mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a fiber-reinforced base material formed by stacking a base material sheet including a reinforcement fiber onto a mold having a double-curved surface shape, the method comprising steps of: supplying the base material sheet onto the mold from a base material roll (10, 30, 40) winded with the base material sheet; and applying pressure to the base material sheet in contact with the mold in such a state that distribution varying in a width direction is applied beforehand to a length of the base material sheet in a sheet-supplying direction of the base material sheet supplied from the base material roll (10, 30, 40) in correspondence with the double-curved surface shape of the mold, characterized in that the base material roll has a circumferential length varying in the width direction so as to apply the distribution to the length of the base material sheet in the sheet-supplying direction, and in that, while supplying the base material sheet onto the mold from the base material roll, an outer periphery of the base material roll is pressed against the mold over the base material sheet so as to apply pressure to the base material sheet in contact with the mold. supplying the base material sheet onto the mold from a base material roll (10, 30, 40) winded with the base material sheet; and applying pressure to the base material sheet in contact with the mold in such a state that distribution varying in a width direction is applied beforehand to a length of the base material sheet in a sheet-supplying direction of the base material sheet supplied from the base material roll (10, 30, 40) in correspondence with the double-curved surface shape of the mold, characterized in that the base material roll has a circumferential length varying in the width direction so as to apply the distribution to the length of the base material sheet in the sheet-supplying direction, and in that, while supplying the base material sheet onto the mold from the base material roll, an outer periphery of the base material roll is pressed against the mold over the base material sheet so as to apply pressure to the base material sheet in contact with the mold.
A method for reducing electromagnetic interference between devices in electrical communication, comprising the steps of: coupling a signal from a digital processing unit mounted on a second printed circuit board to an input section of a first printed circuit board filter having the input section and an output section, whereby the first printed circuit board filter is attached to an electromagnetically shielded product enclosure; filtering said signal with a filtering element mounted to the input section of the first printed circuit board filter wherein said filtering element is electrically coupled to a ground for said first printed circuit board filter; electromagnetically isolating the input section of the first printed circuit board filter from the output section of the first printed circuit board filter by a shield wall mounted between said input section and said output section of the first printed circuit board filter and proximate to an output of said filtering element, passing said signal through minimized apertures of said shield wall to the output section, the shield wall being attached to the enclosure through attachment holes such that electrical communication is established between the enclosure, the filtering element and the shield wall; and outputting the processed signal from at least one output connector mounted to the output section of the first printed circuit board filter to an output device included in a third printed circuit board, wherein said second printed circuit board and said output device are separate from each other. coupling a signal from a digital processing unit mounted on a second printed circuit board to an input section of a first printed circuit board filter having the input section and an output section, whereby the first printed circuit board filter is attached to an electromagnetically shielded product enclosure; filtering said signal with a filtering element mounted to the input section of the first printed circuit board filter wherein said filtering element is electrically coupled to a ground for said first printed circuit board filter; electromagnetically isolating the input section of the first printed circuit board filter from the output section of the first printed circuit board filter by a shield wall mounted between said input section and said output section of the first printed circuit board filter and proximate to an output of said filtering element, passing said signal through minimized apertures of said shield wall to the output section, the shield wall being attached to the enclosure through attachment holes such that electrical communication is established between the enclosure, the filtering element and the shield wall; and outputting the processed signal from at least one output connector mounted to the output section of the first printed circuit board filter to an output device included in a third printed circuit board, wherein said second printed circuit board and said output device are separate from each other.
Seed support comprising a self-supporting film for supporting one or more seeds, said self-supporting film comprising: a) between about 85% and about 99.5% of a first water-based adhesive by weight of the film; and b) between about 0.5% and about 15% water by weight of the film, wherein the seed support supports one or more plant seeds by adhesion of said one or more plant seeds to a first major surface of the self-supporting film; and wherein the self-supporting film is provided with a coating at the first major surface of the self-supporting film, such that the one or more plant seeds supported at said first major surface of the self-supporting film are wholly enclosed by said self-supporting film and said coating, said coating comprising: a) between about 85% and about 99.5% of a second water-based adhesive by weight of the coating; and b) between about 0.5% and about 15% water by weight of the coating. a) between about 85% and about 99.5% of a first water-based adhesive by weight of the film; and b) between about 0.5% and about 15% water by weight of the film, a) between about 85% and about 99.5% of a second water-based adhesive by weight of the coating; and b) between about 0.5% and about 15% water by weight of the coating.
