mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing acrolein from glycerol, characterized in that a dehydration of the glycerol is carried out in the presence of a catalyst MWOA, wherein MWO represents a mixture of simple oxides and/or mixed oxides of tungsten and of at least one metal M selected from zirconium, silicon, titanium, alumina, and yttrium and A represents one or a plurality of Lewis bases, one said Lewis base having the formula B p q r, wherein B is a member selected from C, S, P, O, N and halides, R1, R2 and R3 represent, independently of one another, H, a C1-C6 alkyl group, O, OH or OR wherein R represents a C1-C6 alkyl group, and the sum of p, q and r ranges from 0 to 4.
Surgical instrument with two instrument parts (2, 5) coupled together by means of a hinge, which form at least one attachment site (14, 15, 16) in their coupling area where the two instrument parts (2, 5) are aligned to pivot about a hinge pin that is arranged or designed in the coupling area, wherein at least one attachment site of the one or both instrument parts (2, 5) has a section of surface material removed in the area of a hinge pin groove, whereby in this region a recess with a predetermined depression depth and arranged longitudinally on the instrument results in an elevation (16b, 16c) on both sides of the hinge pin in the regions of the attachment site remote from the hinge pin, which enclose the recess between themselves longitudinally along the instrument, characterised in that the hinge pin features a design attitude that defines at least one supporting edge (12, 13) at the height of the elevation (16b, 16c), which operates in its axial direction.
A liquid container comprising: a pouch including a flexible bag and a spout (70, 71, 92) with a first opening; and a case with a second opening, the case including a tank (34, 76, 77A) configured to store a liquid flowed through the second opening, wherein the spout (70, 71, 92) is fitted into the case, and the bag is positioned in the tank (34, 76, 77A), characterised in that the second opening is positioned above the first opening, and in that the case includes an atmosphere communication hole for communication between inside and outside of the tank (34, 76, 77A), and in that the atmosphere communication hole is positioned above the second opening. a pouch including a flexible bag and a spout (70, 71, 92) with a first opening; and a case with a second opening, the case including a tank (34, 76, 77A) configured to store a liquid flowed through the second opening, wherein the spout (70, 71, 92) is fitted into the case, and the bag is positioned in the tank (34, 76, 77A), characterised in that the second opening is positioned above the first opening, and in that the case includes an atmosphere communication hole for communication between inside and outside of the tank (34, 76, 77A), and in that the atmosphere communication hole is positioned above the second opening.
Process for the preparation of an oxysulfide and fluorinated compound, comprising the reaction, in the presence of an organic solvent: i) of at least one compound of formula Ea-X, where Ea represents a fluorine atom or a group preferably having from 1 to 10 carbon atoms chosen from fluoroalkyls, perfluoroalkyls and fluoroalkenyls, and X represents bromine, chlorine or iodine, and ii) of a sulfur oxide, said process being such that the concentration of sulfur oxide dissolved in the reaction medium is maintained at a value of between 0.2 weight% and 3 weight%. i) of at least one compound of formula Ea-X, where Ea represents a fluorine atom or a group preferably having from 1 to 10 carbon atoms chosen from fluoroalkyls, perfluoroalkyls and fluoroalkenyls, and X represents bromine, chlorine or iodine, and ii) of a sulfur oxide,
A memory, comprising: a memory cell comprising a memory cell transistor (306, 308, 310, 312, 314, 318), and a wordline driver (405, 405_1) coupled to the memory cell by a wordline, the wordline driver (405, 405_1) being configured to adjust a voltage level of the wordline to compensate for a parameter of the memory cell transistor based on a feedback of the wordline, wherein the wordline driver (405, 405_1) further comprises a pull-down transistor separate from a buffer driving the wordline, the pull-down transistor being coupled to the wordline to adjust the voltage level of the wordline and a passgate transistor coupled between the wordline and a gate of the pull-down transistor to bias the gate of the pull-down transistor. a memory cell comprising a memory cell transistor (306, 308, 310, 312, 314, 318), and a wordline driver (405, 405_1) coupled to the memory cell by a wordline, the wordline driver (405, 405_1) being configured to adjust a voltage level of the wordline to compensate for a parameter of the memory cell transistor based on a feedback of the wordline, wherein the wordline driver (405, 405_1) further comprises a pull-down transistor separate from a buffer driving the wordline, the pull-down transistor being coupled to the wordline to adjust the voltage level of the wordline and a passgate transistor coupled between the wordline and a gate of the pull-down transistor to bias the gate of the pull-down transistor.
