NOVELTY - A dye sensitized solar cell compound light anode comprises ordinary glass, a tin dioxide (SnO2) transparent conductive film doped with fluorine (F), a titanium dioxide (TiO2) compact thin film, and a TiO2 nano-particle/TiO2 nano-wire compound thin film; where the first layer is the ordinary glass; the second layer is the SnO2 transparent conductive film doped with F; the third layer is the TiO2 compact thin film; and the fourth layer is the TiO2 nano-particle/TiO2 nano-wire compound thin film.    USE - The dye sensitized solar cell compound light anode is useful for industrial applications.    ADVANTAGE - The dye sensitized solar cell compound light anode improves the adsorbance of the sensitized dye, guarantees the electrode with high light capture efficiency, improves the production rate of the photon-generated carrier and the transportation capacity, reduces the compound process of the photon-generated carrier, and improves the photoelectric conversion efficiency of the dye sensitized solar cell.    DETAILED DESCRIPTION - An INDEPENDENT CLAIM is a preparation method of the dye sensitized solar cell compound light anode, comprising: (a) using the magnetron sputtering technology to prepare the titanium dioxide (TiO2) compact thin film that is about 10-15 nm thick on the fluorine-doped tin oxide (FTO) conductive glass substrate; (b) using the water-thermal synthesizing technology to prepare the TiO2 nano-wires; (c) using the sol-gel technology to prepare the TiO2 sol, adding the TiO2 nano-wires to the sol for electromagnetic stirring and ultrasonic diffusion to form the gel slurry; (d) using the dip-coating method to enable the gel slurry to form the TiO2 nano-particle/TiO2 nano-wire compound thin film on the compact TiO2 thin film; and (e) putting the prepared TiO2 nano-particle/TiO2 nano-wire compound thin film in a muffle furnace for sintering, soaking the thin film in the absolute ethyl alcohol solution of the ruthenium composition N719 dye for 24 hours, taking the thin film out and washing the dye on the surface, and drying it in the air to obtain the TiO2 nano-particle/TiO2 nano-wire compound light anode.