mhurhangee/patent-ind-claim-en huggingface dataset:
An image forming apparatus for executing a printing based on a job provided with job setting information, comprising: a display section operable to display: two or more job images (JB) on a schedule screen , each of the job images representing each of two or more jobs; an operation section for changing a display scale of the two or more job images displayed on the schedule screen by changing a display scale of the schedule screen; and a control section configured to control the display of the two or more job images on the schedule screen, characterised in that : the display section is further operable to display: a pop-up screen corresponding to a selected job image; and a job re-selection screen having job selection buttons for selecting a job of the pop-up screen ; and wherein when the display scale of the schedule screen is changed such that the two or more job images are overlapped with each other in the same display area, based on an operation of changing the display scale of the schedule screen, the control section enables selection of each of the overlapped job images displayed in the same display area on the screen by selecting a job of the pop up screen according to the operation of the job selection buttons. a display section operable to display: two or more job images (JB) on a schedule screen , each of the job images representing each of two or more jobs; an operation section for changing a display scale of the two or more job images displayed on the schedule screen by changing a display scale of the schedule screen; and a control section configured to control the display of the two or more job images on the schedule screen, characterised in that : the display section is further operable to display: a pop-up screen corresponding to a selected job image; and a job re-selection screen having job selection buttons for selecting a job of the pop-up screen ; and wherein when the display scale of the schedule screen is changed such that the two or more job images are overlapped with each other in the same display area, based on an operation of changing the display scale of the schedule screen, the control section enables selection of each of the overlapped job images displayed in the same display area on the screen by selecting a job of the pop up screen according to the operation of the job selection buttons. a pop-up screen corresponding to a selected job image; and a job re-selection screen having job selection buttons for selecting a job of the pop-up screen ; and wherein when the display scale of the schedule screen is changed such that the two or more job images are overlapped with each other in the same display area, based on an operation of changing the display scale of the schedule screen, the control section enables selection of each of the overlapped job images displayed in the same display area on the screen by selecting a job of the pop up screen according to the operation of the job selection buttons.
A computed tomography method for determining a volumetric representation of a sample , the method comprising an initial reconstruction step for reconstructing initial volume data of the sample from x-ray projections of the sample taken by an x-ray system , a step of determining a part of the reconstructed initial sample volume to be updated, and an iterative update process for generating, using an iterative reconstruction method, updated volume data only for the part of the volume data determined to be updated, wherein in said step of determining the part of the sample volume to be updated, individually evaluating for every single voxel in said volume data , based on available quality information for the reconstructed volume data , whether or not this voxel fulfils a predetermined condition indicating that an update is required for this voxel, characterized in that in said iterative update process , generating said updated volume data only for those voxels for which it has been determined that an update is required through a step of determining from process data of said reconstruction process , individual confidence measures for every single voxel of the reconstructed volume data.
A shading device for shading a display system comprising a plurality of light source units , the shading device comprising a first component and a second component , the first component being a core component and the second component covering the core component , wherein the second component is a solid continuous layer having a lower optical reflectivity than the core component , characterized in that both first and second components comprise holes , adapted for receiving a plurality of light source units , said second component being adapted for being in sealing contact with said plurality of light source units .
A motorcycle tire comprising: a tread portion having a first tread edge (Te1) and a second tread edge (Te2) and provided with first main oblique grooves and second main oblique grooves , wherein the first main oblique grooves extend between the first tread edge (Te1) and the second tread edge (Te2), while inclining with respect to the tire circumferential direction to one direction, the second main oblique grooves extend between the first tread edge (Te1) and the second tread edge (Te2), while inclining with respect to the tire circumferential direction to one direction opposite to the first main oblique grooves , the first main oblique grooves and the second main oblique grooves are alternately arranged in the tire circumferential direction, and the first main oblique grooves are connected to the second main oblique grooves , characterized in that the tread portion comprises a plurality of substantially triangular first regions (S1) each defined as being surrounded by one of the first main oblique grooves , one of the second main oblique grooves , and the first tread edge (Te 1), and each of the first regions (S1) is divided by sub grooves into blocks which include a largest block whose ground contacting surface has a maximum area A1, and a smallest block whose ground contacting surface has a minimum area A2 which is in a range from 40% to 80% of the maximum area A1. a tread portion having a first tread edge (Te1) and a second tread edge (Te2) and provided with first main oblique grooves and second main oblique grooves , the first main oblique grooves extend between the first tread edge (Te1) and the second tread edge (Te2), while inclining with respect to the tire circumferential direction to one direction, the second main oblique grooves extend between the first tread edge (Te1) and the second tread edge (Te2), while inclining with respect to the tire circumferential direction to one direction opposite to the first main oblique grooves , the first main oblique grooves and the second main oblique grooves are alternately arranged in the tire circumferential direction, and the first main oblique grooves are connected to the second main oblique grooves , characterized in that the tread portion comprises a plurality of substantially triangular first regions (S1) each defined as being surrounded by one of the first main oblique grooves , one of the second main oblique grooves , and the first tread edge (Te 1), and each of the first regions (S1) is divided by sub grooves into blocks which include a largest block whose ground contacting surface has a maximum area A1, and a smallest block whose ground contacting surface has a minimum area A2 which is in a range from 40% to 80% of the maximum area A1.
