mhurhangee/ep-ind-claims huggingface dataset:
A vehicle roof having at least one lid member which selectively closes or clears, at the very least partially, a roof opening, and which, in relation to the longitudinal centre plane of the vehicle on each of its two sides, includes a support member being provided with a guide curve and interacting with an adjusting means, which is guided in a guide rail being arranged in the longitudinal direction of the vehicle and comprises a slide member, which interacts with the guide curve of the respective support member, at the very least for pivoting the lid member, and comprises a guide section, the support member resting thereon, characterised in that the guide section is formed by a wall of a plastic piece, said wall being able to deviate, in a fashion so as to be elastically deformable, into a cavity that is formed by the plastic piece.
Method for manufacturing a flexible textile annular thermal protection positioned between the rear skirt and the nozzle of a space launcher, characterised in that it includes: - forming one or more first support templates in the form of hyperboloid drum sectors of revolution defining the shape of the inner protection surface, - forming, on a lower part and an upper part of these drum sectors, folds (232, 233, 234) constituting inner half faces of protection sectors, - laying and sewing these inner half faces together on the support template(s) to form the inner face of said protection sectors, - laying and sewing a layer of padding on the outside of said inner face, then - laying and sewing an outer protection face onto the padding such that the protection sectors formed in this way correspond with the profile of said hyperboloid drum sectors, - sewing the protection sectors together end-to-end to form a strip along the length of the protection and - sewing the ends of the strip together to complete the annular protection. - forming one or more first support templates in the form of hyperboloid drum sectors of revolution defining the shape of the inner protection surface, - forming, on a lower part and an upper part of these drum sectors, folds (232, 233, 234) constituting inner half faces of protection sectors, - laying and sewing these inner half faces together on the support template(s) to form the inner face of said protection sectors, - laying and sewing a layer of padding on the outside of said inner face, then - laying and sewing an outer protection face onto the padding such that the protection sectors formed in this way correspond with the profile of said hyperboloid drum sectors, - sewing the protection sectors together end-to-end to form a strip along the length of the protection and - sewing the ends of the strip together to complete the annular protection.
A size determination apparatus for clothing with cups covering a user's bust comprising: an acquisition unit which acquires a volume (Va) of a lower part of the bust and a volume (Vt) of an entire bust including the lower part of the bust; a determination unit which determines a cup size of the clothing with cups based on the volume (Va) of the lower part and the volume (Vt) of the entire bust wherein the volume of the lower part (Va) is obtained by calculating a volume of a range below a predetermined height position in a height direction of the bust. an acquisition unit which acquires a volume (Va) of a lower part of the bust and a volume (Vt) of an entire bust including the lower part of the bust; a determination unit which determines a cup size of the clothing with cups based on the volume (Va) of the lower part and the volume (Vt) of the entire bust
An organic light emitting display (100A; 100B; 100C; 200), comprising: a lower substrate (110A; 110B; 110C; 210) including a plurality of subpixel regions (A, B, C); a thin film transistor (120A; 120B; 120C; 220) formed on the lower substrate; an over coating layer formed on the thin film transistor (120A; 120B; 120C; 220); an organic light emitting element (140A; 140B; 140C; 240) formed on the thin film transistor and the over coating layer; an encapsulation unit (150A; 150B; 150C; 250) for covering the organic light emitting element; a spacer (160A; 160B; 160C; 260) formed on the encapsulation unit; an upper substrate (115A; 115B; 115C; 215) disposed to face the lower substrate; an adhesive member (170A; 170B;...; 270) formed on edges of the over coating layer and attaching the lower substrate (110A; 110B; 110C; 210) and the upper substrate (115A; 115B 115C; 215) to each other; and a medium layer having a desiccant (180A; 180B, 180C; 280) and between the lower substrate and the upper substrate; wherein a bottom surface of the spacer (160A; 160B; 160C; 260) is contacted to an upper surface of the encapsulation unit (150A; 150B; 150C; 250), wherein the spacer (160A; 160B; 160C; 260) is formed using an insulation material; and wherein the encapsulation unit (150A; 150B; 150C; 250) and the adhesive member (170A; 170B;...; 270) are separated from each other at the edges of the over coating layer, and wherein the medium layer fills a separation space between the encapsulation unit (150A; 150B; 150C; 250) and the adhesive member (170A; 170B;...; 270) at the edges of the over coating layer. a lower substrate (110A; 110B; 110C; 210) including a plurality of subpixel regions (A, B, C); a thin film transistor (120A; 120B; 120C; 220) formed on the lower substrate; an over coating layer formed on the thin film transistor (120A; 120B; 120C; 220); an organic light emitting element (140A; 140B; 140C; 240) formed on the thin film transistor and the over coating layer; an encapsulation unit (150A; 150B; 150C; 250) for covering the organic light emitting element; a spacer (160A; 160B; 160C; 260) formed on the encapsulation unit; an upper substrate (115A; 115B; 115C; 215) disposed to face the lower substrate; an adhesive member (170A; 170B;...; 270) formed on edges of the over coating layer and attaching the lower substrate (110A; 110B; 110C; 210) and the upper substrate (115A; 115B 115C; 215) to each other; and a medium layer having a desiccant (180A; 180B, 180C; 280) and between the lower substrate and the upper substrate; wherein a bottom surface of the spacer (160A; 160B; 160C; 260) is contacted to an upper surface of the encapsulation unit (150A; 150B; 150C; 250), wherein the spacer (160A; 160B; 160C; 260) is formed using an insulation material; and wherein the encapsulation unit (150A; 150B; 150C; 250) and the adhesive member (170A; 170B;...; 270) are separated from each other at the edges of the over coating layer, and wherein the medium layer fills a separation space between the encapsulation unit (150A; 150B; 150C; 250) and the adhesive member (170A; 170B;...; 270) at the edges of the over coating layer.