Ventilation nipple for ventilating a tank component of plastics material, wherein the ventilation nipple has a flange, wherein the flange is arranged in an annular manner around a ventilation opening of the ventilation nipple, wherein the flange comprises plastics material and can be welded to the tank component, wherein the flange has a first annular collar and a second annular collar, wherein the first and the second collars (3, 4) are arranged coaxially with respect to each other, wherein an annular hollow space for receiving a sealing agent and/or adhesive is provided between the first and second collars (3, 4), characterised in that the ventilation nipple has an injection hole which connects the outer space, including after welding of the ventilation nipple to the tank component, to the annular hollow space so that the sealing agent and/or the adhesive can be introduced through the injection hole, even after welding to the tank component.
A method of communication, comprising: decoding a first set of bits from a first transmission, wherein the first set of bits includes a first subset of bits (602, 702, 802) and a second subset of bits (604, 704, 804); receiving a second transmission associated with the first transmission, the second transmission including a second set of bits without cyclic redundancy check, CRC, information, and the second set of bits corresponding to the second subset of bits; decoding the second set of bits; and decoding the first set of bits using the decoded second set of bits, wherein the decoding comprises list decoding. decoding a first set of bits from a first transmission, wherein the first set of bits includes a first subset of bits (602, 702, 802) and a second subset of bits (604, 704, 804); receiving a second transmission associated with the first transmission, the second transmission including a second set of bits without cyclic redundancy check, CRC, information, and the second set of bits corresponding to the second subset of bits; decoding the second set of bits; and decoding the first set of bits using the decoded second set of bits, wherein the decoding comprises list decoding.
A system for deployment and collection of road sticks in the roadside along a road, wherein the system is arranged on a wheel-going vehicle and comprises blister boxes for accommodation of numerous road sticks, and a stick-deployment device having means to pile one single road stick down into the ground while the wheel-going vehicle is in continuous motion, wherein the system comprises a loading frame arranged on the vehicle and having a loading platform, wherein the blister boxes are arranged on the loading platform, wherein the system further exhibits an elongate stick handling frame with a first clamp mounted to a rear end of the loading frame viewed in the driving direction, and a second clamp mounted to a forward end of the loading frame viewed in the driving direction, wherein the first and second clamp (302a, 302b) are attached pivotal to the loading frame about an axis parallel with the driving direction, wherein the stick handling frame further exhibits an elongate beam provided on the first and second clamps, the stick-deployment device being mounted to the beam and arranged to move back and forth along the stick handling frame with a slide and hold one of said sticks accommodated in the same in a fixed position above the ground while the wheel-going vehicle is in motion, wherein the stick handling frame further exhibits a stick fetching device mounted movable to the stick handling frame and arranged to exchange a road stick between a blister box on the loading frame and the stick-deployment device.
A pharmaceutical dosage system comprising: (a) from about 5 to about 40 mg of one or more of (i) Doxylamine and (ii) a pharmaceutically acceptable salt thereof; (b) from about 5 to about 80 mg of one or more of (i) a Pyridoxine compound of formula II, wherein R1 is a hydroxyl or phosphate group; and R2 is CH 2 OH, CHO, or CH 2 NH 2; (ii) a pharmaceutically acceptable ester of (i); and (iii) a pharmaceutically acceptable salt of any of (i)-(ii); and (c) from about 20 to about 100 mg of one or more of riboflavin, riboflavin-5-phosphate, flavin adenine dinucleotide, or a pharmaceutically acceptable salt thereof. (a) from about 5 to about 40 mg of one or more of (i) Doxylamine and (ii) a pharmaceutically acceptable salt thereof; (b) from about 5 to about 80 mg of one or more of (i) a Pyridoxine compound of formula II, wherein R1 is a hydroxyl or phosphate group; and R2 is CH 2 OH, CHO, or CH 2 NH 2; (ii) a pharmaceutically acceptable ester of (i); and (iii) a pharmaceutically acceptable salt of any of (i)-(ii); and R1 is a hydroxyl or phosphate group; and R2 is CH 2 OH, CHO, or CH 2 NH 2; (ii) a pharmaceutically acceptable ester of (i); and (iii) a pharmaceutically acceptable salt of any of (i)-(ii); and (ii) a pharmaceutically acceptable ester of (i); (c) from about 20 to about 100 mg of one or more of riboflavin, riboflavin-5-phosphate, flavin adenine dinucleotide,
