Due to the combination of honeycomb and hourglass lattice structures, the resulting metamaterial is theorized to have high energy absorption potential and has theoretical evidence to back that its response to seismic activity would be able to mimic the "random" vibrations of the earth from the very inside of the material, which provides a solution for the often-brittle fractures of conventional materials such as wood and steel . Overall, this research aims to demonstrate the potential of auxetic programable mechanical metamaterial for use in earthquake resistance. It is widely believed that the ability to program the mechanical response of these materials, combined with their unique mechanical properties, could lead to significant advancements in resistance technology. With the help of computational simulations and 3D printing, we can design and fabricate materials with exceptional isotropic/anisotropic properties in a direction that can aid against impact. This research aims to be a step towards the development of materials that can deform under an impact (as weight is shifted in earthquakes) but not fracture and can be returned to their original shape for large periods.