mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for orthodontic assessment of an image of an oral cavity comprising: transferring imaging data of an oral cavity generated by an imaging component and a wand capable of taking high resolution images of the interior of the mouth of the patient, to a central processing unit , wherein the central processing unit has access to a database having information associated with orthodontic conditions; obtaining measurements associated with selected points and dentition in the oral cavity, wherein the central processing unit generates the measurements using the imaging data; determining the curvature of the lower arch and the upper arch from the canine-to-canine arch width using a multiplication factor to indicate available space for the teeth; predicting orthodontic conditions based upon the measurements and the information in the database , wherein the central processing unit provides predictions based on the imaging data and the information in the database ; and identifying recommendable treatments based upon the predicted orthodontic conditions. transferring imaging data of an oral cavity generated by an imaging component and a wand capable of taking high resolution images of the interior of the mouth of the patient, to a central processing unit , wherein the central processing unit has access to a database having information associated with orthodontic conditions; obtaining measurements associated with selected points and dentition in the oral cavity, wherein the central processing unit generates the measurements using the imaging data; determining the curvature of the lower arch and the upper arch from the canine-to-canine arch width using a multiplication factor to indicate available space for the teeth; predicting orthodontic conditions based upon the measurements and the information in the database , wherein the central processing unit provides predictions based on the imaging data and the information in the database ; and identifying recommendable treatments based upon the predicted orthodontic conditions.
A battery pack comprising: a rechargeable battery ; a rewritable nonvolatile memory including storage areas, the storage areas including a write-inhibit area, each of the storage areas being assigned a respective unique individual address; a write request receiver configured to receive a write request and data from a charger electrically coupled to the battery pack, the write request including a first address assigned to a first storage area of the storage areas, the data including a first data element; and a write controller configured to execute a write process for the received data, the write process including: determining whether the first storage area is the write-inhibit area based on the first address included in the received write request; writing the first data element included in the received data to the first storage area in response to determining that the first storage area is not the write-inhibit area; and avoiding writing the first data element to the first storage area in response to determining that the first storage area is the write-inhibit area. a rechargeable battery ; a rewritable nonvolatile memory including storage areas, the storage areas including a write-inhibit area, each of the storage areas being assigned a respective unique individual address; a write request receiver configured to receive a write request and data from a charger electrically coupled to the battery pack, the write request including a first address assigned to a first storage area of the storage areas, the data including a first data element; and a write controller configured to execute a write process for the received data, the write process including: determining whether the first storage area is the write-inhibit area based on the first address included in the received write request; writing the first data element included in the received data to the first storage area in response to determining that the first storage area is not the write-inhibit area; and avoiding writing the first data element to the first storage area in response to determining that the first storage area is the write-inhibit area. determining whether the first storage area is the write-inhibit area based on the first address included in the received write request; writing the first data element included in the received data to the first storage area in response to determining that the first storage area is not the write-inhibit area; and avoiding writing the first data element to the first storage area in response to determining that the first storage area is the write-inhibit area.
A method of treating a wellbore, comprising: drilling the wellbore with a drilling fluid; emplacing a polymer-forming composition in the wellbore; and initiating polymerization of the polymer-forming composition to form a polymerized material in the selected region of the wellbore, wherein emplacing a polymer-forming composition directly displaces the drilling fluid in at least a selected region of the wellbore. drilling the wellbore with a drilling fluid; emplacing a polymer-forming composition in the wellbore; and initiating polymerization of the polymer-forming composition to form a polymerized material in the selected region of the wellbore,
A display panel for a terminal, comprising: an image display panel comprising an array substrate , the array substrate comprises m ∗ n subpixel units, and the subpixel units comprise respective transparent electrode areas and Thin Film Transistor (TFT) areas; an optical sensor array , for use as a camera in the terminal, in the image display panel , wherein the optical sensor array comprises a plurality of a ∗ b optical sensors arranged in an array, and each optical sensor is disposed in the TFT area of a corresponding subpixel unit, wherein, a≤m, b≤n; and a grating panel above the optical sensor array , characterised in that the grating panel comprises a lower polaroid , a liquid crystal grating layer above the lower polaroid , and a upper polaroid above the liquid crystal grating layer , the liquid crystal grating layer comprises a liquid crystal area and an optically transparent area, and the liquid crystal area is overlapped with the transparent electrode areas but is not overlapped with an optical sensing area of the optical sensors, the liquid crystal area added to the optical sensing area of the optical sensors equals a display area of the image display panel, the liquid