A flying body comprising a display apparatus comprising a display facing outward from the flying body and a display control apparatus configured to control the display apparatus, • wherein the flying body further comprises a progression direction acquiring apparatus configured to acquire a progression direction in which the flying body is moving, and • the display control apparatus includes a progression direction display control section configured to selectively provide the display of the display apparatus based on the progression direction acquired by the progression direction acquiring apparatus, wherein the display apparatus includes two or more light emitting sections (120, 122) each having a light emission amount that is changeable, and characterised in that • the progression direction display control section is configured to display the progression direction of the flying body by changing the light emission amounts of the two or more light emitting sections (120, 122) in an order based on the progression direction acquired by the progression direction acquiring apparatus. • wherein the flying body further comprises a progression direction acquiring apparatus configured to acquire a progression direction in which the flying body is moving, and • the display control apparatus includes a progression direction display control section configured to selectively provide the display of the display apparatus based on the progression direction acquired by the progression direction acquiring apparatus, wherein the display apparatus includes two or more light emitting sections (120, 122) each having a light emission amount that is changeable, and characterised in that • the progression direction display control section is configured to display the progression direction of the flying body by changing the light emission amounts of the two or more light emitting sections (120, 122) in an order based on the progression direction acquired by the progression direction acquiring apparatus.
A magnetic plug assembly, comprising: a moveable member comprising an aperture and one or more magnets (106, 108), wherein the moveable member is moveable between an extended position and a retracted position; a plug tip extending through the aperture; and one or more biasing elements (134, 138) urging the moveable member and the one or more magnets toward a distal end of the plug tip, wherein the moveable member is moveable relative to the plug tip and wherein the one or more biasing elements maintain the moveable member in the extended position, characterised in that the magnetic plug assembly is configured to electronically couple to a magnetic receptacle when the moveable member is in the extended position. a moveable member comprising an aperture and one or more magnets (106, 108), wherein the moveable member is moveable between an extended position and a retracted position; a plug tip extending through the aperture; and one or more biasing elements (134, 138) urging the moveable member and the one or more magnets toward a distal end of the plug tip, wherein the moveable member is moveable relative to the plug tip and wherein the one or more biasing elements maintain the moveable member in the extended position, characterised in that the magnetic plug assembly is configured to electronically couple to a magnetic receptacle when the moveable member is in the extended position.
An inspection system configured to inspect a plurality of capsule objects, each of the capsule objects comprising an outer shell and an inner payload, the inspection system comprising: at least one imaging device configured to capture at least one image of an exterior of each of the capsule objects during freefall of the capsule objects; a weighing device configured to measure a weight of each of the capsule objects; and an analysis unit configured to analyze the at least one image captured by the at least one imaging device and to analyze the weight measurement obtained by the weighing device for each of the capsule objects, the analysis unit being configured to execute: an edge detection tool configured to determine a dimension of each of the capsule objects based on the at least one image and to determine whether any of the capsule objects are defective based on the dimension; and a weight analysis tool configured to determine whether any of the capsule objects are defective based on the weight. at least one imaging device configured to capture at least one image of an exterior of each of the capsule objects during freefall of the capsule objects; a weighing device configured to measure a weight of each of the capsule objects; and an analysis unit configured to analyze the at least one image captured by the at least one imaging device and to analyze the weight measurement obtained by the weighing device for each of the capsule objects, the analysis unit being configured to execute: an edge detection tool configured to determine a dimension of each of the capsule objects based on the at least one image and to determine whether any of the capsule objects are defective based on the dimension; and a weight analysis tool configured to determine whether any of the capsule objects are defective based on the weight. an edge detection tool configured to determine a dimension of each of the capsule objects based on the at least one image and to determine whether any of the capsule objects are defective based on the dimension; and a weight analysis tool configured to determine whether any of the capsule objects are defective based on the weight.
