Abstract: A transdermal delivery system for delivery of a triptan into a tissue membrane of a subject. The system includes a transdermal microporation apparatus for heating a skin surface and a triptan drug delivery patch. The drug delivery patch comprises a top layer comprising an adhesive, a middle layer comprising the triptan, and a bottom layer. A method for treating a subject comprises identifying a subject having a migraine, using the transdermal microporation apparatus to open a plurality of micropores in the skin of the subject, and applying the triptan drug delivery patch to the subject's skin over the micropores for a period of time effective to deliver the triptan through the micropores in an amount effective to treat the subject's migraine.

Abstract: A transdermal delivery system for delivery of a triptan into a tissue membrane of a subject. The system includes a transdermal microporation apparatus for heating a skin surface and a triptan drug delivery patch. The drug delivery patch comprises a top layer comprising an adhesive, a middle layer comprising the triptan, and a bottom layer. A method for treating a subject comprises identifying a subject having a migraine, using the transdermal microporation apparatus to open a plurality of micropores in the skin of the subject, and applying the triptan drug delivery patch to the subject's skin over the micropores for a period of time effective to deliver the triptan through the micropores in an amount effective to treat the subject's migraine.

Abstract: To provide a transdermal drug delivery patch that can be suitably used for an immediate release application of a pharmaceutical with a comparatively low molecular weight. A transdermal drug delivery patch, provided with a matrix and at least one drug disposed within the matrix, wherein the matrix has a water holding capacity of 10 mg/cm2 or less, and the drug is a pharmaceutical having a molecular weight of 5000 or less.

Abstract: Thin solid tablet compositions containing an active permeant can be used in methods for administering the permeant to a subject. The thin solid tablet can be incorporated into a patch. The patch can be used to administer the permeant, such as a drug and an excipient, to the subject by transdermal microporation.

Abstract: A transdermal permeant delivery system for delivery of at least one permeant into a tissue membrane of a subject comprises a filament array having a plurality of filaments that are disposed in a poration area and configured to deliver thermal energy to the tissue membrane to form a plurality of micropores; a applicator electrically connected to the filament array and configured to supply electrical energy to the filaments in order to create the plurality of micropores in the micropore area; and a patch configured for application on the micropore area and for releaseably containing at least one permeant. Method of treatment comprise using the transdermal permeant delivery system to administered a permeant in the form of a drug to a subject in need thereof.

Abstract: A transdermal delivery system for delivery of a triptan into a tissue membrane of a subject. The system includes a transdermal microporation apparatus for heating a skin surface and a triptan drug delivery patch. The drug delivery patch comprises a top layer comprising an adhesive, a middle layer comprising the triptan, and a bottom layer. A method for treating a subject comprises identifying a subject having a migraine, using the transdermal microporation apparatus to open a plurality of micropores in the skin of the subject, and applying the triptan drug delivery patch to the subject's skin over the micropores for a period of time effective to deliver the triptan through the micropores in an amount effective to treat the subject's migraine.

Abstract: The present invention provides a linker for solid phase synthesis of nucleic acid, which consists of a compound represented by the formula (I) or the formula (II), a support for solid phase synthesis of nucleic acid, which has a structure represented by the formula (III), and a production method of a nucleic acid, which uses the support: wherein each symbol is as defined in the SPECIFICATION.

Abstract: The invention provides a cut-out method capable of suppressing production of a byproduct, wherein the object RNA oligonucleotide is not cleaved from a universal linker, which is produced in cutting out the object RNA oligonucleotide from the universal support, and capable of increasing the yield of the object RNA oligonucleotide. The RNA oligonucleotide cut-out method includes a step of bringing a universal support supporting an RNA oligonucleotide in contact with an aqueous solution containing alkylamine and a monovalent inorganic salt.

Abstract: The invention provides a cut-out method capable of suppressing production of a byproduct, wherein the object RNA oligonucleotide is not cleaved from a universal linker, which is produced in cutting out the object RNA oligonucleotide from the universal support, and capable of increasing the yield of the object RNA oligonucleotide. The RNA oligonucleotide cut-out method includes a step of bringing a universal support supporting an RNA oligonucleotide in contact with an aqueous solution containing alkylamine and a monovalent inorganic salt.

Abstract: The present invention provides a linker for solid phase synthesis of nucleic acid, which consists of a compound represented by the formula (I) or the formula (II), a support for solid phase synthesis of nucleic acid, which has a structure represented by the formula (III), and a production method of a nucleic acid, which uses the support: wherein each symbol is as defined in the SPECIFICATION.

Abstract: The present invention provides a porous resin bead of a copolymer composed of a monovinyl monomer unit and a crosslinking vinyl monomer unit, which has a group capable of binding with a carboxy group by a dehydration condensation reaction, wherein the amount of the crosslinking vinyl monomer is 18.5-55 mol % of the total monomer, and the median pore size of the porous resin bead is 60-300 nm.

Abstract: Provided is an anti-leishmanial compound represented by formula (1):

Abstract: Provided is an anti-leishmanial compound represented by formula (1):

Abstract: Provided is an anti-leishmanial compound represented by formula (3):

Abstract: Provided is an anti-leishmanial compound represented by formula (3):