mhurhangee/patent-ind-claim-en huggingface dataset:
A coated metal sheet being chromate-free and comprising: a metal sheet, and an overcoat coating film to be disposed on the metal sheet, wherein the metal sheet is any one selected from the group consisting of cold-rolled steel sheets, galvanized steel sheets, Zn-Al alloy-plated steel sheets, Zn-Al-Mg alloy-plated steel sheets, aluminum-plated steel sheets, stainless steel sheets, and copper sheets, wherein the overcoat coating film comprises a gloss adjusting agent which is particles having micropores and a matting agent which is primary particles and a lubricant, wherein a content of the gloss adjusting agent in the overcoat coating film is 0.2 to 15vol%, wherein a content of the matting agent in the overcoat coating film is 0.2 to 15vol%, and characterized in that the coated metal sheet satisfies the following equations: R 1 + 2 σ 1 / T ≤ 0.7 R 1 ≥ 2.0 2.0 ≤ R 2 + 2 σ 2 / T ≤ 7.0 13 ≤ T ≤ 20 wherein R1 (μm) is a number average particle diameter of the gloss adjusting agent, R2 (μm) is a number average particle diameter of the matting agent, T (μm) is a film thickness of the overcoat coating film, σ1 is a standard deviation of a number particle size distribution of the gloss adjusting agent, and σ2 is a standard deviation of a number particle size distribution of the matting agent. a metal sheet, and an overcoat coating film to be disposed on the metal sheet, wherein the metal sheet is any one selected from the group consisting of cold-rolled steel sheets, galvanized steel sheets, Zn-Al alloy-plated steel sheets, Zn-Al-Mg alloy-plated steel sheets, aluminum-plated steel sheets, stainless steel sheets, and copper sheets, wherein the overcoat coating film comprises a gloss adjusting agent which is particles having micropores and a matting agent which is primary particles and a lubricant, wherein a content of the gloss adjusting agent in the overcoat coating film is 0.2 to 15vol%, wherein a content of the matting agent in the overcoat coating film is 0.2 to 15vol%, and characterized in that the coated metal sheet satisfies the following equations: R 1 + 2 σ 1 / T ≤ 0.7 R 1 ≥ 2.0 2.0 ≤ R 2 + 2 σ 2 / T ≤ 7.0 13 ≤ T ≤ 20 wherein R1 (μm) is a number average particle diameter of the gloss adjusting agent, R2 (μm) is a number average particle diameter of the matting agent, T (μm) is a film thickness of the overcoat coating film, σ1 is a standard deviation of a number particle size distribution of the gloss adjusting agent, and σ2 is a standard deviation of a number particle size distribution of the matting agent.
A computer-implemented method of controlling a computing hardware accelerator in a movable camera , the method comprising: acquiring images from the movable camera ; obtaining an indication of a physical state of the movable camera , indicating whether the movable camera is in a moving state or in a still state; allocating exclusive access to the computing hardware accelerator based on the indication of a physical state of the movable camera , wherein: if the movable camera is in the moving state, allocating the computing hardware accelerator to a first processing workload related to the acquired images and associated with the moving state, the first processing workload comprising computation of one or more privacy masks in the images acquired by the movable camera ; and if the movable camera is in the still state, allocating the computing hardware accelerator to a second processing workload related to the acquired images and associated with the still state. acquiring images from the movable camera ; obtaining an indication of a physical state of the movable camera , indicating whether the movable camera is in a moving state or in a still state; allocating exclusive access to the computing hardware accelerator based on the indication of a physical state of the movable camera , wherein: if the movable camera is in the moving state, allocating the computing hardware accelerator to a first processing workload related to the acquired images and associated with the moving state, the first processing workload comprising computation of one or more privacy masks in the images acquired by the movable camera ; and if the movable camera is in the still state, allocating the computing hardware accelerator to a second processing workload related to the acquired images and associated with the still state. if the movable camera is in the moving state, allocating the computing hardware accelerator to a first processing workload related to the acquired images and associated with the moving state, the first processing workload comprising computation of one or more privacy masks in the images acquired by the movable camera ; and if the movable camera is in the still state, allocating the computing hardware accelerator to a second processing workload related to the acquired images and associated with the still state.