A manufacturing method of a subminiature LED element (130, 131), comprising: 1) forming a first conductive semiconductor layer (11, 140), an active layer (12, 141) and a second conductive semiconductor layer (13, 142) in this order on a substrate; 2) etching the first conductive semiconductor layer (11, 140), the active layer (12, 141) and the second conductive semiconductor layer (13, 142) so that the subminiature LED element (130, 131) has a diameter of a nanometer or micrometer level; and 3) forming an insulation film (80, 150) on the outer circumference of the first conductive semiconductor layer (11, 140), the active layer (12, 141) and the second conductive semiconductor layer (13, 142), coating the upper portion of the insulation film (80, 150) with a hydrophobic film (90, 160) and removing the substrate, wherein the diameter of the subminiature LED element (130, 131) is 50 to 3000 nm. 1) forming a first conductive semiconductor layer (11, 140), an active layer (12, 141) and a second conductive semiconductor layer (13, 142) in this order on a substrate; 2) etching the first conductive semiconductor layer (11, 140), the active layer (12, 141) and the second conductive semiconductor layer (13, 142) so that the subminiature LED element (130, 131) has a diameter of a nanometer or micrometer level; and 3) forming an insulation film (80, 150) on the outer circumference of the first conductive semiconductor layer (11, 140), the active layer (12, 141) and the second conductive semiconductor layer (13, 142), coating the upper portion of the insulation film (80, 150) with a hydrophobic film (90, 160) and removing the substrate,
A method of processing an adipose tissue to collect adipose derived regenerative cells, comprising: providing a vessel comprising a centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream introducing the adipose tissue into the vessel; introducing a buffer solution into the vessel; washing the adipose tissue using the centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream; introducing an enzyme solution into the vessel; initiating jet mixing into the vessel comprising the adipose tissue, the enzyme solution, and the buffer solution using the centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream to digest the adipose tissue to form a digestion product; phase-separating the digestion product into a digested buoyant fat layer and a non-buoyant aqueous layer; and collecting the non-buoyant aqueous layer comprising the adipose derived regenerative cells through a filter a centrally located port on the bottom of the vessel, wherein the nozzles are located in the centrally located cylinder and are configured to be in an upward direction. providing a vessel comprising a centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream introducing the adipose tissue into the vessel; introducing a buffer solution into the vessel; washing the adipose tissue using the centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream; introducing an enzyme solution into the vessel; initiating jet mixing into the vessel comprising the adipose tissue, the enzyme solution, and the buffer solution using the centrally located cylinder comprising one or more nozzles configured to generate a high velocity fluid stream to digest the adipose tissue to form a digestion product; phase-separating the digestion product into a digested buoyant fat layer and a non-buoyant aqueous layer; and collecting the non-buoyant aqueous layer comprising the adipose derived regenerative cells through a filter a centrally located port on the bottom of the vessel,
A drinks preparation machine for the preparation of brewed drinks from an extraction material contained in a portion package, comprising a water tank, a pump, a water heating means and a brewing chamber for receiving the portion package, wherein the pump is designed to deliver water by way of a fluid path from the water tank via the water heating means into the brewing chamber, characterised by at least one temperature sensor for measuring a temperature along the fluid path, as well as characterised in that the drinks preparation machine is designed to measure an initial temperature (T A) at the location of the temperature sensor at least in an operating condition after a switching-on procedure or wake-up procedure and before a possible heating procedure of the water heating means, and, after the water heating means has reached an operating temperature, to carry out a rinsing procedure of the brewing chamber with water from the water heating means when and only when the measured initial temperature (T A) corresponds to a certain condition, and only subsequently to effect an introduction of the portion package into the brewing chamber.
