Abstract: There is provided an ink discharging apparatus including: a conveyor, a head, and a heater. The water-based ink for recording includes: a resin-dispersed pigment, resin fine particles of which glass transition temperature is not less than 33° C., water, and an organic solvent including a specific organic solvent of which saturation vapor pressure at 20° C. is not less than 0.03 hPa. The ink discharging apparatus satisfies the following condition (I): 6?(?/?)×1000?31. In the condition (I), ? (° C.) is the glass transition temperature of the resin fine particles, and ? (J/cm2) is an irradiation energy, radiated from the heater, per unit area of the recording medium.

Abstract: Disclosed herein is a coil component that includes a coil part embedded in a magnetic element body. The coil part has a structure in which plural interlayer insulating films and plural conductor layers having a coil pattern are alternately stacked. At least one of the conductor layers has a clearance area having no coil pattern and extending radially outward from a center axis of the coil part. The magnetic element body includes a first magnetic resin layer provided in an inner diameter area of the coil part, a second magnetic resin layer provided in a radially outside area of the coil part, and a fifth magnetic resin layer filled in the clearance area and contacting the first and second magnetic resin layers.

Abstract: A liquid discharging device includes: a cartridge mounting part configured to have a cartridge retaining a liquid mounted thereon; a head connected to the cartridge mounting part and configured to eject the liquid from a nozzle which is an opening provided on the nozzle surface of the head; and a discharge unit including a cap configured to cover the nozzle surface, the discharge unit being configured to discharge the liquid from the nozzle by creating a negative pressure in an internal space of the cap. The liquid is at least an ink, a storage liquid or a mixture thereof. The cartridge includes a first cartridge for retaining the ink and a second cartridge for retaining the storage liquid The ink includes a pigment, a resin microparticle, an organic solvent, a surfactant, and water. The storage liquid includes a water-soluble polymer, an organic solvent, a surfactant, and water.

Abstract: A liquid discharging device includes: a cartridge mounting part; a tank connected to the cartridge mounting part; a head that ejects a liquid; a discharge configured to discharge the liquid from the head; and a controller. The liquid is at least a storage liquid, a first liquid which is different from the storage liquid, or a mixture thereof. In a storage mode, the controller executes: a return process of returning the first liquid from the tank to a first liquid cartridge mounted on the cartridge mounting part; a first discharging process of discharging the first liquid from the head; a storage liquid supplying process for supplying a storage liquid from a storage liquid cartridge to the tank; and a second discharging process of discharging the storage liquid from the head, after executing the storage liquid supplying process.

Abstract: The production method of a radioactive metal-labeled antibody of the present invention includes a step of conducting a click reaction of a radioactive metal complex and an antibody site-specifically modified with a peptide to produce a radioactive metal-labeled antibody. The click reaction is performed between a first atomic group of the radioactive metal complex and a second atomic group directly or indirectly linked to the peptide. The second atomic group is an atomic group containing an azide group, or an atomic group containing trans-cyclooctene.

Abstract: A recording method includes: discharging a water-based recording ink onto a recording medium to record an image, determining whether the recording medium is a coated paper or a non-coated paper; heating the recording medium or the water-based recording ink adhered to the recording medium with a cumulative heating amount Q1 when the recording medium is determined to be a coated paper; and with a cumulative heating amount Q2 smaller than the cumulative heating amount Q1 when the recording medium is determined to be a non-coated paper. The water-based recording ink includes: a resin dispersion pigment; a fine resin particle; a water-soluble organic compound; and water. A melting point of the water-soluble organic compound is within a range of 20 to 55° C. A viscosity of a 50 mass % aqueous solution of the water-soluble organic compound is 8.5 mPa·s or more at 20° C. and 90 mPa·s or less at 50° C.

Abstract: A recording method includes: recording a first image on a recording medium; reading the first image to determine whether the first image is correctly recorded; and when the first image is determined as not being correctly recorded, recording a second image over the first image. The water-based recording ink includes a water-soluble organic solvent which is at least one selected from the group consisting of a glycol ether and a diol compound having six to eight carbon atoms and two hydroxyl groups, at least one of the two hydroxyl groups not being bonded to a terminal of a carbon chain of the diol compound. A content of substances having a vapor pressure of 0.03 hPa or less at 20° C. in the water-based recording ink is 10 mass % or less and a surface tension of the water-based recording ink is 30 mN/m or less.

Abstract: A water-based ink for ink-jet recording includes: a pigment, acrylic-based resin particles, a surfactant, trimethylglycine, and water; wherein a glass transition temperature of the acrylic-based resin particles is not less than 25° C. and is less than 50° C.; and a static surface tension of the water-based ink for ink-jet recording is not more than 27 mN/m.

Abstract: A water-based ink for ink-jet recording includes: a pigment, resin particles, a solvent and water, wherein the resin particles are resin particles of an acrylic-based polymer; and a storage elastic modulus E at 25° C. of an ink film, of the water-based ink for ink-jet recording, which is dried and solidified is not less than 9.7×108 Pa.

Abstract: Provided is a method for producing a radiohalogen-labeled compound, the method comprises: a step in which a radiohalogen-labeling precursor compound (S-L) having a leaving group (L) capable of being nucleophilically substituted by a radioactive halide ion (X?) is subjected to a radiohalogenation reaction to obtain a reaction mixture RM1 which contains the radiohalogen-labeling precursor compound (S-L) and a reaction product (S—X) resulting from the radiohalogenation reaction; a step in which the reaction mixture RM1 is mixed with a polyvalent acid or a salt thereof to obtain a reaction mixture RM2; and a step in which the reaction product (S—X) is purified from the reaction mixture RM2 by a solid phase extraction method.