A pharmaceutical composition comprising at least one humectant in an amount from 15% to 65% by weight based on the total weight of the composition, one gelling agent and a mixture of polyvinylpyrrolidone and of copolyvidone as a film-forming agent, for its use in the treatment of hyposialia or asialia
Method for monitoring a texturing process for producing crimped threads, in which a thread tension is measured continuously on the textured thread and in which the thread tension measuring signals are captured and analysed continuously, at least in one time interval, characterized in that a sequence of the thread tension measuring signals occurring in the time interval is analysed with a machine learning program for the early diagnosis of one of a plurality of fault sources.
A battery module comprising one or more battery cell units , wherein the battery cell unit comprises a battery cell , a fixing member located surrounding an outer circumference surface of the battery cell and a heat absorbing material , characterized in that the heat absorbing material is located in a gap between the outer circumference surface of the battery cell and the fixing member , and the heat absorbing material comprises water and silica.
A three-dimensional data encoding method using a first attribute information encoding scheme and a second attribute information encoding scheme different from the first attribute information encoding scheme, the method comprising: performing transformation, the transformation being one of (i) transforming a first quantization parameter to a first scale value and (ii) transforming the first scale value to the first quantization parameter, based on a first table indicating a correspondence between a plurality of values of the first quantization parameter and a plurality of values of the first scale value, the first table being a common table shared between the first attribute information encoding scheme and the second attribute information encoding scheme; performing encoding including a first quantization process to generate encoded attribute information, the first quantization process being a process of dividing, by the first scale value, each of first coefficient values based on items of attribute information of three-dimensional points included in point cloud data; and generating a bitstream including the encoded attribute information and the first quantization parameter. performing transformation, the transformation being one of (i) transforming a first quantization parameter to a first scale value and (ii) transforming the first scale value to the first quantization parameter, (i) transforming a first quantization parameter to a first scale value and (ii) transforming the first scale value to the first quantization parameter, based on a first table indicating a correspondence between a plurality of values of the first quantization parameter and a plurality of values of the first scale value, the first table being a common table shared between the first attribute information encoding scheme and the second attribute information encoding scheme; performing encoding including a first quantization process to generate encoded attribute information, the first quantization process being a process of dividing, by the first scale value, each of first coefficient values based on items of attribute information of three-dimensional points included in point cloud data; and generating a bitstream including the encoded attribute information and the first quantization parameter.
An apparatus comprising an encoder device and an autosampler tray, the encoder device comprising a plurality of arranged distinguishable elements on an encoder support, the plurality of arranged distinguishable elements comprise a plurality of arranged lines and gaps of varying length that are detectable and usable to generate a plurality of unique codes, wherein the arranged lines and gaps of a same length provide a same digit for each of the plurality of unique codes, wherein each unique code identifies a discrete sample holding position of the autosampler tray to permit loading and unloading of a sample at the identified discrete sample holding position without having to return to a zero position of the autosampler tray, wherein the unique code is generated for a subset of the plurality of arranged distinguishable elements on the encoder support, in which each of the arranged distinguishable elements comprises an independent defined length in a measurement direction that is used to generate the unique codes, and wherein the subset comprises at least two of the plurality of the arranged distinguishable elements on the encoder support of varying length.