Process for delignifying and bleaching chemical pulp, comprising a bleaching stage in which a) in a first step, chemical pulp is reacted in an aqueous mixture containing 3 to 30% by weight of chemical pulp with chlorine dioxide in an amount corresponding to a Kappa factor in the range from 0.02 to 0.25 at a temperature of 50 to 150°C and a pH in the range from 2 to 7 until more than 90% of the chlorine dioxide has reacted and b) the mixture obtained in the first step is further reacted, without separating off constituents of the mixture, in a second step with 0.1 to 5% by weight of hydrogen peroxide in the presence of a molybdate in an amount of 10 to 2000 ppm of molybdenum or of a tungstate in an amount of 200 to 10 000 ppm of tungsten at a temperature of 50 to 150°C and a pH in the range from 2 to 7, the amounts being based in each case on the mass of dry chemical pulp used. a) in a first step, chemical pulp is reacted in an aqueous mixture containing 3 to 30% by weight of chemical pulp with chlorine dioxide in an amount corresponding to a Kappa factor in the range from 0.02 to 0.25 at a temperature of 50 to 150°C and a pH in the range from 2 to 7 until more than 90% of the chlorine dioxide has reacted and b) the mixture obtained in the first step is further reacted, without separating off constituents of the mixture, in a second step with 0.1 to 5% by weight of hydrogen peroxide in the presence of a molybdate in an amount of 10 to 2000 ppm of molybdenum or of a tungstate in an amount of 200 to 10 000 ppm of tungsten at a temperature of 50 to 150°C and a pH in the range from 2 to 7, the amounts being based in each case on the mass of dry chemical pulp used.
A fluid pressure drive unit adapted to supply a working fluid to and driving a fluid pressure actuator, comprising: a fluid pressure pump configured to suction and discharge the working fluid; an electric motor configured to drive and rotate the fluid pressure pump; and a power transmission mechanism located between a rotation shaft of the fluid pressure pump and a rotation shaft of the electric motor and configured to transmit a power there-between via a rotation thereof, characterized by a circulation mechanism configured to be driven by the power transmitted by the power transmission mechanism and guide a lubricating fluid in the power transmission mechanism to the electric motor to cool the electric motor. a fluid pressure pump configured to suction and discharge the working fluid; an electric motor configured to drive and rotate the fluid pressure pump; and a power transmission mechanism located between a rotation shaft of the fluid pressure pump and a rotation shaft of the electric motor and configured to transmit a power there-between via a rotation thereof, characterized by a circulation mechanism configured to be driven by the power transmitted by the power transmission mechanism and guide a lubricating fluid in the power transmission mechanism to the electric motor to cool the electric motor.
An elongated tubular needle cannula for an injection device, the needle cannula extending along a central axis and comprising: - a skin piercing distal end, - a proximal end arranged axially opposite the skin piercing distal end, the proximal end being configured for penetrating a seal structure of a medicament container, - a sidewall extending between the skin piercing distal end and the proximal end, and - a lumen extending through the needle cannula along said central axis, said lumen has a first opening arranged axially at the skin piercing distal end and a second opening arranged axially at the proximal end, wherein the proximal end being defined by an angled surface pointing proximally, the angled surface intersecting with the sidewall at a proximal-most point defining a leading portion (134.1) and intersecting with the sidewall at an oppositely arranged trailing portion defining a heel portion (134.2), wherein the angled surface pointing proximally comprises a surface portion at the heel portion (134.2) forming an angle (α 1) between 50 to 75 degrees with respect to the central axis, and further comprises a surface portion (134a, 134c) at the leading portion (134.1) forming an angle (α 2) between 60 to 85 degrees with respect to the central axis, and characterised in that the angled surface intersects with the sidewall to define a radially inwards facing circumferential edge and a radially outwards facing circumferential edge, and wherein the radially inwards facing circumferential edge and/or the radially outwards facing circumferential edge is/are blunted along an annular section symmetrically disposed around the heel portion (134.2), said annular section having an annular width within 100 to 220 degrees. - a skin piercing distal end, - a proximal end arranged axially opposite the skin piercing distal end, the proximal end being configured for penetrating a seal structure of a medicament container, - a sidewall extending between the skin piercing distal end and the proximal end, and - a lumen extending through the needle cannula along said central axis, said lumen has a first opening arranged axially at the skin piercing distal end and a second opening arranged axially at the proximal end, wherein the proximal end being defined by an angled surface pointing proximally, the angled surface intersecting with the sidewall at a proximal-most point defining a leading portion (134.1) and intersecting with the sidewall at an oppositely arranged trailing portion defining a heel portion (134.2),
