mhurhangee/ep-ind-claims huggingface dataset:
Self-sealing pneumatic vehicle tire having a belt package, a tread arranged radially above the belt package and an airtight inner layer arranged radially on the inside, wherein the self-sealing of the pneumatic vehicle tire is obtained via a sealant layer subsequently applied radially on the inside after the vulcanization of the pneumatic vehicle tire, wherein the sealant layer has essentially the width of the belt package and is arranged essentially in the projection thereof and has a cross section which is formed in a cross-sectional plane including the tire axis and has a surface running essentially parallel to the belt package in axial direction and a surface running essentially in radial direction, characterized in that at least the surface of the sealant layer running essentially parallel to the belt package in axial direction has a circumferential coating that contains at least elastomer particles.
Visible part for an operating part or a trim panel, more particularly for use in a motor vehicle, comprising a layer structure with the following sequence of layers (3, 4, 5), with formation of interfaces (13, 14): a lower, preferably opaque, carrier layer; a decorative layer; an upper, translucent or transparent, outer layer; where the layer structure forms an end face (11, 12) in which an access to at least one interface (13, 14) opens out, characterized in that the carrier layer forms a projection relative to the upper layers (4, 5) of the layer structure, and in that the visible part additionally comprises an upper transparent protective varnish layer which covers the outer layer and the end face (11, 12) and which when the visible part is mounted as intended forms an uppermost surface facing the observer and covers the access. a lower, preferably opaque, carrier layer; a decorative layer; an upper, translucent or transparent, outer layer; where the layer structure forms an end face (11, 12) in which an access to at least one interface (13, 14) opens out, characterized in that the carrier layer forms a projection relative to the upper layers (4, 5) of the layer structure, and in that the visible part additionally comprises an upper transparent protective varnish layer which covers the outer layer and the end face (11, 12) and which when the visible part is mounted as intended forms an uppermost surface facing the observer and covers the access.
Stretching mandrel (100; 200) for stretching open a flat label tube to make a label sleeve ready for a container, comprising an opening part (101, 102, 103; 201, 202, 203) for opening in the radial direction a label tube pulled over the opening part in the axial direction, a transfer part (104; 204) for preventing a label sleeve to be separated and/or that has been separated from deforming as it is being transferred to the container, the opening part (101, 102, 103; 201, 202, 203) and transfer part (104; 204) being detachably connected to one another, the circumference of a portion of the transfer part (104; 204) being adjustable transversely to the axial direction, characterised in that the portion of the transfer part (104; 204) comprises two or more spreading jaws, the positions of which can be adjusted by means of a number of spreading elements and by means of which the circumference thereof can be adjusted.
A refrigerant channel switching unit disposable between a heat source unit and a utilization unit, the refrigerant channel switching unit configured and arranged to switch flow of refrigerant in a refrigerant circuit formed by the heat source unit and the utilization unit, the refrigerant channel switching unit comprising: a first refrigerant pipe suitable to be connected to a suction gas communicating pipe configured and arranged to extend from the heat source unit; a second refrigerant pipe suitable to be connected to a high-low pressure gas communicating pipe configured and arranged to extend from the heat source unit; a third refrigerant pipe suitable to be connected to a gas pipe configured and arranged to extend to the utilization unit; a coupling portion connected to the first refrigerant pipe, the second refrigerant pipe and the third refrigerant pipe, the coupling portion configured and arranged to couple the first refrigerant pipe, the second refrigerant pipe and the third refrigerant pipe therethrough; a first switch valve mounted to the first refrigerant pipe; and a second switch valve mounted to the second refrigerant pipe, wherein the second switch valve is disposed in a higher position than the first switch valve, and the third refrigerant pipe is configured and arranged to include a bottom part in a lowest height position of the third refrigerant pipe, the third refrigerant pipe is connected to the coupling portion at the bottom part, wherein the third refrigerant pipe is configured and arranged to include a tilt part configured and arranged to extend from the bottom part toward the gas pipe side in an obliquely upwardly tilting posture. a first refrigerant pipe suitable to be connected to a suction gas communicating pipe configured and arranged to extend from the heat source unit; a second refrigerant pipe suitable to be connected to a high-low pressure gas communicating pipe configured and arranged to extend from the heat source unit; a third refrigerant pipe suitable to be connected to a gas pipe configured and arranged to extend to the utilization unit; a coupling portion connected to the first refrigerant pipe, the second refrigerant pipe and the third refrigerant pipe, the coupling portion configured and arranged to couple the first refrigerant pipe, the second refrigerant pipe and the third refrigerant pipe therethrough; a first switch valve mounted to the first refrigerant pipe; and a second switch valve mounted to the second refrigerant pipe, wherein the second switch valve is disposed in a higher position than the first switch valve, and the third refrigerant pipe is configured and arranged to include a bottom part in a lowest height position of the third refrigerant pipe, the third refrigerant pipe is connected to the coupling portion at the bottom part, wherein the third refrigerant pipe is configured and arranged to include a tilt part configured and arranged to extend from the bottom part toward the gas pipe side in an obliquely upwardly tilting posture.