crystal area of the grating panel is configured to reduce light incident on the optical sensors that is not perpendicular to the optical sensors, and the display panel further comprises a liquid crystal grating control circuitry connected with the liquid crystal grating layer . an image display panel comprising an array substrate , the array substrate comprises m ∗ n subpixel units, and the subpixel units comprise respective transparent electrode areas and Thin Film Transistor (TFT) areas; an optical sensor array , for use as a camera in the terminal, in the image display panel , wherein the optical sensor array comprises a plurality of a ∗ b optical sensors arranged in an array, and each optical sensor is disposed in the TFT area of a corresponding subpixel unit, wherein, a≤m, b≤n; and a grating panel above the optical sensor array , characterised in that the grating panel comprises a lower polaroid , a liquid crystal grating layer above the lower polaroid , and a upper polaroid above the liquid crystal grating layer , the liquid crystal grating layer comprises a liquid crystal area and an optically transparent area, and the liquid crystal area is overlapped with the transparent electrode areas but is not overlapped with an optical sensing area of the optical sensors, the liquid crystal area added to the optical sensing area of the optical sensors equals a display area of the image display panel, the liquid crystal area of the grating panel is configured to reduce light incident on the optical sensors that is not perpendicular to the optical sensors, and the display panel further comprises a liquid crystal grating control circuitry connected with the liquid crystal grating layer .
A method for producing a seeding agent, comprising: a fermentation step of producing a fermented raw material by aerobically fermenting a raw material comprising organic waste and an auxiliary material, a percentage of water content of the fermented raw material as measured just after completion of the fermentation step is higher than a first range; and a drying step; characterized in that : the drying step includes a first drying substep and a second drying substep; wherein the first drying substep and the second drying substep are: the first drying substep of producing a dried raw material to dry the fermented raw material until a percentage of the water content of the fermented raw material is within the first range the second drying substep to further dry the dried raw material until a percentage of water content of the dried raw material is within a range that is less than a lower limit of the first range, the first drying substep occurs before the second drying substep and is of a duration that is longer than the second drying substep; and wherein the first range is from 40% to 55%, and the range that is less than the lower limit of the first range is from 10% to 30%. a fermentation step of producing a fermented raw material by aerobically fermenting a raw material comprising organic waste and an auxiliary material, a percentage of water content of the fermented raw material as measured just after completion of the fermentation step is higher than a first range; and a drying step; characterized in that : the drying step includes a first drying substep and a second drying substep; wherein the first drying substep and the second drying substep are: the first drying substep of producing a dried raw material to dry the fermented raw material until a percentage of the water content of the fermented raw material is within the first range the second drying substep to further dry the dried raw material until a percentage of water content of the dried raw material is within a range that is less than a lower limit of the first range, the first drying substep occurs before the second drying substep and is of a duration that is longer than the second drying substep; and wherein the first range is from 40% to 55%, and the range that is less than the lower limit of the first range is from 10% to 30%. the first drying substep of producing a dried raw material to dry the fermented raw material until a percentage of the water content of the fermented raw material is within the first range the second drying substep to further dry the dried raw material until a percentage of water content of the dried raw material is within a range that is less than a lower limit of the first range, the first drying substep occurs before the second drying substep and is of a duration that is longer than the second drying substep; and wherein the first range is from 40% to 55%, and the range that is less than the lower limit of the first range is from 10% to 30%.
A wheel arrangement for a rail vehicle, in particular, a light rail vehicle, comprising - a wheel unit , and - an axle unit , wherein - said axle unit is configured to be connected to a running gear structure of said rail vehicle; - said axle unit rotatably supports said wheel unit ; - said axle unit comprises a wheel bearing unit (108.1), - said wheel bearing unit (108.1) forms a bearing for said wheel unit and defines a wheel axis of rotation (107.1) of said wheel unit during operation of said rail vehicle, - said axle unit comprises a wheel support unit (108.3) and a primary suspension unit , - said primary suspension unit is located kinematically in series between said wheel support unit (108.3) and said wheel bearing unit (108.1), characterized in that - said wheel support unit (108.3) supports said wheel bearing unit (108.1) via said primary suspension unit in a manner resilient in at least two mutually transverse translational degrees of freedom. - a wheel unit , and - an axle unit , wherein - said axle unit is configured to be connected to a running gear structure of said rail vehicle; - said axle unit rotatably supports said wheel unit ; - said axle unit comprises a wheel bearing unit (108.1), - said wheel bearing unit (108.1) forms a bearing for said wheel unit and defines a wheel axis of rotation (107.1) of said wheel unit during operation of said rail vehicle, - said axle unit comprises a wheel support unit (108.3) and a primary suspension unit , - said primary suspension unit is located kinematically in series between said wheel support unit (108.3) and said wheel bearing unit (108.1), characterized in that - said wheel support unit (108.3) supports said wheel bearing unit (108.1) via said primary suspension unit in a manner resilient in at least two mutually transverse translational degrees of freedom.
