Abstract: Provided is: a cell culture membrane, which is free from materials derived from living organisms, can easily be industrially mass-produced, exhibits superior long-term storage properties and chemical resistance, has excellent cell adhesion properties and long-term culture properties and is capable of replicating a cell adhesion morphology that is similar to that of collagen derived from living organisms and being used for conventional cell cultivation. Also provided are a cell culture substrate, and a method for manufacturing the cell culture substrate. In the present invention, as a cell adhesion layer, a polymer membrane represented by formula (I) is formed on the base of a cell culture substrate so as to have a membrane thickness equal to or greater than 0.2 ?m (in the formula, R1 and R2 represent a —(CH2)n—NH2 moiety (n is an integer of 1-10 inclusive.) or H, with at least one of R1 and R2 being a —(CH2)n—NH2 moiety. Moreover, l and m are positive integers expressing polymerization degree).

Abstract: Provided is: a cell culture membrane, which is free from materials derived from living organisms, can easily be industrially mass-produced, exhibits superior long-term storage properties and chemical resistance, has excellent cell adhesion properties and long-term culture properties and is capable of replicating a cell adhesion morphology that is similar to that of collagen derived from living organisms and being used for conventional cell cultivation. Also provided are a cell culture substrate, and a method for manufacturing the cell culture substrate. In the present invention, as a cell adhesion layer, a polymer membrane represented by formula (I) is formed on the base of a cell culture substrate so as to have a membrane thickness equal to or greater than 0.2 ?m (in the formula, R1 and R2 represent a —(CH2)n—NH2 moiety (n is an integer of 1-10 inclusive.) or H, with at least one of R1 and R2 being a —(CH2)n—NH2 moiety. Moreover, l and m are positive integers expressing polymerization degree).

Abstract: A method for improving the heat stability of polyparaxylylene and a derivative film thereof to improve the heat resistance of the polyparaxylylene and the derivative film thereof without deteriorating deposition characteristics or profitability, and a polyparaxylylene derivative whose heat resistance is improved are provided. When the polyparaxylylene or the derivative film thereof represented by a below-described general formula 1 is formed by a chemical vapor deposition method, an amino-(2.2)-paracyclophane compound represented by a below-described general formula 3 is mixed in a (2.2)-paracyclophane compound represented by a below-described general formula 2 to form a film. (In the formula 1, X1 and X2 designate hydrogen, lower alkyl or halogen. X1 and X2 may be the same or different. n represents a degree of polymerization.) (In the formula 2, X1 and X2 have the same meanings as those of the formula 1.) (In the formula 3, X3 designates hydrogen or a lower alkyl group.

Abstract: A chemical vapor deposition apparatus includes a charging section 10 for charging a feedstock material for vapor deposition, a decomposition oven 2 for decomposing a feedstock material for vapor deposition, an opening/closing valve 4 for interconnecting the charging section 10 and the decomposition oven 2, and a polymerization section 3 for polymerizing the feedstock material decomposed by the decomposition oven for depositing a coating film on the surface of a substrate. The feedstock material for vapor deposition charged into the charging section 10 is vaporized, and the so vaporized feedstock material is delivered to the decomposition oven 2 by opening the opening/closing valve 4 to deposit the coating film.

Abstract: A cell culture substrate which is durable and which can be readily produced in commercial scale at a low cost, and its production method are provided. The cell culture substrate comprises a substrate and a layer formed by surface modification, which comprises a polymer containing amino group produced by reacting a polymer represented by the following formula (II): (wherein n is 0 or a positive integer, and m is a positive integer, the n and m representing degree of polymerization) formed by chemical vapor deposition of formyl[2.2]paracyclophane represented by the following formula (I): (wherein k is 0 or 1) with a polymer having at least one amino group (—NH2) capable of forming Schiff base in its monomer. The production method of the cell culture substrate comprises the step of synthesizing such polymer on the substrate.

Abstract: A method for improving the heat stability of polyparaxylylene and a derivative film thereof to improve the heat resistance of the polyparaxylylene and the derivative film thereof without deteriorating deposition characteristics or profitability, and a polyparaxylylene derivative whose heat resistance is improved are provided. When the polyparaxylylene or the derivative film thereof represented by a below-described general formula 1 is formed by a chemical vapor deposition method, an amino-(2.2)-paracyclophane compound represented by a below-described general formula 3 is mixed in a (2.2)-paracyclophane compound represented by a below-described general formula 2 to form a film. (In the formula 1, X1 and X2 designate hydrogen, lower alkyl or halogen. X1 and X2 may be the same or different. n represents a degree of polymerization.) (In the formula 2, X1 and X2 have the same meanings as those of the formula 1.) (In the formula 3, X3 designates hydrogen or a lower alkyl group.

Abstract: A semiconductor device is provided with an interlayer insulating film consisting essentially of poly-&agr;,&agr;-difluoroparaxylylene. The interlayer insulating film can have a low relative dielectric constant of from 2.1 to 2.7.