A method to increase the mechanical hardness of polymer particles, said polymer particles comprising hydrophilic and hydrophobic groups, comprising the step of submitting the particles contained in a polar solvent, to a thermal cycle consisting of at least one heating step followed by at least one cooling step, wherein said polymer particles are copolymer and/or terpolymer particle, wherein said thermal cycle is performed in a closed reactor to avoid evaporation of the solvent, wherein the glass transition temperature (Tg) of the copolymer or terpolymer particles is reached, and possibly/optionally exceeded, during said at least one heating step, wherein the temperature is up to maximum 300°C during said at least one heating step and down to minimum 10°C during said at least one cooling step, and wherein the temperature is increased at a rate of 5°C per minute to 10°C per minute during said at least one heating step and the temperature is decreased at a rate of 15°C per minute to 30°C per minute during said at least one cooling step.
A landing pad comprising: (a) a landing platform; (b) a storage compartment; and (c) a receiver capable of recognising a signal transmitted by an aerial vehicle, wherein said landing platform comprises a trapdoor in a normally closed position which when open exposes the interior of said storage compartment. (a) a landing platform; (b) a storage compartment; and (c) a receiver capable of recognising a signal transmitted by an aerial vehicle,
A method of sample analysis, comprising: forming two or more types of reagent droplets, with each type having a code to identify the type; encapsulating the two or more types of reagent droplets in sample droplets; and inducing fusion of the sample droplets with the encapsulated two or more types of reagent droplets to produce fused droplets each having the code of one of the two or more types of reagent droplets, wherein inducing fusion includes heating the two or more types of reagent droplets and the sample droplets after the step of encapsulating; collecting data from a plurality of the fused droplets; and determining a result of an assay based on the collected data. forming two or more types of reagent droplets, with each type having a code to identify the type; encapsulating the two or more types of reagent droplets in sample droplets; and inducing fusion of the sample droplets with the encapsulated two or more types of reagent droplets to produce fused droplets each having the code of one of the two or more types of reagent droplets, wherein inducing fusion includes heating the two or more types of reagent droplets and the sample droplets after the step of encapsulating; collecting data from a plurality of the fused droplets; and determining a result of an assay based on the collected data.
Gemcitabine-[phenyl-benzoxy-L-alaninyl)]-phosphate, or a pharmaceutically acceptable salt or solvate thereof for use in treating cancer in combination with platinum-based anticancer agent selected from cisplatin, picoplatin, lipoplatin and triplatin.
Method for coating or filling the folds of a folded catheter balloon, in that a syringe, needle or nozzle, to deliver a continuous flow of a composition including active ingredient, is moved relative to the folded catheter balloon along the fold, characterized in that after the filling or coating of one or more folds the folded catheter balloon is rotated in the direction of the fold openings.
Method for controlling a clearing process in a vacuum cleaning device, wherein the vacuum cleaning device comprises at least one filter, which is cleared regularly, having the following method steps: a) stipulating a first reference value, which defines a pressure range, b) obtaining a differential pressure value, which describes a current state of the filter, c) determining whether the differential pressure value is in the pressure range defined in a), characterized by the further method step: d) stipulating a second reference value, either by retaining the first reference value or replacing the first reference value by the differential pressure value obtained in b), wherein the second reference value is specified in a manner dependent on whether the differential pressure value obtained in b) is in the pressure range defined in a). a) stipulating a first reference value, which defines a pressure range, b) obtaining a differential pressure value, which describes a current state of the filter, c) determining whether the differential pressure value is in the pressure range defined in a),
Method for producing an electronic component, comprising the steps performed in the following sequence: - providing at least one carrier element (5, 6), comprising a microcomponent receptacle designed for establishing electrical contact with at least one microcomponent, - encapsulating the carrier element (5, 6) with a housing by injection moulding, the microcomponent receptacle being arranged in a cavity of the housing that is open at least on one side, - introducing the at least one microcomponent into the microcomponent receptacle in the cavity in order to establish electrical contact between the at least one microcomponent and the carrier element (5, 6), and - injecting a filler material into the cavity in order to fix the contacted at least one microcomponent in the housing and in the microcomponent receptacle. - providing at least one carrier element (5, 6), comprising a microcomponent receptacle designed for establishing electrical contact with at least one microcomponent, - encapsulating the carrier element (5, 6) with a housing by injection moulding, the microcomponent receptacle being arranged in a cavity of the housing that is open at least on one side, - introducing the at least one microcomponent into the microcomponent receptacle in the cavity in order to establish electrical contact between the at least one microcomponent and the carrier element (5, 6), and - injecting a filler material into the cavity in order to fix the contacted at least one microcomponent in the housing and in the microcomponent receptacle.