An apparatus for providing configuration data to an integrated circuit, the apparatus comprising: a device programmer, coupled to a semiconductor fuse array disposed on a die, configured to program said semiconductor fuse array with compressed configuration data; and a plurality of cores, also disposed on said die, wherein each of said plurality of cores is coupled to said semiconductor fuse array, and wherein one of said plurality of cores is configured to access said semiconductor fuse array upon power-up/reset to read and decompress said compressed configuration data, and to store said decompressed configuration data sets for one or more cache memories within said each of said plurality of cores, a stores, also disposed on said die on which the plurality of cores is disposed but not within any of said plurality of cores, configured for storage and access of decompressed configuration data sets; said each of said plurality of cores comprising: reset logic, configured to employ said decompressed configuration data sets to initialize said one or more cache memories upon power-up/reset; and sleep logic, configured to determine that power is restored following a power gating event, and configured to subsequently access said stores to retrieve and employ said decompressed configuration data sets to initialize said one or more caches following said power gating event. a device programmer, coupled to a semiconductor fuse array disposed on a die, configured to program said semiconductor fuse array with compressed configuration data; and a plurality of cores, also disposed on said die, wherein each of said plurality of cores is coupled to said semiconductor fuse array, and wherein one of said plurality of cores is configured to access said semiconductor fuse array upon power-up/reset to read and decompress said compressed configuration data, and to store said decompressed configuration data sets for one or more cache memories within said each of said plurality of cores, a stores, also disposed on said die on which the plurality of cores is disposed but not within any of said plurality of cores, configured for storage and access of decompressed configuration data sets; said each of said plurality of cores comprising: reset logic, configured to employ said decompressed configuration data sets to initialize said one or more cache memories upon power-up/reset; and sleep logic, configured to determine that power is restored following a power gating event, and configured to subsequently access said stores to retrieve and employ said decompressed configuration data sets to initialize said one or more caches following said power gating event. reset logic, configured to employ said decompressed configuration data sets to initialize said one or more cache memories upon power-up/reset; and sleep logic, configured to determine that power is restored following a power gating event, and configured to subsequently access said stores to retrieve and employ said decompressed configuration data sets to initialize said one or more caches following said power gating event.
A medical apparatus, comprising: a probe (45; 111), having a distal section for insertion into a body of a subject and a longitudinal axis of symmetry; at least one electrode disposed on the distal section of the probe and coupled to an energy source to apply energy to tissue inside the body, the electrode having an outer surface, a lumen, and a wall having a plurality of apertures formed therethrough, and a fluid-directing assembly (51; 113) in the distal section having an axial channel that is in fluid communication with at least one trans-axial channel (89; 121) disposed at right angles to the axial channel and leading to an exterior of the assembly, the trans-axial channel configured such that an irrigation fluid exits the trans-axial channel into the lumen of the at least one electrode, and a blocking terminus disposed forward of the at least one trans-axial channel that prevents the irrigation fluid from flowing axially in a forward direction; and wherein some of the apertures (57, 59) are oriented at a backward angle with respect to the axis of symmetry to deliver the fluid that exits the assembly diagonally behind and outward of the distal section. a probe (45; 111), having a distal section for insertion into a body of a subject and a longitudinal axis of symmetry; at least one electrode disposed on the distal section of the probe and coupled to an energy source to apply energy to tissue inside the body, the electrode having an outer surface, a lumen, and a wall having a plurality of apertures formed therethrough, and a fluid-directing assembly (51; 113) in the distal section having an axial channel that is in fluid communication with at least one trans-axial channel (89; 121) disposed at right angles to the axial channel and leading to an exterior of the assembly, the trans-axial channel configured such that an irrigation fluid exits the trans-axial channel into the lumen of the at least one electrode, and a blocking terminus disposed forward of the at least one trans-axial channel that prevents the irrigation fluid from flowing axially in a forward direction; and wherein some of the apertures (57, 59) are oriented at a backward angle with respect to the axis of symmetry to deliver the fluid that exits the assembly diagonally behind and outward of the distal section.
