mhurhangee/ep-ind-claims huggingface dataset:
A photosensitive resin comprising: a polybenzoxazole precursor bearing acid labile functional groups having the structure: wherein k 1 is an integer of 0,1 or 2, k 2 is an integer of 0 or 1, and the sum of k 1 and k 2 is 0 or 2; Ar 1 is a tetravalent aromatic group, or a mixture of a tetravalent aromatic group and a divalent aromatic, aliphatic or heterocyclic group and where the fraction of Ar 1 being a divalent group is 0-60 mole% and the sum of Ar 1 being a tetravalent group and a divalent group is 100 mole%, Ar 2 is a divalent aromatic, aliphatic, or heterocyclic group or siloxane group; D is a monovalent acid labile group and, in combination with the oxygen atom to which it is attached, is selected from the group consisting of acetals, ketals, carbonates, ethers, moieties containing t-butyl ester groups, and mixtures thereof; and n is an integer from 20 to 200. a polybenzoxazole precursor bearing acid labile functional groups having the structure: wherein k 1 is an integer of 0,1 or 2, k 2 is an integer of 0 or 1, and the sum of k 1 and k 2 is 0 or 2; Ar 1 is a tetravalent aromatic group, or a mixture of a tetravalent aromatic group and a divalent aromatic, aliphatic or heterocyclic group and where the fraction of Ar 1 being a divalent group is 0-60 mole% and the sum of Ar 1 being a tetravalent group and a divalent group is 100 mole%, Ar 2 is a divalent aromatic, aliphatic, or heterocyclic group or siloxane group; D is a monovalent acid labile group and, in combination with the oxygen atom to which it is attached, is selected from the group consisting of acetals, ketals, carbonates, ethers, moieties containing t-butyl ester groups, and mixtures thereof; and n is an integer from 20 to 200.
An imaging element comprising an image receiving layer, an extruded compliant layer, and an aqueous-coated subbing layer between the extruded compliant layer and the image receiving layer that is optionally extruded also, wherein the extruded compliant layer is non-voided and comprises from 35 to 80 weight % of a matrix polymer, from 10 to 40 weight % of at least one elastomeric polymer, and from 2 to 25 weight % of an amorphous or semi-crystalline polymer additive.
A head element number check method in a printer which includes a head including a plurality of head elements, a latch driver and a shift register for inputting printing data corresponding to one line to the head through the latch driver and performs printing with using the head elements, the number of head elements corresponding to one of a plurality of types which meet a predetermined standard, the head element number check method comprising: (a) inputting element number check data to the shift register as the printing data corresponding to one line, the element number check data having a digit number corresponding to the largest number of the head elements in the predetermined standard, the first digit thereof being 1 and the other digits thereof being 0; (b) detecting a divided voltage of a serial circuit of a test resistor element and a resistor element (3-1 to 3-n) provided in each of the head elements during the step (a); and (c) checking the number of the head elements on the basis of a result of the step (b); (d) if the number of the head elements is not determined in the step (c), inputting element number check data which has a digit number corresponding to the next largest number of the head elements in the predetermined standard, the first digit thereof being 1 and the other digits thereof being 0, to the shift register as the printing data corresponding to one line; (e) after the step (d), performing the steps (b) and (c) again; and (f) repeating the steps (d) and (e) while gradually reducing the digit number of the element check data in conformity with the predetermined standard until the number of the head elements is determined in the step (c). (a) inputting element number check data to the shift register as the printing data corresponding to one line, the element number check data having a digit number corresponding to the largest number of the head elements in the predetermined standard, the first digit thereof being 1 and the other digits thereof being 0; (b) detecting a divided voltage of a serial circuit of a test resistor element and a resistor element (3-1 to 3-n) provided in each of the head elements during the step (a); and (c) checking the number of the head elements on the basis of a result of the step (b); (d) if the number of the head elements is not determined in the step (c), inputting element number check data which has a digit number corresponding to the next largest number of the head elements in the predetermined standard, the first digit thereof being 1 and the other digits thereof being 0, to the shift register as the printing data corresponding to one line; (e) after the step (d), performing the steps (b) and (c) again; and (f) repeating the steps (d) and (e) while gradually reducing the digit number of the element check data in conformity with the predetermined standard until the number of the head elements is determined in the step (c).
Junction box comprising a base structure that defines a housing volume for electrical cables and other components, said base structure comprising a rear wall and perimeter walls, wherein the perimeter walls comprise removable portions which extend between the rear wall and a perimeter edge that defines an entrance to the housing volume, said removable portions being arranged such as to close a passage designed such that a flexible tube can pass through the corresponding perimeter wall and wherein the perimeter edge comprises a shoulder, characterized in that said shoulder is provided with a plurality of through openings suitable for housing a tie for locking the flexible tube, said through openings opening on one side towards the exterior of said base structure and on the other side into said housing volume in a region adjacent to said removable portions, wherein the shoulder extends from said perimeter edge towards the interior of the base structure.
