In this paper, using $500mum-thickness; (100); silicon; wafer,; flat; 65mum-thickness$ silicon mirror plates were fabricated through dry etching and wet etching, and $45mum-depth$ grooved driving electrodes were fabricated through UV-LIGA process. Four shapes of the driving electrode were fabricated: twenty four grooves of the $50mum-width$, twelve grooves of the $100mum-width$, six grooves of the $200mum-width$, and no grooves on the driving electrode. Fabricated mirror plate size and spring size are $2400 imes2400 imes65mum3; and ;500 imes10 imes65mum3,$ respectively. Mirror plate parts and driving electrodes were assembled into the scanning mirrors. Measured natural resonance frequencies were about 600Hz which have error within $pm 2%$ to calculated value. Due to the squeeze effect in the narrow gap between the mirror plate and the driving electrode, measured resonance frequencies were reduced as raising the amplitude of the mirror plate. In a case of driving electrode without grooves, the resonance frequency was reduced largely, compared with a case of driving electrode with grooves. According to the experimental results, squeeze effect was smaller in the driving electrode with smaller-width and many grooves. Therefore, the driving electrode with smaller-width and many grooves was effective in low voltage and high speed operation.