mhurhangee/ep-ind-claims huggingface dataset:
A joining structure (1, 1A - 1F) comprising: a first resin sheet (21, 21A - 21D) comprising a first resin; a second resin sheet comprising a second resin; and a joint (10, 10A - 10F) formed by mating and welding a principal surface portion of the first resin sheet (21, 21A - 21D) and an end surface portion of the second resin sheet, the first resin being a foamed resin, the second resin being a non-foamed or foamed resin, the joint (10, 10A - 10F) having a weld recess (25, 25A - 25F) on a top surface, characterized in that the joint (10, 10A - 10F) comprises a weld overlay portion (27, 27E, 27F) formed at an inside corner on a bottom surface by allowing, out of the first and second resins, at least the first resin to melt, flow, and solidify. the first resin being a foamed resin, the second resin being a non-foamed or foamed resin, the joint (10, 10A - 10F) having a weld recess (25, 25A - 25F) on a top surface, characterized in that the joint (10, 10A - 10F) comprises a weld overlay portion (27, 27E, 27F) formed at an inside corner on a bottom surface by allowing, out of the first and second resins, at least the first resin to melt, flow, and solidify.
Wind turbine assembly system comprising: - a main lifting structure configured to withstand the load of at least one tower section or at least one wind turbine component (3, 4), and - at least one secondary lifting structure configured to perform the lifting of the main lifting structure with respect to the wind turbine tower, the secondary lifting structure comprising lifting means (7, 17) for the main lifting structure which operate from a height above the centre of gravity of the main lifting structure; wherein the at least one secondary lifting structure is configured to perform the lifting of the main lifting structure with respect to the wind turbine tower once the main lifting structure has carried out the lifting of the at least one tower section or the at least one wind turbine component (3, 4), characterized in that the at least one secondary lifting structure comprises a lattice structure whereon the lifting means (7, 17) of the main lifting structure are disposed. - a main lifting structure configured to withstand the load of at least one tower section or at least one wind turbine component (3, 4), and - at least one secondary lifting structure configured to perform the lifting of the main lifting structure with respect to the wind turbine tower, the secondary lifting structure comprising lifting means (7, 17) for the main lifting structure which operate from a height above the centre of gravity of the main lifting structure;
A low-pill fibre based on polyester, wherein the polyester consists of aromatic dicarboxylic acids and of aliphatic diols, the fibre contains 0.5 to 10 % by weight of inorganic particles with a particle size in the range from 0.5 μm to 5 μm, the inorganic particles comprise mineral materials and are salts of the first and second main group of the Periodic Table of the Elements, the salts comprise chlorides, fluorides, bromides, iodides, carbonates, phosphates, nitrates, hydrogen carbonates, sulphites, and mixed salts thereof, and the fibre is dyed by high-temperature dyeing in acidic medium and requires at most 400 flex abrasion cycles (determined by means of a filament flex abrasion device with 20 μm filament and a load of 1100 mg as described in Grünewald, Chemifasern (Chemical Fibres) 1963, page 853) before the fibre breaks.
An apparatus comprising: an implantable medical device including: a Hall effect sensor (107; 207A; 207B) configured to sense a magnetic field and to provide at least one of a current or a voltage in response to the magnetic field; a processor (103; 203) electrically coupled to the Hall effect sensor (107; 207A; 207B), the processor configured to select an operating mode of the implantable medical device using at least one of the current or the voltage provided by the Hall effect sensor (107; 207A; 207B); a polling circuit (116; 216) electrically coupled to the Hall effect sensor (107; 207A; 207B) and configured to provide an excitation voltage to the Hall effect sensor (107; 207A; 207B); wherein the Hall effect sensor (107; 207A; 207B), the processor (103; 203) and the polling circuit (116; 216) are included in a monolithic commonly shared integrated circuit, characterized in that the Hall effect sensor (107; 207A; 207B) is rotationally symmetric under a 90° rotation about an axis perpendicular to a surface of the monolithic commonly shared integrated circuit. an implantable medical device including: a Hall effect sensor (107; 207A; 207B) configured to sense a magnetic field and to provide at least one of a current or a voltage in response to the magnetic field; a processor (103; 203) electrically coupled to the Hall effect sensor (107; 207A; 207B), the processor configured to select an operating mode of the implantable medical device using at least one of the current or the voltage provided by the Hall effect sensor (107; 207A; 207B); a polling circuit (116; 216) electrically coupled to the Hall effect sensor (107; 207A; 207B) and configured to provide an excitation voltage to the Hall effect sensor (107; 207A; 207B); wherein the Hall effect sensor (107; 207A; 207B), the processor (103; 203) and the polling circuit (116; 216) are included in a monolithic commonly shared integrated circuit, characterized in that the Hall effect sensor (107; 207A; 207B) is rotationally symmetric under a 90° rotation about an axis perpendicular to a surface of the monolithic commonly shared integrated circuit. a Hall effect sensor (107; 207A; 207B) configured to sense a magnetic field and to provide at least one of a current or a voltage in response to the magnetic field; a processor (103; 203) electrically coupled to the Hall effect sensor (107; 207A; 207B), the processor configured to select an operating mode of the implantable medical device using at least one of the current or the voltage provided by the Hall effect sensor (107; 207A; 207B); a polling circuit (116; 216) electrically coupled to the Hall effect sensor (107; 207A; 207B) and configured to provide an excitation voltage to the Hall effect sensor (107; 207A; 207B); wherein the Hall effect sensor (107; 207A; 207B), the processor (103; 203) and the polling circuit (116; 216) are included in a monolithic commonly shared integrated circuit, the Hall effect sensor (107; 207A; 207B) is rotationally symmetric under a 90° rotation about an axis perpendicular to a surface of the monolithic commonly shared integrated circuit.
