TECHNOLOGY FOCUS - INORGANIC CHEMISTRY - Preferred Components: The first component is silver nanowires.    TECHNOLOGY FOCUS - ORGANIC CHEMISTRY - Preferred Components: The third component is alkoxide containing a transition metal element, acylate containing a transition metal element, and/or a complex containing a transition metal element. The transition metal of the third component is titanium.    TECHNOLOGY FOCUS - POLYMERS - Preferred Components: The second component is a homopolymer of vinyl alcohol or its copolymer, a homopolymer of hydroxyalkyl(meth)acrylate or its copolymer, a homopolymer of hydroxyalkyl(meth)acrylamide or its copolymer, and/or polysaccharides or their derivative (preferably polysaccharides or their derivative, and/or a homopolymer of vinyl alcohol or its copolymer; especially at least one polysaccharide or its derivative, and at least one homopolymer of vinyl alcohol or its copolymer). Preferred Composition: The coating forming composition further comprises an isocyanate compound, an epoxy compound, an aldehyde compound, an amine compound, and/or a methylol compound, as a fourth component (preferably a methylol compound). The coating forming composition comprises 0.01-1 wt.% of the first component, 0.005-5 wt.% of the second component, 0.00005-5 wt.% of the third component, optionally 0.00005-5 wt.% of the fourth component, and 89-99.98 wt.% of the solvent when fourth component is absent or 84-99.98 wt.% of the solvent when fourth component is present, based on the total weight of the coating forming composition. EXAMPLE - A composition containing hydroxypropyl methyl cellulose (second component) and ammonium lactato)titanium neutralized product (third component) was formed as follows. For preparation of polymer solution I (second component) in 300 mL beaker whose tare weight was premeasured, 100 g of ultrapure water was put, and heated and agitated. At liquid temperature of 80-90 degrees C, 2 g of Metolose 90SH-100000 (RTM: hydroxypropyl methyl cellulose) (HPMC) was put in beaker slowly, and resultant mixture was strongly agitated to uniformly disperse HPMC. While keeping strong agitation, 80 g of ultrapure water was added, and simultaneously heating was stopped, and agitation was continued while cooling beaker with ice water until uniform solution was formed. After agitation for 20 minutes, ultrapure water was added for weight of aqueous solution to be 200 g, and agitation was continued for further 10 minutes at room temperature until uniform solution was formed, and thus 1 wt.% aqueous polymer solution I was prepared. For preparation of base solution I (containing second component), a silver nanowires dispersion aqueous solution and 1 wt.% polymer solution I were mixed, and base solution I containing 0.25 wt.% silver nanowire and 0.5 wt.% HPMC was prepared using ultrapure water. For preparation of crosslinking agent solution I (third component), first, 0.19 g of Orgatix TC-300 (RTM: (ammonium lactato)titanium neutralized product) having 42 wt.% solid concentration was weighed, and then diluted with 7.81 g of ultrapure water to prepare 1 wt.% crosslinking agent solution I. For preparation of surfactant solution, first, 0.08 g of Triton X-100 (RTM: octylphenyl polyethylene glycol) was weighed, and then diluted with 7.92 g of ultrapure water to prepare 1 wt.% surfactant solution. For preparation of coating forming composition, first, 4.8 g of base solution I, 0.2 g of surfactant solution and 2.28 g of ultrapure water were weighed and agitated until uniform solution was formed. Subsequently, 0.72 g of crosslinking agent solution I containing 1 wt.% solid was added, and resultant mixture was agitated until uniform solution was obtained, and thus coating forming composition of composition was obtained. The prepared coating forming composition had viscosity of 32 mPa.second, and showed good dispersibility. In addition, HPMC corresponded to 200 parts by weight (pts. wt.) based on 100 pts. wt. of silver nanowires, and Orgatix TC-300 corresponded to 30 pts. wt. based on 100 pts. wt. of HPMC. For preparation of transparent conductive film, on surface of 0.7 mm-thick Eagle XG (RTM: glass substrate subjected to UV ozone treatment with irradiation energy of 1000 mJ/cm2), 1 ml of coating forming composition obtained was added dropwise, and spin coating was performed at 300 rpm using spin coater. Pre-bake was performed on glass substrate on hot stage at 50 degrees C under conditions for 90 seconds, and then post-bake was performed for 10 minutes on hot stage at 140 degrees C, to prepare transparent conductive film. The transparent conductive film obtained had surface resistance value of 26 Omega /square, total transmittance of 90.1%, haze of 1.9% and film thickness of 80.2 nm. Moreover, suitability for process and hardness were good.