A recombinant yeast cell capable of producing lactate comprising: a genetic modification that reduces the activity of rim15 protein, igo2 protein, or any combination thereof, as compared to a parent yeast cell, wherein the rim15 protein is a protein with 95% or more sequence identity to an amino acid sequence of SEQ ID NO: 1 and wherein the igo2 protein is a protein with 95% or more sequence identity to an amino acid sequence of SEQ ID NO: 3; a genetic modification that increases the activity of an enzyme that catalyzes the conversion from pyruvate into lactate as compared to a parent yeast cell; and a genetic modification that reduces the activity of alcohol dehydrogenase, pyruvate decarboxylase, lactate cytochrome-c oxidoreductase, NAD-dependent glycerol-3-phosphate dehydrogenase, glycerol phosphate phosphatase and acetaldehyde dehydrogenase. a genetic modification that reduces the activity of rim15 protein, igo2 protein, or any combination thereof, as compared to a parent yeast cell, wherein the rim15 protein is a protein with 95% or more sequence identity to an amino acid sequence of SEQ ID NO: 1 and wherein the igo2 protein is a protein with 95% or more sequence identity to an amino acid sequence of SEQ ID NO: 3; a genetic modification that increases the activity of an enzyme that catalyzes the conversion from pyruvate into lactate as compared to a parent yeast cell; and a genetic modification that reduces the activity of alcohol dehydrogenase, pyruvate decarboxylase, lactate cytochrome-c oxidoreductase, NAD-dependent glycerol-3-phosphate dehydrogenase, glycerol phosphate phosphatase and acetaldehyde dehydrogenase.
A method of linking a two-dimensional design image to a three-dimensional design model, comprising: receiving a 2D design document and a 3D design file, the 2D design document comprising a 2D design image and the 3D design file comprising a 3D design model including one or more design elements; converting the 3D design model to a coded 2D design image, the coded 2D design image comprising one or more coded 2D design elements corresponding to the one or more design elements; determining a unique identifier for each of the one or more design elements based on a code of a coded 2D design element of the one or more coded 2D design elements, the code corresponding to a design element of the one or more design elements; storing each unique identifier in association with the respective design element in the 3D design file; determining an alignment between the 2D design image and the coded 2D design image; receiving a user selection of a point in the 2D design image; determining a reference point in the coded 2D design image that corresponds to the user selection of the point in the 2D design image; and determining a design element data set associated with a design element that corresponds to the reference point, the design element data set being stored in the 3D design file. receiving a 2D design document and a 3D design file, the 2D design document comprising a 2D design image and the 3D design file comprising a 3D design model including one or more design elements; converting the 3D design model to a coded 2D design image, the coded 2D design image comprising one or more coded 2D design elements corresponding to the one or more design elements; determining a unique identifier for each of the one or more design elements based on a code of a coded 2D design element of the one or more coded 2D design elements, the code corresponding to a design element of the one or more design elements; storing each unique identifier in association with the respective design element in the 3D design file; determining an alignment between the 2D design image and the coded 2D design image; receiving a user selection of a point in the 2D design image; determining a reference point in the coded 2D design image that corresponds to the user selection of the point in the 2D design image; and determining a design element data set associated with a design element that corresponds to the reference point, the design element data set being stored in the 3D design file.
A method for calibrating a camera, comprising: • recording a digital image of at least one piece of calibration information on at least one fiber of a plurality of fibers from natural hair or fibers resembling natural hair by means of a camera; • identifying the at least one fiber in the digital image by means of at least one marker (3, 5a, 5b, 5c); • identifying a plurality of color values of a plurality of reference colors (4a, 4b, 4c) as the calibration information on the at least one fiber in the digital image, wherein a reference color value is assigned to each reference color; and • assigning the relevant identified color value of the plurality of identified color values to the relevant assigned reference color value of the plurality of reference color values, • wherein the at least one fiber has two markers which have a non-natural color profile and wherein a region between the two markers is provided, which comprises information regarding three reference colors (4a, 4b, 4c). • recording a digital image of at least one piece of calibration information on at least one fiber of a plurality of fibers from natural hair or fibers resembling natural hair by means of a camera; • identifying the at least one fiber in the digital image by means of at least one marker (3, 5a, 5b, 5c); • identifying a plurality of color values of a plurality of reference colors (4a, 4b, 4c) as the calibration information on the at least one fiber in the digital image, wherein a reference color value is assigned to each reference color; and • assigning the relevant identified color value of the plurality of identified color values to the relevant assigned reference color value of the plurality of reference color values, • wherein the at least one fiber has two markers which have a non-natural color profile and wherein a region between the two markers is provided, which comprises information regarding three reference colors (4a, 4b, 4c).