A method for single molecule nucleic acid sequencing comprising: providing a substrate comprising an array of nanoscale capacitive devices, each capacitive device comprising two nanoscale electrodes separated by an insulating region, wherein a single polymerase enzyme complex comprising a single polymerase enzyme and a template nucleic acid is attached to the insulating region; providing a plurality of types of nucleotide analogs, each type comprising a different capacitive label attached to the phosphate portion of the nucleotide analog, wherein the labels are neither reduced nor oxidized; exposing the substrate to the plurality of types of nucleotide analogs under conditions whereby polymerase mediated nucleic acid synthesis occurs, resulting in cleavage of the capacitive label and the growth of a nascent nucleic acid strand; applying a voltage across the two nanoscale electrodes in each device, whereby when a nucleotide analog resides in the active site of the enzyme, the capacitive label on the nucleotide analog produces a measurable change in the capacitance measured at the nanoscale electrodes, such change in capacitance occurring before the cleavage of the capacitive label; measuring the capacitance at the nanoscale electrodes over time, whereby the capacitance over time indicates an incorporation event and identifies the type of nucleotide analog by its capacitive label; and using the measured capacitance at the electrodes over time to determine a sequence of the template nucleic acid. providing a substrate comprising an array of nanoscale capacitive devices, each capacitive device comprising two nanoscale electrodes separated by an insulating region, wherein a single polymerase enzyme complex comprising a single polymerase enzyme and a template nucleic acid is attached to the insulating region; providing a plurality of types of nucleotide analogs, each type comprising a different capacitive label attached to the phosphate portion of the nucleotide analog, wherein the labels are neither reduced nor oxidized; exposing the substrate to the plurality of types of nucleotide analogs under conditions whereby polymerase mediated nucleic acid synthesis occurs, resulting in cleavage of the capacitive label and the growth of a nascent nucleic acid strand; applying a voltage across the two nanoscale electrodes in each device, whereby when a nucleotide analog resides in the active site of the enzyme, the capacitive label on the nucleotide analog produces a measurable change in the capacitance measured at the nanoscale electrodes, such change in capacitance occurring before the cleavage of the capacitive label; measuring the capacitance at the nanoscale electrodes over time, whereby the capacitance over time indicates an incorporation event and identifies the type of nucleotide analog by its capacitive label; and using the measured capacitance at the electrodes over time to determine a sequence of the template nucleic acid.
A refrigerator comprising: a main body; a storage compartment (21, 22) provided in the main body; a shelf hanger provided at an inner side of the storage compartment (21, 22); a moving unit slidably coupled to the shelf hanger; and a shelf supported by the moving unit, wherein the shelf comprises: a first shelf detachably coupled to the moving unit; a second shelf slidably coupled to the first shelf; the moving unit is arranged to move in a vertical direction along the shelf hanger whilst coupled to the shelf hanger, such that the height of the moving unit is selectively adjustable, characterized by the shelf further comprising: a latch device (141, 142) configured to allow the second shelf to be fixed to or unfixed from the first shelf; and a first elastic member providing an elastic force to allow the second shelf to be withdrawn from the first shelf, wherein when the second shelf is unfixed from the first shelf, the second shelf is withdrawn from the first shelf in a frontward direction by the elastic force of the first elastic member. a main body; a storage compartment (21, 22) provided in the main body; a shelf hanger provided at an inner side of the storage compartment (21, 22); a moving unit slidably coupled to the shelf hanger; and a shelf supported by the moving unit, wherein the shelf comprises: a first shelf detachably coupled to the moving unit; a second shelf slidably coupled to the first shelf; the moving unit is arranged to move in a vertical direction along the shelf hanger whilst coupled to the shelf hanger, such that the height of the moving unit is selectively adjustable, characterized by the shelf further comprising: a latch device (141, 142) configured to allow the second shelf to be fixed to or unfixed from the first shelf; and a first elastic member providing an elastic force to allow the second shelf to be withdrawn from the first shelf, wherein when the second shelf is unfixed from the first shelf, the second shelf is withdrawn from the first shelf in a frontward direction by the elastic force of the first elastic member. a first shelf detachably coupled to the moving unit; a second shelf slidably coupled to the first shelf; the moving unit is arranged to move in a vertical direction along the shelf hanger whilst coupled to the shelf hanger, such that the height of the moving unit is selectively adjustable, characterized by the shelf further comprising: a latch device (141, 142) configured to allow the second shelf to be fixed to or unfixed from the first shelf; and a first elastic member providing an elastic force to allow the second shelf to be withdrawn from the first shelf, wherein when the second shelf is unfixed from the first shelf, the second shelf is withdrawn from the first shelf in a frontward direction by the elastic force of the first elastic member.