Abstract: A water-based ink for ink-jet recording includes: a resin-dispersed pigment; resin fine particles of which glass transition temperature is not less than 22° C.; a humectant including a humectant component of which vapor pressure at 20° C. is not less than 0.02 hPa; and water. The water-based ink satisfies the following conditions (A) and (B): condition (A): 8.8??/??18.6, condition (B): 2.4??/??3.5; in the conditions (A) and (B): ?: a viscosity (mPa·s) at 25° C. of the water-based ink in a case that an evaporation rate obtained by a formula (1) is 0%, ?: a viscosity (mPa·s) at 25° C. of the water-based ink in a case that the evaporation rate obtained by the formula (1) is 50%, and ?: a viscosity (mPa·s) at 25° C. of the water-based ink in a case that the evaporation rate obtained by the formula (1) is 40%.

Abstract: There is provided an ink discharging apparatus including: a conveyor, a head, and a heater. The water-based ink for recording includes: a resin-dispersed pigment, resin fine particles of which glass transition temperature is not less than 33° C., water, and an organic solvent including a specific organic solvent of which saturation vapor pressure at 20° C. is not less than 0.03 hPa. The ink discharging apparatus satisfies the following condition (I): 6?(?/?)×WO 1000?31. In the condition (I), ?(° C.) is the glass transition temperature of the resin fine particles, and ? (J/cm2) is an irradiation energy, radiated from the heater, per unit area of the recording medium.

Abstract: Provided are a compound represented by the following formula (1): wherein X1 represents a hydrogen atom or a halogen atom, X2 represents a fluorine atom or a nitrile group, and X3 represents a radioactive halogen atom, or a salt thereof, and a medicament including the same.

Abstract: Provided are a compound represented by the following formula (1): wherein X1 represents a hydrogen atom or a halogen atom, X2 represents a fluorine atom or a nitrile group, and X3 represents a radioactive halogen atom, or a salt thereof, and a medicament including the same.

Abstract: There is provided a water-based ink for ink-jet recording, including: a dye; water; and a compound represented by the following formula (1): wherein in the formula (1), X3 represents a group represented by the following formula (2) and Y3 represents a hydrogen atom, or the X3 represents a group represented by the following formula (3) and the Y3 is an ethyl group; and in the formula (2), R3 represents a straight-chain or branched-chain alkyl group having 12 to 14 carbons.

Abstract: The present invention provides a process to enhance the productivity such as yield of radioactive fluorine labeled flutemetamol. Provided is a process for producing a radioactive fluorine labeled flutemetamol, which comprises: (a) a step of allowing a labeling precursor represented by the predetermined general formula to react with a radioactive fluoride ion in a presence of a solvent to obtain a radioactive fluorine labeled intermediate represented by the predetermined general formula, and (b) a step of removing the protecting groups from the radioactive fluorine labeled intermediate to obtain a radioactive fluorine labeled flutemetamol, in which the above step (a) is carried out at an internal temperature of reaction solution of 140° C. or higher.

Abstract: Provided is a method for producing a radiohalogen-labeled compound, the method comprises: a step in which a radiohalogen-labeling precursor compound (S-L) having a leaving group (L) capable of being nucleophilically substituted by a radioactive halide ion (X?) is subjected to a radiohalogenation reaction to obtain a reaction mixture RM1 which contains the radiohalogen-labeling precursor compound (S-L) and a reaction product (S—X) resulting from the radiohalogenation reaction; a step in which the reaction mixture RM1 is mixed with a polyvalent acid or a salt thereof to obtain a reaction mixture RM2; and a step in which the reaction product (S—X) is purified from the reaction mixture RM2 by a solid phase extraction method.

Abstract: The present invention provides a process to enhance the productivity such as yield of radioactive fluorine labeled flutemetamol. Provided is a process for producing a radioactive fluorine labeled flutemetamol, which comprises: (a) a step of allowing a labeling precursor represented by the predetermined general formula to react with a radioactive fluoride ion in a presence of a solvent to obtain a radioactive fluorine labeled intermediate represented by the predetermined general formula, and (b) a step of removing the protecting groups from the radioactive fluorine labeled intermediate to obtain a radioactive fluorine labeled flutemetamol, in which the above step (a) is carried out at an internal temperature of reaction solution of 140° C. or higher.

Abstract: There is provided a labeling precursor compound represented by the general formula (2): wherein S represents a substrate, L represents a straight alkyl group having 1 to 6 carbon atoms which may contain an ether group, R1 and R2 each independently represent a straight or branched alkyl group having 1 to 30 carbon atoms, or a substituted or unsubstituted monocyclic or condensed polycyclic aryl group, R3 each independently represent an alkyl group having 1 to 4 carbon atoms or an alkoxy group having 1 to 4 carbon atoms, and p represents an integer of 0 to 4.

Abstract: Provided is a method for producing flutemetamol including the steps of: reacting a precursor compound represented by a predetermined general formula with a radioactive fluoride to obtain a 18F labeling compound represented by a predetermined general formula; allowing a strong base to act on the reaction mixture of the above step containing the precursor compound and the 18F labeling compound; after the above step, purifying the 18F labeling compound using a reverse phase solid phase extraction cartridge; and removing a protective group to obtain [18F]flutemetamol.