Method for monitoring a stable convergence behaviour of a Kalman filter, which estimates states and/or parameters of an energy storage system, more particularly a battery cell, wherein a covariance behaviour provided by the Kalman filter in terms of at least one state and/or parameter of the energy storage system is compared with a corresponding desired covariance behaviour of the state and/or parameter, wherein the Kalman filter is automatically deactivated for each state and/or each parameter of the energy storage system, of which the covariance behaviour exceeds the corresponding desired covariance behaviour, characterised in that the desired covariance behaviour has a funnel function TF(t) decreasing over time, wherein TF(t) = α·e bt + c with configurable coefficients a, b, c.
A computer-implemented method of finding a text mask in an original image for extracting text for inpainting, comprising: applying, with one or more processors, edge detection (702, 806, 808) to detect an edge of text in the original image as an edge mask (810, 812); the one or more processors using the edge mask to find a set of hierarchical closed edge contours of the text and to fill in the closed edge contours with pixels labeled as possible text as a contour mask (704, 814, 816); applying, with the one or more processors, a binarization method to the original image to convert the original image into a binary image and to detect a stroke edge of the text in the binary image; partitioning, with the one or more processors, the binary image based on the detected stroke edge of the text in the binary image and applying at least one binarization method on each image partition to obtain at least one binary mask candidate as foreground for inpainting; combining, with the one or more processors, the contour mask and at least one of the edge mask and the binary mask into a fusion mask and applying the fusion mask to the original image to extract the text in the original image and to obtain an original background of the original image without the text; and inpainting, with the one or more processors, portions of the original image where the text has been extracted. applying, with one or more processors, edge detection (702, 806, 808) to detect an edge of text in the original image as an edge mask (810, 812); the one or more processors using the edge mask to find a set of hierarchical closed edge contours of the text and to fill in the closed edge contours with pixels labeled as possible text as a contour mask (704, 814, 816); applying, with the one or more processors, a binarization method to the original image to convert the original image into a binary image and to detect a stroke edge of the text in the binary image; partitioning, with the one or more processors, the binary image based on the detected stroke edge of the text in the binary image and applying at least one binarization method on each image partition to obtain at least one binary mask candidate as foreground for inpainting; combining, with the one or more processors, the contour mask and at least one of the edge mask and the binary mask into a fusion mask and applying the fusion mask to the original image to extract the text in the original image and to obtain an original background of the original image without the text; and inpainting, with the one or more processors, portions of the original image where the text has been extracted.
A method for producing a resin composite, comprising performing a laminating step of using a fiber-reinforced resin sheet and a core material including a resin foam, and integrally laminating said core material and said fiber-reinforced resin sheet to form the resin composite, wherein said fiber-reinforced resin sheet comprises a substrate sheet including a fiber woven fabric and a resin impregnated in said substrate sheet, said core material is a polyester-based resin foam having a surface roughness (Ra) of 2.5 μm or less, and in the laminating step, said fiber-reinforced resin sheet is laminated on a surface of said polyester-based resin foam, the surface having said surface roughness (Ra); and wherein a sheet preparing step of extrusion foaming a polyester-based resin composition to prepare a polyester-based resin expanded sheet to be used as said core material, and a sheet smoothing step of smoothing a surface of said polyester-based resin expanded sheet obtained in the sheet preparing step, are performed, in the sheet preparing step, said polyester-based resin expanded sheet having a surface roughness (Ra) exceeding 2.5 μm is prepared, in the sheet smoothing step, a surface of said polyester-based resin expanded sheet is smoothed so that said surface roughness (Ra) becomes 2.5 μm or less, and in the laminating step, said fiber-reinforced resin sheet is laminated on a surface of said polyester-based resin expanded sheet, said surface having been smoothed in the sheet smoothing step. said fiber-reinforced resin sheet comprises a substrate sheet including a fiber woven fabric and a resin impregnated in said substrate sheet, said core material is a polyester-based resin foam having a surface roughness (Ra) of 2.5 μm or less, and in the laminating step, said fiber-reinforced resin sheet is laminated on a surface of said polyester-based resin foam, the surface having said surface roughness (Ra); and wherein a sheet preparing step of extrusion foaming a polyester-based resin composition to prepare a polyester-based resin expanded sheet to be used as said core material, and a sheet smoothing step of smoothing a surface of said polyester-based resin expanded sheet obtained in the sheet preparing step, in the sheet preparing step, said polyester-based resin expanded sheet having a surface roughness (Ra) exceeding 2.5 μm is prepared, in the sheet smoothing step, a surface of said polyester-based resin expanded sheet is smoothed so that said surface roughness (Ra) becomes 2.5 μm or less, and in the laminating step, said fiber-reinforced resin sheet is laminated on a surface of said polyester-based resin expanded sheet, said surface having been smoothed in the sheet smoothing step.