An orally administrable pharmaceutical composition comprising: (i) a first portion comprising calcium carbonate, and one or more pharmaceutically acceptable excipients, wherein the first portion is formulated for immediate release, and (ii) a second portion comprising calcium citrate as the sole calcium compound and one or more pharmaceutically acceptable excipients, wherein the second portion is formulated for extended release, and wherein the first portion and the second portion form a layered tablet. (i) a first portion comprising calcium carbonate, and one or more pharmaceutically acceptable excipients, wherein the first portion is formulated for immediate release, and (ii) a second portion comprising calcium citrate as the sole calcium compound and one or more pharmaceutically acceptable excipients, wherein the second portion is formulated for extended release, and
A process of producing ethanol from whole stillage, the process comprising: obtaining a supply of whole stillage from an ethanol production facility after ethanol has been extracted therefrom; pre-treating the whole stillage to convert hemicellulose portions of the whole stillage into sugars; the pre-treating steps comprising: adding acid to the whole stillage to decrease its pH level; heating and pressurizing the whole stillage; holding the whole stillage under pressure and heat for a dwell time of 1-20 minutes; removing pressure from the whole stillage to cause flashing; and cooling the whole stillage, adding cellulase, xylanase, cellobiohydrolase, and beta-glucosidase enzymes to the whole stillage to convert cellulose portions of the whole stillage to sugars; fermenting the whole stillage to create a beer mixture; and distilling the beer mixture to separate ethanol therefrom. obtaining a supply of whole stillage from an ethanol production facility after ethanol has been extracted therefrom; pre-treating the whole stillage to convert hemicellulose portions of the whole stillage into sugars; the pre-treating steps comprising: adding acid to the whole stillage to decrease its pH level; heating and pressurizing the whole stillage; holding the whole stillage under pressure and heat for a dwell time of 1-20 minutes; removing pressure from the whole stillage to cause flashing; and cooling the whole stillage, adding acid to the whole stillage to decrease its pH level; heating and pressurizing the whole stillage; holding the whole stillage under pressure and heat for a dwell time of 1-20 minutes; removing pressure from the whole stillage to cause flashing; and cooling the whole stillage, adding cellulase, xylanase, cellobiohydrolase, and beta-glucosidase enzymes to the whole stillage to convert cellulose portions of the whole stillage to sugars; fermenting the whole stillage to create a beer mixture; and distilling the beer mixture to separate ethanol therefrom.
A method comprising: receiving color values for a tile of an image to be encoded using a palette-based encoder; defining clusters of color values for a palette, each cluster associated with a different color value in the palette, and encoding color values of the tile within respective clusters with respect to the associated color values, wherein the defining and the encoding is done by looping over all pixels in the tile, including: checking a difference between a color value of a given pixel in the tile and color values already in the palette; if the difference is less than a threshold, then storing residual bits against an existing color value in the palette and marking the given pixel; otherwise, if the color value is not in the palette, storing the color value of the given pixel in the palette as a new palette entry and updating the palette, and if the color value is in the palette, recording the palette entry identifier for the given pixel; and if there are pixels left in the tile, iterating the loop with a next pixel in the tile. receiving color values for a tile of an image to be encoded using a palette-based encoder; defining clusters of color values for a palette, each cluster associated with a different color value in the palette, and encoding color values of the tile within respective clusters with respect to the associated color values, wherein the defining and the encoding is done by looping over all pixels in the tile, including: checking a difference between a color value of a given pixel in the tile and color values already in the palette; if the difference is less than a threshold, then storing residual bits against an existing color value in the palette and marking the given pixel; otherwise, if the color value is not in the palette, storing the color value of the given pixel in the palette as a new palette entry and updating the palette, and if the color value is in the palette, recording the palette entry identifier for the given pixel; and if there are pixels left in the tile, iterating the loop with a next pixel in the tile. checking a difference between a color value of a given pixel in the tile and color values already in the palette; if the difference is less than a threshold, then storing residual bits against an existing color value in the palette and marking the given pixel; otherwise, if the color value is not in the palette, storing the color value of the given pixel in the palette as a new palette entry and updating the palette, and if the color value is in the palette, recording the palette entry identifier for the given pixel; and if there are pixels left in the tile, iterating the loop with a next pixel in the tile.