An improved process for preparing solid formulations of amine salts of herbicidal pyridine containing carboxylic acids with improved handling properties comprising: a) mixing the herbicidal pyridine containing carboxylic acid with an amine and water to form a dispersed solid or solution; b) removing water from the dispersed solid or solution to provide a solid; and c) processing the solid into granules; wherein the improvement comprises using less than one molar equivalent of the amine with respect to the herbicidal pyridine containing carboxylic acid. a) mixing the herbicidal pyridine containing carboxylic acid with an amine and water to form a dispersed solid or solution; b) removing water from the dispersed solid or solution to provide a solid; and c) processing the solid into granules;
A process for producing aqueous dispersions of thermoplastic polymers which have a plurality of ester groups and/or carbonate groups in the main polymer chain and which have an acid number of less than 5 mg KOH/g, and which have a zero-shear viscosity η 0 of at least 60 Pa·s at 180°C, where a composition which comprises the polymer and which is composed of at least 99% by weight of the polymer is introduced, at a temperature above the melting or softening point of the polymer, into an aqueous dispersion medium which comprises at least one surfactant substance selected from emulsifiers and protective colloids, and the resultant aqueous emulsion of the polymer is quenched, characterized in that the introduction of the polymer into the aqueous dispersion medium is carried out in a mixing apparatus which has at least one rotor-stator mixer.
A cellulase preparation comprising endoglucanases derived from two different types of microorganisms, wherein the preparation is a combination of any one of the following (a) and (b): (a) a combination of an endoglucanase classified in GH family 5 with an endoglucanase classified in GH family 12, and (b) a combination of an endoglucanase classified in GH family 12 with an endoglucanase classified in GH family 45, wherein the endoglucanase classified in GH familiy 5 is a protein having any one of the amino acid sequence of SEQ ID NO: 2 and the amino acid sequence in which 10 or less of the amino acids are deleted, substituted, inserted or added, wherein the endoglucanase classified in GH familiy 12 is a protein having any one of the amino acid sequence of SEQ ID NO: 4 and the amino acid sequence in which 10 or less of the amino acids are deleted, substituted, inserted or added, wherein the endoglucanase classified in GH familiy 45 is a protein having any one of the amino acid sequence of SEQ ID NO: 6 and the amino acid sequence in which 10 or less of the amino acids are deleted, substituted, inserted or added. (a) a combination of an endoglucanase classified in GH family 5 with an endoglucanase classified in GH family 12, and (b) a combination of an endoglucanase classified in GH family 12 with an endoglucanase classified in GH family 45, wherein
A semiconductor device (NFCIC) for wireless communication, comprising: a first power supply voltage (txvcc) and a second power supply voltage (txvss) each as one of external power supplies; a first terminal (Ptp) for coupling to an antenna; a p-channel first MISFET (MPup) having a source-drain path coupled between the first terminal (Ptp) and the first power supply voltage (txvcc) to drive the antenna; an n-channel second MISFET (MNdp) having a source-drain path coupled between the first terminal (Ptp) and the second power supply voltage (txvss) to drive the antenna; and a rectifying circuit section (RECT) coupled to the first terminal (Ptp), wherein the rectifying circuit section (RECT) includes: a rectifying circuit (FWRCT) which rectifies an alternating current signal inputted to the first terminal (Ptp) via the antenna and outputs a rectified voltage (vccrect); and characterized by a voltage boosting circuit which generates a third power supply voltage (vccrect2) by boosting the rectified voltage (vccrect); wherein the third power supply voltage (vccrect2) is higher than the first power supply voltage (txvcc) and higher than the high-potential voltage occurring at the first terminal (Ptp) when the alternating current signal has a maximum amplitude; and wherein the third power supply voltage (vccrect2) is used as a bulk voltage of the first MISFET (MPup). a first power supply voltage (txvcc) and a second power supply voltage (txvss) each as one of external power supplies; a first terminal (Ptp) for coupling to an antenna; a p-channel first MISFET (MPup) having a source-drain path coupled between the first terminal (Ptp) and the first power supply voltage (txvcc) to drive the antenna; an n-channel second MISFET (MNdp) having a source-drain path coupled between the first terminal (Ptp) and the second power supply voltage (txvss) to drive the antenna; and a rectifying circuit section (RECT) coupled to the first terminal (Ptp), wherein the rectifying circuit section (RECT) includes: a rectifying circuit (FWRCT) which rectifies an alternating current signal inputted to the first terminal (Ptp) via the antenna and outputs a rectified voltage (vccrect); and characterized by a voltage boosting circuit which generates a third power supply voltage (vccrect2) by boosting the rectified voltage (vccrect); a rectifying circuit (FWRCT) which rectifies an alternating current signal inputted to the first terminal (Ptp) via the antenna and outputs a rectified voltage (vccrect); and characterized by a voltage boosting circuit which generates a third power supply voltage (vccrect2) by boosting the rectified voltage (vccrect); wherein the third power supply voltage (vccrect2) is higher than the first power supply voltage (txvcc) and higher than the high-potential voltage occurring at the first terminal (Ptp) when the alternating current signal has a maximum amplitude; and wherein the third power supply voltage (vccrect2) is used as a bulk voltage of the first MISFET (MPup).