Electric bicycle battery holder assembly for two-stage unlocking of a traction accumulator from an electric bicycle frame portion, comprising a locking bracket at one longitudinal end of the traction accumulator and a counter bracket at the other longitudinal end of the traction accumulator, wherein the locking bracket consists of a frame holding module at the frame part side and of a battery holding module at the traction battery side, which cooperates with the frame holding module in a locking manner in one locking position and in a loss preventing manner in a disengaged and different loss preventing position, wherein the frame holding module comprises a locking latch movable between a locking position and an unlocking position and the battery holding module comprises a locking step and a separate loss-prevention latch movable between a loss-prevention position and an unsecured position, wherein the locking latch lockingly engages the locking step, characterised in that the locking latch engages the loss-prevention latch in a loss-preventing and non-locking manner. a locking bracket at one longitudinal end of the traction accumulator and a counter bracket at the other longitudinal end of the traction accumulator, wherein the locking bracket consists of a frame holding module at the frame part side and of a battery holding module at the traction battery side, which cooperates with the frame holding module in a locking manner in one locking position and in a loss preventing manner in a disengaged and different loss preventing position, wherein the frame holding module comprises a locking latch movable between a locking position and an unlocking position and the battery holding module comprises a locking step and a separate loss-prevention latch movable between a loss-prevention position and an unsecured position, wherein the locking latch lockingly engages the locking step, characterised in that the locking latch engages the loss-prevention latch in a loss-preventing and non-locking manner.
A polyphenylene ether resin composition comprising 100 parts by weight of a resin component based on a polyphenylene ether resin, 0.01 to 5 parts by weight of a carbon black, and 0.1 to 20 parts by weight of an alkaline earth metal carbonate and/or sulfate, wherein the resin component contains the polyphenylene ether resin in a content of not less than 50 wt% relative to the total amount of the resin component, and wherein the carbon black has an average primary particle diameter of 5 to 30 nm and a DBP oil absorption amount of 20 to 60 cm 3 /100 g.
A treatment apparatus of injured tissues comprising: - a cover capable of being placed over or around an individual's body part such that the cover has a positioning zone for positioning said individual's body part, the cover being equipped with an inlet for a gaseous medium and with an outlet for removing the gaseous medium present in the cover, - a control system of the flow of the gaseous medium, characterized in that the control system comprises a deflector (12, 12 1), said deflector (12, 12 1) modifying the direction of flow of the gaseous medium entering the cover via the inlet away from the positioning zone and creating a turbulent flow regimen in order to homogenize the gaseous medium present inside the cover. - a cover capable of being placed over or around an individual's body part such that the cover has a positioning zone for positioning said individual's body part, the cover being equipped with an inlet for a gaseous medium and with an outlet for removing the gaseous medium present in the cover, - a control system of the flow of the gaseous medium,
A loop amount absorption apparatus for a slitter line, said loop amount absorption apparatus comprising: an up-down moving device and a roll movable up and down in a vertical direction by the up-down moving device, wherein the roll comprises a rotating body that is constituted to be rotatable and movable up and down, and suitable to be disposed between a slitter and a tensioner of the slitter line; the loop amount absorption apparatus being characterised in that, the roll is a negative pressure roll, wherein a conduction hole is provided inside the rotating body and in which, in use, a negative pressure is formed by a predetermined suction device; a conduction groove is formed on the surface of the rotating body and connected to the conduction hole; and an outer layer portion low in air permeability is provided on the outside of the conduction groove. an up-down moving device and a roll movable up and down in a vertical direction by the up-down moving device, wherein the roll comprises a rotating body that is constituted to be rotatable and movable up and down, and suitable to be disposed between a slitter and a tensioner of the slitter line; the loop amount absorption apparatus being characterised in that, the roll is a negative pressure roll, wherein a conduction hole is provided inside the rotating body and in which, in use, a negative pressure is formed by a predetermined suction device; a conduction groove is formed on the surface of the rotating body and connected to the conduction hole; and an outer layer portion low in air permeability is provided on the outside of the conduction groove.
