We studied fluorine-doped tin oxide on a glass substrate at 350℃using an ultrasonic spray technique. Tin(Ⅱ) chloride dehydrate,ammonium fluoride dehydrate,ethanol and NaOH were used as the starting material, dopant source,solvent and stabilizer,respectively.The SnO_2:F thin films were deposited at 350℃and a pending time of 60 and 90 s.The as-grown films exhibit a hexagonal wurtzite structure and have(101) orientation.The G = 31.82 nm value of the grain size is attained from SnO_2:F film grown at 90 s,and the transmittance is greater than 80%in the visible region.The optical gap energy is found to measure 4.05 eV for the film prepared at 90 s, and the increase in the electrical conductivity of the film with the temperature of the sample is up to a maximum value of 265.58(Ω·cm)~(-1),with the maximum activation energy value of the films being found to measure 22.85 meV,indicating that the films exhibit an n-type semiconducting nature. We studied fluorine-doped tin oxide on a glass substrate at 350 ° C using an ultrasonic spray technique. Tin (Ⅱ) chloride dehydrate, ammonium fluoride dehydrate, ethanol and NaOH were used as the starting material, dopant source, solvent and stabilizer, respectively. The SnO 2: F thin films were deposited at 350 ° C and a pending time of 60 and 90 s. The as-grown films exhibit a hexagonal wurtzite structure and have (101) orientation.The G = 31.82 nm value of the grain size is attained from SnO 2: F film grown at 90 s, and the transmittance is greater than 80% in the visible region. The optical gap energy is found to measure 4.05 eV for the film prepared at 90 s, and the increase in the electrical conductivity of the film with the temperature of the sample is up to a maximum value of 265.58 (Ω · cm) -1 with the maximum activation energy value of the films being found to measure 22.85 meV, indicating that the films exhibit an n- type semiconducting nature.