A procatalyst for polymerization of olefins, which comprises the compound represented by formula A as an internal electron donor, wherein: R 81, R 82, R 83, R 84 R 85 and R 86 are the same or different and are independently selected from a group consisting of hydrogen or a linear, branched or cyclic hydrocarbyl group, selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 20 carbon atoms; R 87 is a hydrogen or a linear, branched or cyclic hydrocarbyl group, selected from alkyl, alkenyl, aryl, aralkyl, alkoxycarbonyl or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 20 carbon atoms; each R 80 group is independently a linear, branched or cyclic hydrocarbyl group selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 30 carbon atoms; N is nitrogen atom; O is oxygen atom; and C is carbon atom. wherein: R 81, R 82, R 83, R 84 R 85 and R 86 are the same or different and are independently selected from a group consisting of hydrogen or a linear, branched or cyclic hydrocarbyl group, selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 20 carbon atoms; R 87 is a hydrogen or a linear, branched or cyclic hydrocarbyl group, selected from alkyl, alkenyl, aryl, aralkyl, alkoxycarbonyl or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 20 carbon atoms; each R 80 group is independently a linear, branched or cyclic hydrocarbyl group selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having from 1 to 30 carbon atoms; N is nitrogen atom; O is oxygen atom; and C is carbon atom.
A pharmaceutical composition for use in the prevention or treatment of respiratory diseases comprising herbal extracts prepared by extracting a herb mixture comprising Sophora flavascens, Radix glycyrrhizae, Flos Lonicerae, Angelicae Gigantis radix, Aralia continentalis, Saussurea lappa, Saposhnikoviae radix, Zizyphus spinosa, Houttuynia cordata, Forsythiae fructus, Arctium lappa, Herba epimedii, ginseng, Lithospermi radix, Sanguisorbae radix, Cnidii rhizoma, Scrophulariae radix, and Polygoni cuspidati radix by using water or an organic solvent, or fermented products thereof using lactic acid bacteria as an active ingredient.
An image forming apparatus comprising: a first liquid applier configured to apply liquid to a first side of a recording medium; a second liquid applier configured to apply the liquid to a second side of the recording medium bearing the liquid applied to the first side by the first liquid applier; and a drying unit configured to dry the recording medium bearing the liquid applied to the second side by the second liquid applier, the drying unit including a conveyor configured to convey, in a conveyance direction, the recording medium bearing the liquid applied to the second side by the second liquid applier, and a heater configured to heat the recording medium conveyed by the conveyor; the conveyor being configured to convey the recording medium in contact with the first side of the recording medium, characterized in that the surface of the conveyor is a heating surface that conducts heat from the heater to the recording medium, and the heater is configured to be controlled such that the temperature of the heating surface at a downstream location in the conveyance direction of the recording medium is higher than a temperature of the heating surface at an upstream location in the conveyance direction of the recording medium. a first liquid applier configured to apply liquid to a first side of a recording medium; a second liquid applier configured to apply the liquid to a second side of the recording medium bearing the liquid applied to the first side by the first liquid applier; and a drying unit configured to dry the recording medium bearing the liquid applied to the second side by the second liquid applier, the drying unit including a conveyor configured to convey, in a conveyance direction, the recording medium bearing the liquid applied to the second side by the second liquid applier, and a heater configured to heat the recording medium conveyed by the conveyor; the conveyor being configured to convey the recording medium in contact with the first side of the recording medium, characterized in that the surface of the conveyor is a heating surface that conducts heat from the heater to the recording medium, and the heater is configured to be controlled such that the temperature of the heating surface at a downstream location in the conveyance direction of the recording medium is higher than a temperature of the heating surface at an upstream location in the conveyance direction of the recording medium.
A method comprising: receiving at a user equipment a signal comprising a radio configuration time trace parameter from a base station, wherein the radio configuration time trace parameter defines a sequence or list of future, time-limited radio configurations to be used by the user equipment during time steps of a time period; for a time step amongst the time steps, determining at the user equipment a radio access action to be carried out by the user equipment based on a comparison between a value generated by the user equipment and a threshold value for the time step received in the radio configuration time trace parameter, wherein the radio access action comprises triggering an uplink radio access; and using the radio configurations to carry out the determined radio access action. receiving at a user equipment a signal comprising a radio configuration time trace parameter from a base station, wherein the radio configuration time trace parameter defines a sequence or list of future, time-limited radio configurations to be used by the user equipment during time steps of a time period; for a time step amongst the time steps, determining at the user equipment a radio access action to be carried out by the user equipment based on a comparison between a value generated by the user equipment and a threshold value for the time step received in the radio configuration time trace parameter, wherein the radio access action comprises triggering an uplink radio access; and using the radio configurations to carry out the determined radio access action.
A T-cell expressing one or more polypeptides comprising a T-cell receptor or fragment thereof that binds to a peptide/major histocompatibility complex complex, wherein the MHC is HLA-A*0201, and wherein the peptide in the peptide/MHC complex consists of 10-14 amino acids and comprises RMSAPSTGGV (SEQ ID NO:2).