Thick matter delivery device , in particular for delivering concrete, comprising a delivery cylinder by means of which thick matter can be delivered from a thick matter collecting container into a delivery line, characterised in that the delivery cylinder is fastened to the thick matter collecting container in such a way that tensile forces of the delivery cylinder acting during the thick matter delivery are transferred to the thick matter collecting container via a form-fitting connection , and opposingly acting compressive forces are transferred thereto via a further connection .
A multiwall sheet comprising a composition comprising i) polyolefin matrices and ii) nanoclays. i) polyolefin matrices and ii) nanoclays.
A system for production of hydrogen gas, carbon materials and/or carbon monoxide gas, comprising a chamber for gasification, a chamber for combustion and a chamber for chemical vapour deposition, wherein: (a) the gasification chamber and the combustion chamber are connected by a first channel configured to allow materials to travel from the gasification chamber to the combustion chamber; (b) a second channel configured to allow materials to return from the combustion chamber to the gasification chamber; (c) a third channel configured to allow materials to be fed from the gasification chamber into the chemical vapor deposition chamber; and (d) a fourth channel configured to allow materials from the combustion chamber to fed into the chemical vapor deposition chamber, wherein the chemical vapour deposition chamber includes an upwardly extending wall defining a cavity having a lower portion and an upper portion with the upper portion having a volume capacity larger than a volume capacity of the lower portion, and wherein the wall defines an internal surface provided with a plurality of protrusions extending into the cavity for reducing horizontal cross section of the cavity thereat, further wherein the chemical vapour deposition chamber is designed with widening in cross section towards the top. (a) the gasification chamber and the combustion chamber are connected by a first channel configured to allow materials to travel from the gasification chamber to the combustion chamber; (b) a second channel configured to allow materials to return from the combustion chamber to the gasification chamber; (c) a third channel configured to allow materials to be fed from the gasification chamber into the chemical vapor deposition chamber; and (d) a fourth channel configured to allow materials from the combustion chamber to fed into the chemical vapor deposition chamber,
Folding box made of paper or cardboard with a closure that cannot be opened easily, in particular a closure that cannot be opened by children, and a reclosable closure, wherein the folding box is constructed in two parts, namely comprising a slipcase and an insert , wherein a locking device is provided which locks the insert in the slipcase via a locking tab in this insert and a recess in this slipcase , and wherein a bottom wall , a first side wall , a second side wall and a top wall is provided for the slipcase , which form a sleeve and the sleeve is closed at one end by a rear wall , wherein the rear wall is formed from two or more rear wall tabs which are hinged to the bottom wall , side wall and/or top wall , wherein the locking tab is arranged on the side of the sleeve opposite the rear wall and is folded into the sleeve and wherein the locking tab extends over the entire longitudinal extension of the sleeve and is provided with a projection which comes to rest on the rear wall and can have a grip hole , and wherein the insert has a bottom wall , two longitudinal side walls hinged thereto and two narrow side walls hinged to the bottom wall , wherein the one narrow side wall serves as the rear wall and the other narrow side wall serves as the front wall , characterized in that the recess is arranged in the rear wall of the insert at the end facing away from the bottom wall , into which recess the locking tab of the slipcase can engage, that a rear wall tab is hinged to the rear wall of the insert and is folded onto the rear wall of the insert , and that the recess extends into the rear wall tab or a recess corresponding to the recess in the rear wall is arranged there.
