The Planar XY Flexural Mechanism finds extensive use in precision motion systems, facilitating relative motion between a fixed support and a motion stage through material flexibility. Unlike rigid link mechanisms, this design offers significant advantages such as zero backlash, frictionless motion, and high-order repeatability, all in a more compact form factor. Notably, flexure mechanisms are constructed from a single monolith, a characteristic emphasized in this research. The focus is on modeling the flexural process to achieve precise scanning over a broader range at increased speeds. Finite Element Analysis (FEA) is employed for static analysis to assess the motion stage's static deflection. Subsequently, the mechanism is activated using a weight pan and weights, with displacement monitored via a Dial Gauge Indicator. The experimental setup includes components such as the flexural mechanism, Dial Gauge, Weight Pan and Weights, Pulley, String, Small metal strip, and Optical Bread Board. Comparison of experimental and analytical findings reveals minimal variation, confirming the effectiveness of the flexural mechanism in providing precise motion for high-precision applications.