Primary objective of an earthquake resistant design is to prevent the building from collapse during earthquake thus, minimizing the risk of death or injury. Earthquake forces are generated by the inertia of buildings as they dynamically respond to ground motion. Many earthquake resistant techniques were introduced by various researchers but, they were not concentrated to eliminate wave action that entering at foundation level during earthquake that leads to failure of the structures. This paper proposes a technique in which the effect of the wave action intended to reduce/neglect at foundation level itself by constructing a ball and socket type of joints between column and footing intersections. To recognize the technique, a dynamically responded high-raised building model was developed with pinned supports using STAAD. Pro software and the results were compared with the similar model having conventional (fixed) supports. Both longitudinal and transverse ground motions to the structure were considered independently to study the behaviour of the structures. The study parameters included displacement, base shear, spectral acceleration, time-period, and mode shape. It was found from the analysis that the flexibility of the structure increased substantially in the pinned type of supports which is more appreciated in the point of any seismic resistant structure.