In conclusion, the results of this section provide valuable insights into the behavior of materials under 2 Hz (High magnitude earthquakes) of oscillation and highlight the importance of considering multiple properties when evaluating impact resistance. Further research could be conducted to further For earthquake resistance, it is important to consider the mechanical properties of a material, including its ability to absorb energy as it deforms. The amount of energy a material can absorb is related to its ability to withstand impact or shock loads, and it is a key consideration in determining the suitability of a material for a particular application. However, it is important to understand that for earthquakeresistant material, energy absorption is a complex topic. Absorption should be present to an extent, however, while the maximum amount of energy absorption is great for automobile crashes, Earthquakeresistant materials cannot fracture as easily as materials used in modern automobiles. In the study we are discussing, it is observed in Fig 7a that the 8-unit case has the highest rate of energy growth over the same period as the other cases. This would indicate that the 8-unit case is better suited for applications that require high-impact resistance where the material itself does not need to survive. This is because the material can absorb more energy as it deforms, which enables it to fracture under stress.