the extraction region processing section ; a white balance processing section that conducts white balance processing on the image using a prescribed color gain; and a system control section that controls the white balance processing section , wherein the system control section , in accordance with the infrared signal information and visible light signal information extracted from each of the regions of the image, performs control so that the color gain of the white balance processing section is set to a prescribed value using the visible light signal information of the region in which an infrared amount of the infrared signal information extracted by the infrared extraction processing section is no higher than a predetermined value.
Remote hearing test system comprising: - a device for controlling a hearing aid comprising a communication interface arranged to allow two-way communication and software for playing predefined sequences of sounds stored in a memory module of the device in response to an instruction from a remote control station , - at least one hearing aid comprising a communication interface arranged to allow two-way communication with the control device , said device comprising a software layer for communicating with the hearing aid and being arranged to provide a gateway between the control station , which is equipped with software for remote control of the hearing aid , and the hearing aid , and - sound insulation means for the hearing aid , characterized in that it comprises image-capturing means that are arranged together with the hearing aid to allow the interior of the ear to be viewed when the ear is equipped with the hearing aid . - a device for controlling a hearing aid comprising a communication interface arranged to allow two-way communication and software for playing predefined sequences of sounds stored in a memory module of the device in response to an instruction from a remote control station , - at least one hearing aid comprising a communication interface arranged to allow two-way communication with the control device , said device comprising a software layer for communicating with the hearing aid and being arranged to provide a gateway between the control station , which is equipped with software for remote control of the hearing aid , and the hearing aid , and - sound insulation means for the hearing aid , characterized in that it comprises image-capturing means that are arranged together with the hearing aid to allow the interior of the ear to be viewed when the ear is equipped with the hearing aid .
A method for determining phosphate in a water sample, comprising the steps of: a) providing a water sample, b) adding an acid in such a way that the concentration of the acid in the water sample is at least 0.5% by weight, c) first photometric measurement of the water sample solution, d) adding a colouring component to the photometric water sample solution, wherein the colouring component contains 0.1 to 3 wt.% of an acid, and wherein the increase in the acid concentration in the water sample due to the addition of the acid is at least three times higher than due to the addition of the colouring component, e) second photometric measurement, and f) calculation of the phosphate concentration from the difference between the first and second photometric measurements. a) providing a water sample, b) adding an acid in such a way that the concentration of the acid in the water sample is at least 0.5% by weight, c) first photometric measurement of the water sample solution, d) adding a colouring component to the photometric water sample solution, wherein the colouring component contains 0.1 to 3 wt.% of an acid, and wherein the increase in the acid concentration in the water sample due to the addition of the acid is at least three times higher than due to the addition of the colouring component, wherein the colouring component contains 0.1 to 3 wt.% of an acid, and wherein the increase in the acid concentration in the water sample due to the addition of the acid is at least three times higher than due to the addition of the colouring component, e) second photometric measurement, and f) calculation of the phosphate concentration from the difference between the first and second photometric measurements.