An imaging device comprising: a plurality of first pixels (MS1-MS7) each including a metallic thin film filter (NB) configured to transmit a light in a first frequency band; and a second pixel (G1-G8) including a color filter configured to transmit a light in a second frequency band wider than the first frequency band, characterized in that the imaging device is configured to generate a signal in a third frequency band by summing up respective signals of a plurality of first pixels (MS1-MS7), wherein each of the respective first frequency bands is different from the respective first frequency band of the other first pixels of the plurality of first pixels, and and in that the imaging device is further configured to generate a signal for a color image from a signal in the third frequency band and a signal of the second pixel. a plurality of first pixels (MS1-MS7) each including a metallic thin film filter (NB) configured to transmit a light in a first frequency band; and a second pixel (G1-G8) including a color filter configured to transmit a light in a second frequency band wider than the first frequency band, characterized in that the imaging device is configured to generate a signal in a third frequency band by summing up respective signals of a plurality of first pixels (MS1-MS7), wherein each of the respective first frequency bands is different from the respective first frequency band of the other first pixels of the plurality of first pixels, and and in that the imaging device is further configured to generate a signal for a color image from a signal in the third frequency band and a signal of the second pixel.
A method of point cloud coding , PCC, implemented by a video decoder, comprising: receiving an encoded bitstream including a data unit comprising a data unit header, the data unit header containing a type indicator specifying a type of content carried in a payload of the data unit; and decoding the encoded bitstream; wherein the data unit header is a PCC network abstraction layer, NAL, unit header; wherein the type indicator specifies that the type of content is one of: a geometry component; a texture component; auxiliary information; or an occupancy map; wherein the type indicator is five bits or seven bits. receiving an encoded bitstream including a data unit comprising a data unit header, the data unit header containing a type indicator specifying a type of content carried in a payload of the data unit; and decoding the encoded bitstream; wherein the data unit header is a PCC network abstraction layer, NAL, unit header; wherein the type indicator specifies that the type of content is one of: a geometry component; a texture component; auxiliary information; or an occupancy map; wherein the type indicator is five bits or seven bits.
A microfluidic system for processing biological samples comprising: a holding chamber adapted for holding a fluid and to be rotated on a platform about a central axis, wherein the holding chamber is dimensioned to have an inner radial wall of radius R1 and an outer radial wall of radius R2 from the central axis, said holding chamber comprising an outlet through which fluid flow is controlled by an acceleration-primed valve system, wherein the acceleration-primed valve system comprises a capillary valve and an outlet channel dimensioned in a substantially goose-neck type shape extending radially inwardly and having an innermost portion that is radially outward of an innermost portion of the holding chamber, the capillary valve comprising an innermost portion that is radially inward R3 of the outermost portion of the holding chamber R2, and wherein the capillary valve is primed only by a force generated by a tangential acceleration of the platform.
A method for the preparation of oligosaccharides comprising: (a) contacting a feedstock comprising sucrose and maltose in a ratio within a range from 2:1 to 3.5:1 with dextransucrase-producing bacteria in an aqueous culture medium; (b) fermenting the feedstock with the bacteria cells while the pH of the culture medium is controlled within the range 5.5 to 6.0; (c) removing the bacteria cells; and (d) polishing; wherein the final composition of the oligosaccharides produced comprises maltosyl-isomaltooligosaccharides with degrees of polymerization (DP) >2 and <10. (a) contacting a feedstock comprising sucrose and maltose in a ratio within a range from 2:1 to 3.5:1 with dextransucrase-producing bacteria in an aqueous culture medium; (b) fermenting the feedstock with the bacteria cells while the pH of the culture medium is controlled within the range 5.5 to 6.0; (c) removing the bacteria cells; and (d) polishing;
A method of operating a radio frequency identification RFID system , the method comprising: generating an RFID interrogation signal with an RFID reader of the RFID system ; obtaining, in response to generating the RFID interrogation signal, at least one RFID tag response signal at the RFID reader , the at least one RFID tag response signal conveying tag data; characterised in that the method comprises: obtaining a current location of a mobile device ; and providing at least some of the tag data to the mobile device based on the current location of the mobile device . generating an RFID interrogation signal with an RFID reader of the RFID system ; obtaining, in response to generating the RFID interrogation signal, at least one RFID tag response signal at the RFID reader , the at least one RFID tag response signal conveying tag data; characterised in that the method comprises: obtaining a current location of a mobile device ; and providing at least some of the tag data to the mobile device based on the current location of the mobile device . obtaining a current location of a mobile device ; and providing at least some of the tag data to the mobile device based on the current location of the mobile device .