A method of manufacturing a hot press-formed part by hot pressing a coated steel sheet formed with a Zn-Ni plating layer on a surface of a steel sheet, wherein the steel sheet has a chemical composition consisting of, in mass%, C: 0.15 % or more and 0.50 % or less, Si: 0.05 % or more and 2.00 % or less, Mn: 0.50 % or more and 3.00 % or less, P: 0.10 % or less, S: 0.050 % or less, Al: 0.10 % or less, and N: 0.010 % or less, optionally one or more of Cr: 0.01 % or more and 0.50 % or less, V: 0.01 % or more and 0.50 % or less, Mo: 0.01 % or more and 0.50 % or less, Ni: 0.01 % or more and 0.50 % or less, Ti: 0.01 % or more and 0.20 % or less, Nb: 0.01 % or more and 0.10 % or less, B: 0.0002 % or more and 0.0050 % or less, and Sb: 0.003 % or more and 0.030 % or less, and the balance consisting of Fe and unavoidable impurities, the method comprising: heating the coated steel sheet to a temperature range of Ac 3 transformation temperature to 1000 °C; cooling the heated coated steel sheet to a temperature of 550 °C or lower and 410 °C or higher, at a cooling rate of 100 °C/s or higher, by squeezing the coated steel sheet with a cooling press tool, wherein the cooling press tool comprises an upper cooling tool and a lower cooling tool, each having a flat surface configured to contact the coated steel sheet and wherein both front and back surfaces of the coated steel sheet are squeezed entirely with the cooling press tool; press forming the coated steel sheet by squeezing the steel sheet between a die and a punch of a press forming tool to obtain a formed body, the press forming being initiated within 5 seconds after the cooling while the temperature of the coated steel sheet is 550 °C or lower and 400 °C or higher; and quenching the formed body, while squeezing the formed body with the press forming tool and holding at its press bottom dead center, to obtain a hot press-formed part. heating the coated steel sheet to a temperature range of Ac 3 transformation temperature to 1000 °C; cooling the heated coated steel sheet to a temperature of 550 °C or lower and 410 °C or higher, at a cooling rate of 100 °C/s or higher, by squeezing the coated steel sheet with a cooling press tool, wherein the cooling press tool comprises an upper cooling tool and a lower cooling tool, each having a flat surface configured to contact the coated steel sheet and wherein both front and back surfaces of the coated steel sheet are squeezed entirely with the cooling press tool; press forming the coated steel sheet by squeezing the steel sheet between a die and a punch of a press forming tool to obtain a formed body, the press forming being initiated within 5 seconds after the cooling while the temperature of the coated steel sheet is 550 °C or lower and 400 °C or higher; and quenching the formed body, while squeezing the formed body with the press forming tool and holding at its press bottom dead center, to obtain a hot press-formed part.
A floating catalyst chemical vapour deposition method for producing nanotubes, the method including: supplying a nanotube-material precursor and a catalyst precursor, heating said precursors and injecting said precursors into a heated reaction chamber containing a process gas; pyrolysing the catalyst precursor within the reaction chamber to produce catalyst particles; and pyrolysing the nanotube-material precursor within the reaction chamber in the presence of the catalyst particles in order to produce nanotubes; wherein the method further comprises controlling one or more operational parameters of the reaction chamber and/or of the precursor supplies selected from (a) the injection temperature of the catalyst precursor, (b) the injection temperature of the nanotube-material precursor, (c) the flow rate of a carrier gas of the catalyst precursor, (d) the flow rate of a carrier gas of the nanotube-material precursor, and (e) the reaction temperature; wherein the catalyst precursor is injected by an injection pipe (7; 10) having an adjustable length within the reaction chamber, and controlling the injection temperature of the catalyst precursor comprises adjusting the extent to which its injection pipe (7; 10) extends into the reaction chamber; and/or the nanotube-material precursor is injected by an injection pipe (7; 10) having an adjustable length within the reaction chamber, and controlling the injection temperature of the nanotube-material precursor comprises adjusting the extent to which its injection pipe (7; 10) extends into the reaction chamber. supplying a nanotube-material precursor and a catalyst precursor, heating said precursors and injecting said precursors into a heated reaction chamber containing a process gas; pyrolysing the catalyst precursor within the reaction chamber to produce catalyst particles; and pyrolysing the nanotube-material precursor within the reaction chamber in the presence of the catalyst particles in order to produce nanotubes; wherein the method further comprises controlling one or more operational parameters of the reaction chamber and/or of the precursor supplies selected from (a) the injection temperature of the catalyst precursor, (b) the injection temperature of the nanotube-material precursor, (c) the flow rate of a carrier gas of the catalyst precursor, (d) the flow rate of a carrier gas of the nanotube-material precursor, and (e) the reaction temperature; wherein the catalyst precursor is injected by an injection pipe (7; 10) having an adjustable length within the reaction chamber, and controlling the injection temperature of the catalyst precursor comprises adjusting the extent to which its injection pipe (7; 10) extends into the reaction chamber; and/or the nanotube-material precursor is injected by an injection pipe (7; 10) having an adjustable length within the reaction chamber, and controlling the injection temperature of the nanotube-material precursor comprises adjusting the extent to which its injection pipe (7; 10) extends into the reaction chamber.
An earth working machine, such as a road milling machine, recycler, stabilizer, or surface miner, encompassing a machine body having a machine frame and a drive configuration (46; 146; 246), rotationally drivable relative to the machine frame around a drive axis that defines an axial direction, that extends along the drive rotation axis from an introduction longitudinal end at which the drive configuration (46; 146; 246) is embodied for introduction of a drive torque to a functional longitudinal end (46b; 146b; 246b) located axially oppositely from the introduction longitudinal end, and to which configuration a working apparatus (32; 132; 232) embodied for earth working is releasably connected in torque-transferring fashion, in an operating position operational for earth working, for rotation together around the drive axis, such that when the connection is released, the working apparatus (32; 132; 232) is removable from the operating position in an axial direction relative to the drive configuration (46; 146; 246) for deinstallation from the drive configuration (46; 146; 246) and, for installation on the drive configuration (46; 146; 246), is conveyable into the operating position in an axial direction relative to the drive configuration (46; 146; 246), an actuator (65; 165; 265) being provided which is embodied to move the working apparatus (32; 132; 232) out of the operating position when the connection is released, characterized in that the actuator (65; 165; 265) comprises an actuator member (63, 163, 263) and an actuator housing (62, 162, 262) which is provided on the drive configuration (46; 146; 246) for movement together therewith, at a position that is located closer to the functional longitudinal end (46b; 146b; 246b) than to the introduction longitudinal end, the actuator member (63, 163, 263) of the actuator (65, 165, 265) being movable relative to the actuator housing (63, 163, 263).
