Seismic waves, which are generated by earthquakes, can cause considerable damage to buildings and infrastructure, resulting in loss of life and property. In 2023, earthquakes in Syria and Turkey took the lives of over 60,000 innocent people. Conventional methods of seismic protection, such as passive damping systems and seismic isolation, have limitations and can be expensive to implement. In past studies [10] , we observed the differing methods of earthquake resistance. While base isolation allows for cost-effective and rural feasibility in its implementation, it lacks the required mechanical dampening of earthquakes. These structures are often brittle . Specifically, specialized equipment such as passive dampening systems must be tailored toward larger buildings, such as skyscrapers to deal with their unique mechanical loads. Considering the wide range of expensive options, metamaterials have the potential to provide a more effective and economical solution to seismic protection. Metamaterials can be designed to exhibit negative effective mass and stiffness, making them capable of suppressing seismic waves effectively . Such metamaterials would need to be implemented into the "foundation slab" of buildings, (See Fig. ), as it would allow for direct dissipation of seismic energy. Utilizing this "isolated base" approach for a cost-effective approach in at-risk regions poses more promise than an entire building consisting of an ISMER lattice, as earthquake resistance often employs the bend but doesn't break ideology in that the foundations of structures should have mobility. However, this mobility over large timeframes can lead to inevitable growing fractures, which later in life will lead to the rapid onset of fracture. So, focussing on just the base for the first research of ISMER poses a foundational point of study.