An ultrasound endoscope in which an ultrasound transducer is disposed in a distal end part of an insertion part , the ultrasound endoscope comprising: a plurality of signal wire bundles that are electrically connected to the ultrasound transducer and extend along a central axis of the distal end part, each signal wire bundle including a plurality of coaxial cables , a shield layer with which the plurality of coaxial cables are coated, and an outer coat with which the shield layer is coated; a receiving member that is positioned on a distal end side of the plurality of signal wire bundles, the receiving member being disposed on an outer peripheral side in the distal end part along an inner periphery of the distal end part, and characterized by : a pressing member that is positioned on the distal end side of the plurality of signal wire bundles, the pressing member being disposed on an inner side in the distal end part and comprises at least one pressing surface, wherein the at least one pressing surface is disposed closer to the central axis than the receiving member in the distal end part, wherein the plurality of signal wire bundles are fixed by being sandwiched between the receiving member and the pressing member. a plurality of signal wire bundles that are electrically connected to the ultrasound transducer and extend along a central axis of the distal end part, each signal wire bundle including a plurality of coaxial cables , a shield layer with which the plurality of coaxial cables are coated, and an outer coat with which the shield layer is coated; a receiving member that is positioned on a distal end side of the plurality of signal wire bundles, the receiving member being disposed on an outer peripheral side in the distal end part along an inner periphery of the distal end part, and characterized by : a pressing member that is positioned on the distal end side of the plurality of signal wire bundles, the pressing member being disposed on an inner side in the distal end part and comprises at least one pressing surface, wherein the at least one pressing surface is disposed closer to the central axis than the receiving member in the distal end part, wherein the plurality of signal wire bundles are fixed by being sandwiched between the receiving member and the pressing member.
A process for the preparation of a pharmaceutical composition comprising an 18 F-labelled gas selected from the group consisting of 18 F-labelled sulphur hexafluoride (SF 6 ) and 18 F-labelled carbon tetrafluoride (CF 4 ), comprising the steps: a) Filling a target with a gas mixture comprising a fluorinated gas selected from the group consisting of sulphur hexafluoride (SF 6 ) and carbon tetrafluoride (CF 4 ); b) Irradiating the gas mixture of step a) with protons with energies from 0.1 to 50 MeV. a) Filling a target with a gas mixture comprising a fluorinated gas selected from the group consisting of sulphur hexafluoride (SF 6 ) and carbon tetrafluoride (CF 4 ); b) Irradiating the gas mixture of step a) with protons with energies from 0.1 to 50 MeV.
Oral dosage form comprising a granular phase and a non-granular phase, wherein said granular phase is comprised of magnesium oxide, a carbonate or bicarbonate salt and a hydrophilic polymer, wherein magnesium oxide is comprised in the granular phase, and wherein magnesium oxide is comprised in an amount of 10 to 50 wt.%, relative to the total weight of the dosage form, characterized in that an edible acid is included in the non-granular phase of the composition.
A modified adeno-associated virus 1 (AAV1) capsid protein; wherein the amino acids corresponding to amino acid positions 456 to 459 (VP1 numbering) of the native AAV1 capsid protein are substituted with the sequence SERR (SEQ ID NO:26).
A method of cleaning a turbine engine that includes at least one internal impingement cooling circuit with a baffle plate configured to air cool a component of the turbine engine, the method comprising: introducing detergent to a back side of a baffle plate of the turbine engine such that the detergent passes through at least one aperture in the baffle plate and acts at least upon the component that the baffle plate is configured to air impingement cool to clean matter from the component .
A signal processing method, comprising: receiving , by a terminal, a control signaling in a format of format 1C, wherein the format 1C is only used for broadcast, and wherein the control signaling is used for instructing the terminal to send adjustment information to a serving base station of the terminal, and the control signaling is scrambled by using a Coordinated multiple point-Radio Network Temporary Identifier, CoMP-RNTI; determining , by the terminal, channel state information between a coordinated base station and the terminal, and between the serving base station and the terminal; acquiring , by the terminal, information about time difference or information about phase difference of arrival between signals sent by the coordinated base station and the serving base station at the terminal according to the channel state information; sending , by the terminal, the adjustment information to the serving base station, according to which the serving base station adjusts sending time, phase, or pre-coding manner of a sent signal, wherein the adjustment information comprises the information about time difference or information about phase difference; and wherein the adjustment information is sent to the serving base station through a predefined channel established according to a format of the adjustment information, and the adjustment information employs Reed-Muller, RM, (20, M) coding or RM (32, M) coding which is the same as that of non-periodic Channel Quality Information, CQI. receiving , by a terminal, a control signaling in a format of format 1C, wherein the format 1C is only used for broadcast, and wherein the control signaling is used for instructing the terminal to send adjustment information to a serving base station of the terminal, and the control signaling is scrambled by using a Coordinated multiple point-Radio Network Temporary Identifier, CoMP-RNTI; determining , by the terminal, channel state information between a coordinated base station and the terminal, and between the serving base station and the terminal; acquiring , by the terminal, information about time difference or information about phase difference of arrival between signals sent by the coordinated base station and the serving base station at the terminal according to the channel state information; sending , by the terminal, the adjustment information to the serving base station, according to which the serving base station adjusts sending time, phase, or pre-coding manner of a sent signal, wherein the adjustment information comprises the information about time difference or information about phase difference; and wherein the adjustment information is sent to the serving base station through a predefined channel established according to a format of the adjustment information, and the adjustment information employs Reed-Muller, RM, (20, M) coding or RM (32, M) coding which is the same as that of non-periodic Channel Quality Information, CQI.