A connection module to be connected to an automatic analyzer with a rack rotor mechanism, comprising: a rack discharge mechanism for moving a rack from the rack rotor mechanism to a rotation holder; a rack rotating mechanism for rotating the rack moved to the rotation holder; a conveyor mechanism for transporting the rack from the rack rotating mechanism to a discharge port; and a feeder mechanism for pushing the rack out of the rotation holder to the conveyor mechanism, wherein the rack rotating mechanism rotates the rotation holder in a selected rotation direction from a direction parallel to the rack discharge mechanism to a direction parallel to the feeder mechanism and the conveyor mechanism, the rack discharge mechanism includes: a rail for supporting the rack under movement from the rack rotor mechanism to the rotation holder; a slider shaft; and a carriage, the carriage including: a slider to slide on the slider shaft; and a holding part located on the slider to hold the rack, and a length of the rail is shorter than an overall length of the rack. a rack discharge mechanism for moving a rack from the rack rotor mechanism to a rotation holder; a rack rotating mechanism for rotating the rack moved to the rotation holder; a conveyor mechanism for transporting the rack from the rack rotating mechanism to a discharge port; and a feeder mechanism for pushing the rack out of the rotation holder to the conveyor mechanism, wherein the rack rotating mechanism rotates the rotation holder in a selected rotation direction from a direction parallel to the rack discharge mechanism to a direction parallel to the feeder mechanism and the conveyor mechanism, the rack discharge mechanism includes: a rail for supporting the rack under movement from the rack rotor mechanism to the rotation holder; a slider shaft; and a carriage, the carriage including: a slider to slide on the slider shaft; and a holding part located on the slider to hold the rack, and a length of the rail is shorter than an overall length of the rack.
A method of making a coated article including a substrate supporting a coating, the method comprising: providing a titanium-based precursor; providing a chelate; reacting the titanium-based precursor with the chelate to form a chelated titanium-inclusive substance; providing an organic resin material; cross-linking the chelated titanium-inclusive substance with the organic resin material to form an organic-inorganic hybrid solution; and disposing the organic-inorganic hybrid solution on the substrate in forming the coating, either (a) by slot die coating the organic-inorganic hybrid solution, or (b) by introducing the organic-inorganic hybrid solution into a laminable medium, the laminable medium being disposed on the substrate, wherein the coating has an index of refraction of at least 1.8 and is substantially transparent. providing a titanium-based precursor; providing a chelate; reacting the titanium-based precursor with the chelate to form a chelated titanium-inclusive substance; providing an organic resin material; cross-linking the chelated titanium-inclusive substance with the organic resin material to form an organic-inorganic hybrid solution; and disposing the organic-inorganic hybrid solution on the substrate in forming the coating, either (a) by slot die coating the organic-inorganic hybrid solution, or (b) by introducing the organic-inorganic hybrid solution into a laminable medium, the laminable medium being disposed on the substrate, (a) by slot die coating the organic-inorganic hybrid solution, or (b) by introducing the organic-inorganic hybrid solution into a laminable medium, the laminable medium being disposed on the substrate, wherein the coating has an index of refraction of at least 1.8 and is substantially transparent.
A composition for use in a method of cosmetic surgery treatment, ophthalmic surgery treatment, or otologic surgery treatment or for use in a method of treatment of ulcerative lesions of the mouth comprising a hyaluronic acid conjugated at least with riboflavin or a derivative thereof, wherein the hyaluronic acid is conjugated to the riboflavin by a covalent bond and wherein said covalent bond is an ester bond between the carboxylic group of hyaluronic acid and the C20 carbon of riboflavin according to the structure formula:
Device for inserting an electrically conductive wire clip into a workpiece made of thermoplastic plastic material, with a housing and a first and second electrode (3, 4) provided thereat, which receives a respective leg (51, 52) of the wire clip for generating a current flow heating the wire clip to drive the same into the workpiece by advancing the housing whilst liquefying the thermoplastic plastic material, characterised in that the housing has a depth stop which is adjustable in an advancing direction and which is located in the area of the electrodes (3, 4).