Forming apparatus for producing glass products, comprising - a forming unit for forming a deformable glass blank in a forming position (A), - a transport device for successively moving glass blanks into an working area of the forming unit , wherein the transport device has a heating device for heating glass blanks in holding positions (B) - the forming unit and the transport device being adapted to transfer a glass blank in the working area of the forming unit with a transfer movement from its holding position (B) into the forming position (A), so that the glass blank can be positioned in a cavity of the forming unit , and - wherein the transfer movement is oriented substantially vertically. - a forming unit for forming a deformable glass blank in a forming position (A), - a transport device for successively moving glass blanks into an working area of the forming unit , wherein the transport device has a heating device for heating glass blanks in holding positions (B) - the forming unit and the transport device being adapted to transfer a glass blank in the working area of the forming unit with a transfer movement from its holding position (B) into the forming position (A), so that the glass blank can be positioned in a cavity of the forming unit , and - wherein the transfer movement is oriented substantially vertically.
A bone screw defining a longitudinal axis (X1) and comprising: a shaft including a proximal portion , a distal portion and a wall including at least one thread having an external thread form having a lattice configuration, the thread form defining at least one void configured for bone growth therethrough, wherein the distal portion is fabricated onto the proximal portion by an additive manufacturing method, wherein the void defines an axis (X2) which is disposed parallel relative to the axis (X1), and wherein the proximal portion is fabricated by a traditional machining method including subtractive, deformative or transformative manufacturing methods. a shaft including a proximal portion , a distal portion and a wall including at least one thread having an external thread form having a lattice configuration, the thread form defining at least one void configured for bone growth therethrough, wherein the distal portion is fabricated onto the proximal portion by an additive manufacturing method, wherein the void defines an axis (X2) which is disposed parallel relative to the axis (X1), and wherein the proximal portion is fabricated by a traditional machining method including subtractive, deformative or transformative manufacturing methods.
Support device for supporting a rod-shaped workpiece for a machine tool along a longitudinal axis (L) of a support area , comprising at least one twin support adapted to support a section of the workpiece in the support area , wherein the twin support comprises two support elements each being rotatable around a rotational axis (R1, R2), wherein each of the rotational axes (R1, R2) is perpendicular to the longitudinal axis (L), wherein each support element comprises a quadrant shaped support surface forming together a semicircular shaped support surface adapted for supporting a section of the workpiece , wherein the support area comprises an open side opposed to the semicircular shaped support surface , and wherein the support elements are adapted to provide a varying diameter of the semicircular shaped support surface based upon the position of rotation around the rotational axes (R1, R2) in order to support varying workpieces . at least one twin support adapted to support a section of the workpiece in the support area , wherein the twin support comprises two support elements each being rotatable around a rotational axis (R1, R2), wherein each of the rotational axes (R1, R2) is perpendicular to the longitudinal axis (L), wherein each support element comprises a quadrant shaped support surface forming together a semicircular shaped support surface adapted for supporting a section of the workpiece , wherein the support area comprises an open side opposed to the semicircular shaped support surface , and wherein the support elements are adapted to provide a varying diameter of the semicircular shaped support surface based upon the position of rotation around the rotational axes (R1, R2) in order to support varying workpieces .
A reconfigurable melt delivery system for use with a first injection unit and a second injection unit comprising: a first arm manifold configured to receive a moldable material from a second injection unit; an exchangeable second arm manifold in fluid communication with the first arm manifold that is configured to receive the moldable material from the first arm manifold and to transfer the moldable material to an outlet nozzle ; and characterized by a repositionable and replaceable insert plate configured to be repositioned or replaced relative to remaining plates of the melt delivery system , wherein the outlet nozzle is secured within a mold facing surface of the insert plate and is radially offset from a central machine nozzle opening of the melt delivery system for delivering the moldable material to a corresponding offset mold gate of a two-material mold. a first arm manifold configured to receive a moldable material from a second injection unit; an exchangeable second arm manifold in fluid communication with the first arm manifold that is configured to receive the moldable material from the first arm manifold and to transfer the moldable material to an outlet nozzle ; and characterized by a repositionable and replaceable insert plate configured to be repositioned or replaced relative to remaining plates of the melt delivery system , wherein the outlet nozzle is secured within a mold facing surface of the insert plate and is radially offset from a central machine nozzle opening of the melt delivery system for delivering the moldable material to a corresponding offset mold gate of a two-material mold.