A manufacturing method for a thermal balancing conductive coating includes steps as: a) providing gluey liquid mixed by a first solution and a compound substance with a weight ratio ranging from 1:0.6 to 1:1.4; the compound substance is selected from a group consisting of fluorocarbon resin, fluororesin, acrylic acid resin, polyurethane, polyurea resin, unsaturated polyester, silicon resin, and mixtures thereof; b) providing a filler material mixed by a second solution and a filler substance with a weight ratio ranging from 1:0.1 to 1:0.6 and another weight ratio of the compound substance to the filler substance from 1:0.3 to 1:0.8; the filler substance includes a main ingredient selected from a group consisting of graphite, graphene platelets, graphene, graphite fiber, graphene fiber, BN, mica, and mixtures thereof; c)mixing the gluey liquid and the filler material to produce a thermal balancing conductive material, so as to form a thermal balancing conductive coating.

The present invention is a coating composition containing (A) a fluorine-containing copolymer and (B) a polycarbonate diol.

A cross-linking moiety having a general formula I: Ar.sub.F-W, wherein Ar.sub.F comprises a fluorinated phenyl azide group having at least one non-fluorine substituent that is bulkier than fluorine at a meta position relative to the azide group, and W comprises an electron-withdrawing group.

A cross-linking moiety having a general formula I: Ar.sub.F-W, wherein Ar.sub.F comprises a fluorinated phenyl azide group having at least one non-fluorine substituent that is bulkier than fluorine at a meta position relative to the azide group, and W comprises an electron-withdrawing group.

An object of the present invention is to provide a macromolecular material that exhibits excellent elongation. The first macromolecular material of the present invention contains the first polymer containing the first structural unit and the second polymer containing the second structural unit. The first structural unit has a guest group in its side chain, and the second structural unit has a host group in its side chain. At least one of the first and the second polymers contains at least one fluorine group. The second macromolecular material of the present invention contains the first structural unit having a guest group in its side chain, the second structural unit having a host group in its side chain, and the third structural unit other than the first and second structural units. At least one of the first, the second, and the third structural units contains at least one fluorine group.

An object of the present invention is to provide a macromolecular material that exhibits excellent elongation. The first macromolecular material of the present invention contains the first polymer containing the first structural unit and the second polymer containing the second structural unit. The first structural unit has a guest group in its side chain, and the second structural unit has a host group in its side chain. At least one of the first and the second polymers contains at least one fluorine group. The second macromolecular material of the present invention contains the first structural unit having a guest group in its side chain, the second structural unit having a host group in its side chain, and the third structural unit other than the first and second structural units. At least one of the first, the second, and the third structural units contains at least one fluorine group.

This cured film-forming resin composition is characterized in comprising: as a component (A), a polymer containing a structural unit derived from a first monomer having the structure with formula (1); a photoacid generator as a component (B); fine particles as a component (C); and a solvent (in the formula, R.sup.1 represents hydrogen or a methyl group and R.sup.2 represents an organic group capable of undergoing elimination with the oxygen atom bonded thereto). The cured film-forming resin composition forms a cured film that has solvent resistance to organic solvents and a high liquid repellency (lyophobicity) wherein the lyophilicity/lyophobicity can be easily varied using small ultraviolet exposure doses and the lyophilic areas have a high lyophilicity even for high surface tension liquids.

To provide a coating liquid composition containing a fluororesin, whereby a film excellent in the surface flatness can be formed by a plate printing method. A coating liquid composition comprising a fluororesin having an aliphatic ring in the main chain and a fluorinated solvent, wherein the fluorinated solvent has a boiling point of at least 185° C., and the composition has a viscosity of at most 1,000 mP.Math.s at 25° C.

To provide a coating liquid composition containing a fluororesin, whereby a film excellent in the surface flatness can be formed by a plate printing method. A coating liquid composition comprising a fluororesin having an aliphatic ring in the main chain and a fluorinated solvent, wherein the fluorinated solvent has a boiling point of at least 185° C., and the composition has a viscosity of at most 1,000 mP.Math.s at 25° C.

A coating material includes a ceramic particle and binder. The ceramic particle includes a compound represented by a compositional formula of any of A.sub.aR.sub.bAl.sub.cO.sub.4, A.sub.aR.sub.bGa.sub.cO.sub.4, R.sub.xAl.sub.yO.sub.12, and R.sub.xGa.sub.yO.sub.12. A is one or more elements selected from a group consisting of Ca, Sr, and Ba, and R is one or more elements selected from a group consisting of rare earth elements. a is equal to or greater than 0.9 and equal to or less than 1.1, b is equal to or greater than 0.9 and equal to or less than 1.1, c is equal to or greater than 0.9 and equal to or less than 1.1, x is equal to or greater than 2.9 and equal to or less than 3.1, and y is equal to or greater than 4.9 and equal to or less than 5.1. The ceramic particle includes a pore and the porosity of the ceramic particle is equal to or greater than 20% and equal to or less than 40%.