An imaging lens consisting, in order from an object side: a negative first lens; a negative second lens; a positive third lens; a stop (St); a positive fourth lens; and a negative fifth lens; wherein the following Conditional Expressions, and are satisfied: 3.0 < f 3 / f < 4.5 ν 3 < 45 and 0.50 < D 1 / f where f3 denotes a focal length of the third lens, f denotes a focal length of the imaging lens, v3 denotes an Abbe number of the third lens at the d-line, and D1 denotes a thickness of the first lens on the optical axis. where f3 denotes a focal length of the third lens, f denotes a focal length of the imaging lens, v3 denotes an Abbe number of the third lens at the d-line, and D1 denotes a thickness of the first lens on the optical axis.
A chemical dispenser for a chemical dispensing system, comprising: an input selector valve having opened and closed positions and configured to be coupled to a diluent source; a diverter valve coupled to the input selector valve; a plurality of eductors coupled to the diverter valve, wherein the diverter valve comprises a valve head having a diluent port and one or more pressure relief ports (196, 198) for equalizing the diluent pressure across the valve head; a valve seat having a plurality of eductor ports, each eductor port in communication with a respective one of the plurality of eductors; and a drive mechanism for moving the valve head relative to the valve seat so that diluent may flow through each of the plurality of eductors when the input selector valve is in an opened position and the diluent port of the valve seat is in communication with the eductor port corresponding to the each of the plurality of eductors. an input selector valve having opened and closed positions and configured to be coupled to a diluent source; a diverter valve coupled to the input selector valve; a plurality of eductors coupled to the diverter valve, wherein the diverter valve comprises a valve head having a diluent port and one or more pressure relief ports (196, 198) for equalizing the diluent pressure across the valve head; a valve seat having a plurality of eductor ports, each eductor port in communication with a respective one of the plurality of eductors; and a drive mechanism for moving the valve head relative to the valve seat so that diluent may flow through each of the plurality of eductors when the input selector valve is in an opened position and the diluent port of the valve seat is in communication with the eductor port corresponding to the each of the plurality of eductors. a valve head having a diluent port and one or more pressure relief ports (196, 198) for equalizing the diluent pressure across the valve head; a valve seat having a plurality of eductor ports, each eductor port in communication with a respective one of the plurality of eductors; and a drive mechanism for moving the valve head relative to the valve seat so that diluent may flow through each of the plurality of eductors when the input selector valve is in an opened position and the diluent port of the valve seat is in communication with the eductor port corresponding to the each of the plurality of eductors.
A method for assessing quality of a longitudinal sealing (402, 502) in a roll fed packaging machine comprising a packaging material receiver arranged to receive a web of packaging material, wherein the packaging material comprises an outer protective layer, an inner protective layer and an intermediate strengthening layer, and wherein the web has a first and second longitudinal side section, a strip receiver arranged to receive a protective strip, wherein the protective strip has a first and a second longitudinal side section, a strip applicator arranged to form a longitudinal strip sealing by applying the protective strip on the web by heating the web and the protective strip and pressing the web and protective strip together, a strip application camera arranged to capture strip application image data from a strip application area, said method comprising, receiving strip application image data of the strip application area, extracting features from the strip application image data, wherein the features are related to effects of the heating provided by the strip applicator, determining a strip application status by evaluating the features, wherein the strip application status relates to the quality of the longitudinal strip sealing, transmitting the strip application status, thereby providing a quality assessment of the longitudinal strip sealing. a packaging material receiver arranged to receive a web of packaging material, wherein the packaging material comprises an outer protective layer, an inner protective layer and an intermediate strengthening layer, and wherein the web has a first and second longitudinal side section, a strip receiver arranged to receive a protective strip, wherein the protective strip has a first and a second longitudinal side section, a strip applicator arranged to form a longitudinal strip sealing by applying the protective strip on the web by heating the web and the protective strip and pressing the web and protective strip together, a strip application camera arranged to capture strip application image data from a strip application area, said method comprising, receiving strip application image data of the strip application area, extracting features from the strip application image data, wherein the features are related to effects of the heating provided by the strip applicator, determining a strip application status by evaluating the features, wherein the strip application status relates to the quality of the longitudinal strip sealing, transmitting the strip application status, thereby providing a quality assessment of the longitudinal strip sealing.
