Abstract: The object of the present invention is to provide an adhesion film for semiconductor that is capable of bonding a semiconductor chip to a lead frame tightly at an adhesion temperature lower than that of the adhesion film of a traditional polyimide resin without generation of voids and that can also be used for protection of lead frame-exposed area, a thermoplastic resin composition for semiconductor for use in the adhesive agent layer therein, and a lead frame having the adhesive film and a semiconductor device; and, to achieve the object, the present invention provides a thermoplastic resin composition for semiconductor, comprising a thermoplastic resin obtained in reaction of an amine component containing an aromatic diamine mixture (A) containing 1,3-bis(3-aminophenoxy)benzene, 3-(3?-(3?-aminophenoxy)phenyl)amino-1-(3?-(3?-aminophenoxy)phenoxy)benzene and 3,3?-bis(3?-aminophenoxy)diphenylether, and an acid component (C), an adhesion film for semiconductor using the same, a lead frame having the adhesion fi

Abstract: The object of the present invention is to provide an adhesion film for semiconductor that is capable of bonding a semiconductor chip to a lead frame tightly at an adhesion temperature lower than that of the adhesion film of a traditional polyimide resin without generation of voids and that can also be used for protection of lead frame-exposed area, a thermoplastic resin composition for semiconductor for use in the adhesive agent layer therein, and a lead frame having the adhesive film and a semiconductor device; and, to achieve the object, the present invention provides a thermoplastic resin composition for semiconductor, comprising a thermoplastic resin obtained in reaction of an amine component containing an aromatic diamine mixture (A) containing 1,3-bis(3-aminophenoxy)benzene, 3-(3?-(3?-aminophenoxy)phenyl)amino-1-(3?-(3?-aminophenoxy)phenoxy)benzene and 3,3?-bis(3?-aminophenoxy)diphenylether, and an acid component (C), an adhesion film for semiconductor using the same, a lead frame having the adhesion fi

Abstract: An adhesive film for semiconductor use of the present invention is used in a method in which, after the adhesive film for semiconductor use is laminated to one side of a metal sheet, the metal sheet is processed to give a wiring circuit, a semiconductor die is mounted and molded, and the adhesive film is then peeled off. The adhesive film includes a resin layer A formed on one side or both sides of a support film, the 90 degree peel strength between the resin layer A and the metal sheet prior to the processing of the metal sheet laminated with the adhesive film for semiconductor use to give the wiring circuit is 20 N/m or greater at 25° C., and the 90 degree peel strengths, after molding with a molding compound the wiring circuit laminated with the adhesive film for semiconductor use, between the resin layer A and the wiring circuit and between the resin layer A and the molding compound are both 1000 N/m or less at least one point in the temperature range of 0° C. to 250° C.

Abstract: An adhesive film for semiconductor, which comprises at least one resin layer, and, after bonded to a lead frame, has at 25° C. a 90°-peel strength of at least 5 N/m between the resin layer and the lead frame, and, after a lead frame is bonded to the adhesive film for semiconductor and sealed with a sealing material, has at least at one point of temperatures ranging from 0 to 250° C. a 90°-peel strength of at most 1000 N/m between the resin layer and each of the lead frame and the sealing material; a lead frame and a semiconductor device using the adhesive film for semiconductor; and a method of producing a semiconductor device.

Abstract: An adhesive film for semiconductor use of the present invention is used in a method in which, after the adhesive film for semiconductor use is laminated to one side of a metal sheet, the metal sheet is processed to give a wiring circuit, a semiconductor die is mounted and molded, and the adhesive film is then peeled off. The adhesive film includes a resin layer A formed on one side or both sides of a support film, the 90 degree peel strength between the resin layer A and the metal sheet prior to the processing of the metal sheet laminated with the adhesive film for semiconductor use to give the wiring circuit is 20 N/m or greater at 25° C., and the 90 degree peel strengths, after molding with a molding compound the wiring circuit laminated with the adhesive film for semiconductor use, between the resin layer A and the wiring circuit and between the resin layer A and the molding compound are both 1000 N/m or less at at least one point in the temperature range of 0° C. to 250° C.

Abstract: An adhesive film for semiconductor, which comprises at least one resin layer, and, after bonded to a lead frame, has at 25° C. a 90°-peel strength of at least 5 N/m between the resin layer and the lead frame, and, after a lead frame is bonded to the adhesive film for semiconductor and sealed with a sealing material, has at least at one point of temperatures ranging from 0 to 250° C. a 90°-peel strength of at most 1000 N/m between the resin layer and each of the lead frame and the sealing material; a lead frame and a semiconductor device using the adhesive film for semiconductor; and a method of producing a semiconductor device.