A film stepless biaxial tension device based on saddle-shaped surface transition, whereby in a film surface biaxial stretching process by the device, lateral and longitudinal tensile forces are applied respectively to a different tangent plane to make the film subjected to smooth transition in a three-dimensional space from a narrow plane via a saddle-shaped surface to a wide plane, with the thickness uniformity of the biaxial tension film regulated by controlling the shape of the saddle-shaped surface; wherein a herringbone wheel unit and a parallel wheel unit, the angle between the two lateral tension wheels in the herringbone wheel unit being adjustable, the two longitudinal tension wheels in the parallel wheel unit being arranged in parallel; a binding rope is used to bind the left and right edges of the film to a circumferential surface of the lateral tension wheel and the longitudinal tension wheel ; the lateral tension of the film is achieved by the rotation of the lateral tension wheel , and the longitudinal tension of the film is achieved by the linear velocity difference between the lateral tension wheel and the longitudinal tension wheel .
A method of characterizing a specimen in an automated diagnostic analysis system , comprising: capturing an image of a specimen container with an image capture device ; identifying a label affixed to the specimen container in the image with an anonymization network ; and editing the image with the anonymization network to mask the label such that information present in the label is removed from the image to produce an edited image , wherein the anonymization network is a machine learning algorithm or method capable of image inpainting or a General Adversarial Network (GAN) or a Variational Auto Encoder (VAE) and - is part of a quality check module , or - comprises a general adversarial network, or - comprises a variational auto encoder, or - is configured to inpaint the label in the image of the specimen and the specimen container in order to erase all barcodes and printed text on the label and form an inpainted label in the edited image , wherein preferably the inpainted label appears as a white label in the edited image , or - is configured to inpaint the label in order to mask all barcodes on the label , or - is configured to inpaint the label in order to mask all printed text on the label . capturing an image of a specimen container with an image capture device ; identifying a label affixed to the specimen container in the image with an anonymization network ; and editing the image with the anonymization network to mask the label such that information present in the label is removed from the image to produce an edited image , wherein the anonymization network is a machine learning algorithm or method capable of image inpainting or a General Adversarial Network (GAN) or a Variational Auto Encoder (VAE) and - is part of a quality check module , or - comprises a general adversarial network, or - comprises a variational auto encoder, or - is configured to inpaint the label in the image of the specimen and the specimen container in order to erase all barcodes and printed text on the label and form an inpainted label in the edited image , wherein preferably the inpainted label appears as a white label in the edited image , or - is configured to inpaint the label in order to mask all barcodes on the label , or - is configured to inpaint the label in order to mask all printed text on the label . - is part of a quality check module , or - comprises a general adversarial network, or - comprises a variational auto encoder, or - is configured to inpaint the label in the image of the specimen and the specimen container in order to erase all barcodes and printed text on the label and form an inpainted label in the edited image , wherein preferably the inpainted label appears as a white label in the edited image , or - is configured to inpaint the label in order to mask all barcodes on the label , or - is configured to inpaint the label in order to mask all printed text on the label .
Nut for a hose fitting, said nut comprising a central through opening , an internal thread and a turning grip , the turning grip being connected to the nut in a rotatably fixed and axially slidable manner, the turning grip comprising multiple axial grooves and the nut correspondingly comprising multiple protrusions cooperating with the axial grooves in a positive fit, characterized in that the turning grip has multiple bulges at an outer diameter which are distributed over the circumference, that the bulges extend in axial direction and that the axial grooves are arranged in the bulges .