An apparatus for processing a ultra-wide-band, UWB, signal, comprising: a plurality of RF amplifiers arranged in a cascade structure, the plurality of RF amplifiers configured to receive and amplify a UWB signal, the UWB signal comprising an envelope signal modulated with a radio frequency, RF, carrier signal; characterised in further comprising a plurality of baseband blocks, each of the plurality of baseband blocks is coupled to a corresponding one of the plurality of RF amplifiers, at least one of the baseband blocks configured to tap an output signal from the corresponding one of the plurality of RF amplifiers; and a processor coupled to the plurality of baseband blocks, the processor configured to process an output signal from at least one of the plurality of baseband blocks to convert the envelope signal into a digital domain. a plurality of RF amplifiers arranged in a cascade structure, the plurality of RF amplifiers configured to receive and amplify a UWB signal, the UWB signal comprising an envelope signal modulated with a radio frequency, RF, carrier signal; characterised in further comprising a plurality of baseband blocks, each of the plurality of baseband blocks is coupled to a corresponding one of the plurality of RF amplifiers, at least one of the baseband blocks configured to tap an output signal from the corresponding one of the plurality of RF amplifiers; and a processor coupled to the plurality of baseband blocks, the processor configured to process an output signal from at least one of the plurality of baseband blocks to convert the envelope signal into a digital domain.
A composition for maintaining or improving the quality of processed meat comprising on a dry matter basis: - between 20 and 75% w/w acid equivalent of an organic acid component selected from the group of acetate, lactate and combinations thereof; - between 10 and 75% w/w of plasma protein; and - between 0.5 and 5% w/w acid equivalent of ascorbate; wherein the composition when diluted with distilled water of 20°C to a dry matter content of 10% w/w has a pH in the range of 5.0 to 9.0. - between 20 and 75% w/w acid equivalent of an organic acid component selected from the group of acetate, lactate and combinations thereof; - between 10 and 75% w/w of plasma protein; and - between 0.5 and 5% w/w acid equivalent of ascorbate;
A process for the production of a low-mineral quark matrix, comprising the following steps: (a) producing a skimmed milk by heat treatment of raw milk, and separation of cream; (b) subjecting the skimmed milk such obtained to an ultrafiltration step, with a membrane having a cut-off of 1,000 to 50,000 Dalton, obtaining a high-protein retentate R1 and a high-lactose permeate P1; (c) enriching the retentate R1 with an amount of lactose which corresponds to the amount separated in the ultrafiltration step as permeate, (d) heat treating the enrichment product such obtained until denaturation sets in, (e) fermenting the denaturation product such obtained by adding starter cultures and rennet, and (f) adjusting the fermentation product thus obtained to defined dry matter and protein content, (a) producing a skimmed milk by heat treatment of raw milk, and separation of cream; (b) subjecting the skimmed milk such obtained to an ultrafiltration step, with a membrane having a cut-off of 1,000 to 50,000 Dalton, obtaining a high-protein retentate R1 and a high-lactose permeate P1; (c) enriching the retentate R1 with an amount of lactose which corresponds to the amount separated in the ultrafiltration step as permeate, (d) heat treating the enrichment product such obtained until denaturation sets in, (e) fermenting the denaturation product such obtained by adding starter cultures and rennet, and (f) adjusting the fermentation product thus obtained to defined dry matter and protein content,
A method for manufacturing a microstructured device comprising the following steps: a) providing a substrate b) printing a non-solid ink on the substrate, the ink solidifying upon contact with the substrate to form a negative pattern of at least one microstructure of the microstructured device to be fabricated; c) covering the ink in solid form with a non-crosslinked polymer comprising an additive capable of allowing crosslinking of said polymer, said polymer being immiscible with the pattern obtained in step b) in order to form a cover for the pattern, said polymer having a melting temperature strictly higher than the sublimation or evaporation temperature of the ink forming the pattern; d) cross-linking the cover; then e) sublimating or, depending on the nature of the ink, liquefying and then evaporating the ink so as to form the microstructured device comprising said at least one microstructure. a) providing a substrate b) printing a non-solid ink on the substrate, the ink solidifying upon contact with the substrate to form a negative pattern of at least one microstructure of the microstructured device to be fabricated; c) covering the ink in solid form with a non-crosslinked polymer comprising an additive capable of allowing crosslinking of said polymer, said polymer being immiscible with the pattern obtained in step b) in order to form a cover for the pattern, said polymer having a melting temperature strictly higher than the sublimation or evaporation temperature of the ink forming the pattern; d) cross-linking the cover; then e) sublimating or, depending on the nature of the ink, liquefying and then evaporating the ink so as to form the microstructured device comprising said at least one microstructure.