Abstract: An adhesive film for semiconductor, which comprises at least one resin layer, and, after bonded to a lead frame, has at 25° C. a 90°-peel strength of at least 5 N/m between the resin layer and the lead frame, and, after a lead frame is bonded to the adhesive film for semiconductor and sealed with a sealing material, has at least at one point of temperatures ranging from 0 to 250° C. a 90°-peel strength of at most 1000 N/m between the resin layer and each of the lead frame and the sealing material; a lead frame and a semiconductor device using the adhesive film for semiconductor; and a method of producing a semiconductor device.

Abstract: An adhesive film for semiconductor, which comprises at least one resin layer, and, after bonded to a lead frame, has at 25° C. a 90°-peel strength of at least 5 N/m between the resin layer and the lead frame, and, after a lead frame is bonded to the adhesive film for semiconductor and sealed with a sealing material, has at least at one point of temperatures ranging from 0 to 250° C. a 90°-peel strength of at most 1000 N/m between the resin layer and each of the lead frame and the sealing material; a lead frame and a semiconductor device using the adhesive film for semiconductor; and a method of producing a semiconductor device.

Abstract: An adhesive film for semiconductor, which comprises at least one resin layer, and, after bonded to a lead frame, has at 25° C. a 90°-peel strength of at least 5 N/m between the resin layer and the lead frame, and, after a lead frame is bonded to the adhesive film for semiconductor and sealed with a sealing material, has at least at one point of temperatures ranging from 0 to 250° C. a 90°-peel strength of at most 1000 N/m between the resin layer and each of the lead frame and the sealing material; a lead frame and a semiconductor device using the adhesive film for semiconductor; and a method of producing a semiconductor device.

Abstract: An adhesive film for semiconductor use of the present invention is used in a method in which, after the adhesive film for semiconductor use is laminated to one side of a metal sheet, the metal sheet is processed to give a wiring circuit, a semiconductor die is mounted and molded, and the adhesive film is then peeled off. The adhesive film includes a resin layer A formed on one side or both sides of a support film, the 90 degree peel strength between the resin layer A and the metal sheet prior to the processing of the metal sheet laminated with the adhesive film for semiconductor use to give the wiring circuit is 20 N/m or greater at 25° C., and the 90 degree peel strengths, after molding with a molding compound the wiring circuit laminated with the adhesive film for semiconductor use, between the resin layer A and the wiring circuit and between the resin layer A and the molding compound are both 1000 N/m or less at at least one point in the temperature range of 0° C. to 250° C.

Abstract: An adhesive film for semiconductor, which comprises at least one resin layer, and, after bonded to a lead frame, has at 25° C. a 90°-peel strength of at least 5 N/m between the resin layer and the lead frame, and, after a lead frame is bonded to the adhesive film for semiconductor and sealed with a sealing material, has at least at one point of temperatures ranging from 0 to 250° C a 90°-peel strength of at most 1000 N/m between the resin layer and each of the lead frame and the sealing material; a lead frame and a semiconductor device using the adhesive film for semiconductor; and a method of producing a semiconductor device.

Abstract: An adhesive film for semiconductor, which comprises at least one resin layer, and, after bonded to a lead frame, has at 25° C. a 90°-peel strength of at least 5 N/m between the resin layer and the lead frame, and, after a lead frame is bonded to the adhesive film for semiconductor and sealed with a sealing material, has at least at one point of temperatures ranging from 0 to 250° C. a 90°-peel strength of at most 1000 N/m between the resin layer and each of the lead frame and the sealing material; a lead frame and a semiconductor device using the adhesive film for semiconductor; and a method of producing a semiconductor device.

Abstract: The present invention is to provide a resin composition excellent in moisture absorption property, heat resistance, adhesive property and electric characteristics, and excellent in molding property, and suitable for an insulating material such as a multilayer wiring substrate, electronic parts, etc., and an adhesive film.

Abstract: A resin composition useful as an adhesive film and insulating material for a multilayer wiring substrate or electronic parts comprises (A) a polymer containing a quinoline ring represented by the formula (1) in the structure such as 6,6′-bis(2-(4-fluorophenyl)-4-phenylquinoline) and 4,4′-(1,1,1,3,3,3-hexafluoro-2,2-propylidene)bisphenol, and (B) a bismaleimide compound represented by the formula (2) such as 2,2-bis((4-maleimidophenoxy)phenyl)propane.

Abstract: A transparent resin obtained by polymerizing a monomer having an alkylene oxide group, a polyfunctional (meth)acrylate having a divalent branched hydrocarbon group and other copolymerizable vinyl monomer, if necessary, is suitable as an elementary material for a plastic lens with excellent heat resistance and hue.

Abstract: A transparent resin obtained by polymerizing a monomer having an alkylene oxide group, a polyfunctional (meth)acrylate having a divalent branched hydrocarbon group and other copolymerizable vinyl monomer, if necessary, is suitable as an elementary material for a plastic lens with excellent heat resistance and hue.