A hybrid powertrain (10:1,10:2) for a vehicle, said hybrid powertrain comprising: - an internal combustion engine; - a first and a second electric machine (EMA, EMB) electrically coupled to each other; and - a planetary gear set, comprising a first, a second and a third member, wherein the second member is a carrier shaft, wherein the internal combustion engine is mechanically engaged to the second member of the planetary gear set, the first electric machine is arranged mechanically engaged to the first member of the planetary gear set, the second electric machine is arranged mechanically engagable to the second and third member of the planetary gear set so as to establish a plurality of operational modes of the hybrid powertrain, wherein the third member of the planetary is coupled to an output member (S1, DA) for transferring of a driving torque from the hybrid powertrain to the vehicle; characterized in comprising: - a torque converter; wherein the internal combustion engine is mechanically engaged to the second member of the planetary gear set via the torque converter; and wherein the first member of the planetary gear set is a ring gear and the third member is a sun gear. - an internal combustion engine; - a first and a second electric machine (EMA, EMB) electrically coupled to each other; and - a planetary gear set, comprising a first, a second and a third member, wherein the second member is a carrier shaft, wherein the internal combustion engine is mechanically engaged to the second member of the planetary gear set, the first electric machine is arranged mechanically engaged to the first member of the planetary gear set, the second electric machine is arranged mechanically engagable to the second and third member of the planetary gear set so as to establish a plurality of operational modes of the hybrid powertrain, wherein the third member of the planetary is coupled to an output member (S1, DA) for transferring of a driving torque from the hybrid powertrain to the vehicle; - a torque converter; wherein the internal combustion engine is mechanically engaged to the second member of the planetary gear set via the torque converter; and wherein the first member of the planetary gear set is a ring gear and the third member is a sun gear. wherein the internal combustion engine is mechanically engaged to the second member of the planetary gear set via the torque converter; and wherein the first member of the planetary gear set is a ring gear and the third member is a sun gear.
A container system, in particular a storage and/or reaction container system for liquids, comprising: - a container, and - an electronic documentation device fixed with the container, the documentation device further comprising: - a timer device for detecting a point in time, - at least one sensor device (13; 15) - at least one input device (21; 23; 25) formed for detecting a manual operation, - a storage device formed for readably storing at least one measured value detected by the at least one sensor device (13; 15) and/or at least one input detected by the at least one input device (21; 23; 25), and - at least one display device (27; 29) for displaying to a user a state of the documentation device and/or a content stored in the storage device, wherein a time corresponding to the time of detection of the at least one measured value and/or the at least one input is assigned to the at least one measured value and/or the at least one input by means of the timer device. - a container, and - an electronic documentation device fixed with the container, the documentation device further comprising: - a timer device for detecting a point in time, - at least one sensor device (13; 15) - at least one input device (21; 23; 25) formed for detecting a manual operation, - a storage device formed for readably storing at least one measured value detected by the at least one sensor device (13; 15) and/or at least one input detected by the at least one input device (21; 23; 25), and - at least one display device (27; 29) for displaying to a user a state of the documentation device and/or a content stored in the storage device, - a timer device for detecting a point in time, - at least one sensor device (13; 15) - at least one input device (21; 23; 25) formed for detecting a manual operation, - a storage device formed for readably storing at least one measured value detected by the at least one sensor device (13; 15) and/or at least one input detected by the at least one input device (21; 23; 25), and - at least one display device (27; 29) for displaying to a user a state of the documentation device and/or a content stored in the storage device,
A package, comprising: a plurality of disposable absorbent articles, each of the plurality of disposable absorbent articles comprising a liquid permeable topsheet, a liquid impermeable backsheet, an absorbent core disposed between the topsheet and the backsheet; an outer wrap containing the plurality of disposable absorbent articles, the outer wrap being formed of a film having a thickness and comprising two or more layers (11a, 11b) respectively formed of differing polymer resins or differing blends of polymer resins, the package characterized in that the at least one layer has a path of scoring that partially but not completely penetrates the thickness and defines a path of weakness in the film along which tear propagation is facilitated, wherein the scoring penetrates fewer than all of the layers, wherein the differing polymer resins or differing blends of polymer resins, respectively, have differing melt temperatures and wherein an innermost layer has a lower melt temperature than one or more other layers. a plurality of disposable absorbent articles, each of the plurality of disposable absorbent articles comprising a liquid permeable topsheet, a liquid impermeable backsheet, an absorbent core disposed between the topsheet and the backsheet; an outer wrap containing the plurality of disposable absorbent articles, the outer wrap being formed of a film having a thickness and comprising two or more layers (11a, 11b) respectively formed of differing polymer resins or differing blends of polymer resins, the package characterized in that the at least one layer has a path of scoring that partially but not completely penetrates the thickness and defines a path of weakness in the film along which tear propagation is facilitated, wherein the scoring penetrates fewer than all of the layers, wherein the differing polymer resins or differing blends of polymer resins, respectively, have differing melt temperatures and wherein an innermost layer has a lower melt temperature than one or more other layers.