A cutting insert for a tool for machining a workpiece, comprising: - two identical mutually opposite base surfaces (14a, b), wherein at least a part of each base surface (14a, b) is planar and orthogonal to a z-axis of the cutting insert (10, 20), - two identical mutually opposite main side surfaces (16a, b) which extend between the two base surfaces (14a, b), wherein at least a part of each main side surface (16a, b) is planar and oriented orthogonally to an x-axis of the cutting insert (10, 20), and - two identical mutually opposite secondary side surfaces (18a, b) which extend between the two base surfaces (14a, b), wherein at least a part of each secondary side surface (18a, b) is planar and oriented orthogonally to a y-axis of the cutting insert (10, 20), wherein the x-, y- and z-axes are main axes of the cutting insert (10, 20) that are oriented orthogonally to one another, wherein between each one of the base surfaces (14a, b) and each one of the main side surfaces (16a, b) a rectilinear main cutting edge (12a-d) is provided, respectively, and wherein each main side surface (16a, b) has two diagonally opposite first segmental cutting edges (26a-d), wherein each first segmental cutting edge (26a-d) adjoins a first end (28a-d) of the respective main cutting edge (12a-d), characterized in that the main cutting edges (12a-d) and the first segmental cutting edges (26a-d) of each main side surface (16a, b) are each located in a cutting edge plane which extends orthogonally to the x-axis, wherein the first segmental cutting edges (26a-d) are each arranged on a first protrusion (24a-d) which is provided on each of the secondary side surfaces (18a, b)and defines a first clearance angle (α), wherein a secondary cutting edge (30a-d) that extends in a rectilinear manner adjoins each first segmental cutting edge (26a-d), wherein each secondary cutting edge (30a-d) is arranged at the transition between the respective main side surface (16a, b) and the respective secondary side surface (18a, b); and wherein each secondary cutting edge (30a-d) encloses a second clearance angle (β) with a parallel to the z-axis in the respective cutting edge plane. - two identical mutually opposite base surfaces (14a, b), wherein at least a part of each base surface (14a, b) is planar and orthogonal to a z-axis of the cutting insert (10, 20), - two identical mutually opposite main side surfaces (16a, b) which extend between the two base surfaces (14a, b), wherein at least a part of each main side surface (16a, b) is planar and oriented orthogonally to an x-axis of the cutting insert (10, 20), and - two identical mutually opposite secondary side surfaces (18a, b) which extend between the two base surfaces (14a, b), wherein at least a part of each secondary side surface (18a, b) is planar and oriented orthogonally to a y-axis of the cutting insert (10, 20),
A method of enhancing quality of an image object included in a compound document comprising two or more types of objects, the method comprising: receiving a request to print the compound document comprising the image object; generating a printing command being printing data including a raster command corresponding to an image object and a text or a graphic command, wherein the raster command is divided into and expressed as a plurality of raster commands; characterised in that the method comprises: merging the plurality of raster commands that express the image object from among the printing data corresponding to the compound document and applying an image enhancement algorithm to the merged raster commands to enhance the quality of the image object; re-dividing the merged raster commands; and encoding data corresponding to the compound document by using a printer control language; and outputting the encoded data. receiving a request to print the compound document comprising the image object; generating a printing command being printing data including a raster command corresponding to an image object and a text or a graphic command, wherein the raster command is divided into and expressed as a plurality of raster commands; characterised in that the method comprises: merging the plurality of raster commands that express the image object from among the printing data corresponding to the compound document and applying an image enhancement algorithm to the merged raster commands to enhance the quality of the image object; re-dividing the merged raster commands; and encoding data corresponding to the compound document by using a printer control language; and outputting the encoded data. merging the plurality of raster commands that express the image object from among the printing data corresponding to the compound document and applying an image enhancement algorithm to the merged raster commands to enhance the quality of the image object; re-dividing the merged raster commands; and encoding data corresponding to the compound document by using a printer control language; and outputting the encoded data.