An exhaust device for an engine, the exhaust device being connected to an exhaust port of the engine in which a plurality of cylinders (11,12,13,14) are arranged in series, the exhaust device comprising: a first exhaust pipe connected to an exhaust port of a first cylinder, among the plurality of the cylinders (11,12,13,14), disposed at one end in the array direction; and a second exhaust pipe connected to an exhaust port of a second cylinder, and a third exhaust pipe connected to an exhaust port of a third cylinder, the second cylinder and the third cylinder among the plurality of the cylinders (11,12,13,14) following the first cylinder in the array direction, wherein the second exhaust pipe and the third exhaust pipe are comprised of a tubular member including a merging tubular portion where exhaust gas from the exhaust port of the second cylinder and exhaust gas from the exhaust port of the third cylinder are merged inside; and a downstream tubular portion continued to the merging tubular portion via a communication opening portion, and formed on a downstream side in a flow direction of the exhaust gas, the first exhaust pipe is comprised of a pipe member, the merging tubular portion is comprised of combining a plurality of plate members (300,301), at least a part of which is formed by press working, the downstream tubular portion is disposed in such a way as to be offset on a side of the one end with respect to a center (CL 1) of the plurality of the cylinders (11,12,13.14) in the array direction, and a distal end of the first exhaust pipe is disposed inside the downstream tubular portion through the communication opening portion. a first exhaust pipe connected to an exhaust port of a first cylinder, among the plurality of the cylinders (11,12,13,14), disposed at one end in the array direction; and a second exhaust pipe connected to an exhaust port of a second cylinder, and a third exhaust pipe connected to an exhaust port of a third cylinder, the second cylinder and the third cylinder among the plurality of the cylinders (11,12,13,14) following the first cylinder in the array direction, wherein the second exhaust pipe and the third exhaust pipe are comprised of a tubular member including a merging tubular portion where exhaust gas from the exhaust port of the second cylinder and exhaust gas from the exhaust port of the third cylinder are merged inside; and a downstream tubular portion continued to the merging tubular portion via a communication opening portion, and formed on a downstream side in a flow direction of the exhaust gas, the first exhaust pipe is comprised of a pipe member, the merging tubular portion is comprised of combining a plurality of plate members (300,301), at least a part of which is formed by press working, the downstream tubular portion is disposed in such a way as to be offset on a side of the one end with respect to a center (CL 1) of the plurality of the cylinders (11,12,13.14) in the array direction, and a distal end of the first exhaust pipe is disposed inside the downstream tubular portion through the communication opening portion.
Corrugated board system for producing corrugated board, having a) an intermediate-web dispensing device for dispensing an intermediate web; b) a cover-web dispensing device for dispensing a cover web; c) a printing assembly, disposed downstream of the cover-web dispensing device, for printing the cover web, wherein the printing assembly is at least in part disposed above the cover-web dispensing device; d) a device, disposed downstream of the intermediate-web dispensing device and the printing assembly, for producing from the intermediate web and the cover web a corrugated board web laminated on one side; e) a lamination-web dispensing device for dispensing a lamination web; and f) a connecting device for connecting the corrugated board web laminated on one side and the lamination web to one another while forming an at least three-ply corrugated board web, characterized in that g) the printing assembly at least in regions extends over the cover-web dispensing device; h) the corrugated board system comprises at least one support frame (62; 62a) for at least in part supporting the printing assembly; and i) the at least one support frame (62; 62a) is configured so as to be separate from a corrugated board system bridge which supports an accumulator device for accumulating the corrugated board web laminated on one side. a) an intermediate-web dispensing device for dispensing an intermediate web; b) a cover-web dispensing device for dispensing a cover web; c) a printing assembly, disposed downstream of the cover-web dispensing device, for printing the cover web, wherein the printing assembly is at least in part disposed above the cover-web dispensing device; d) a device, disposed downstream of the intermediate-web dispensing device and the printing assembly, for producing from the intermediate web and the cover web a corrugated board web laminated on one side; e) a lamination-web dispensing device for dispensing a lamination web; and f) a connecting device for connecting the corrugated board web laminated on one side and the lamination web to one another while forming an at least three-ply corrugated board web, characterized in that g) the printing assembly at least in regions extends over the cover-web dispensing device; h) the corrugated board system comprises at least one support frame (62; 62a) for at least in part supporting the printing assembly; and i) the at least one support frame (62; 62a) is configured so as to be separate from a corrugated board system bridge which supports an accumulator device for accumulating the corrugated board web laminated on one side.