Lunar habitat structures are critical for ensuring safe and sustainable living conditions on the Moon, capable of withstanding its harsh environment. This research employs ANSYS simulation software to evaluate and optimize the structural integrity of lunar habitats subjected to micrometeoroid impacts and other debris. A detailed three-dimensional finite element model of a lunar habitat is constructed, incorporating advanced materials such as regolith-based composites and polymers. These materials are selected based on their potential availability and suitability for lunar construction. The primary objective is to simulate realistic impact scenarios based on lunar micrometeoroid flux and collision velocities, providing crucial insights into the habitat's structural performance under lunar conditions. The analysis focuses on stress distribution, deformation, and damage propagation. Stress distribution analysis identifies potential weak points, deformation analysis examines the habitat's resilience under varying impact conditions, and damage propagation analysis predicts the spread of cracks and failures. Design modifications, such as energy-absorbing layers and impact-resistant coatings, are explored to enhance durability. Sensitivity analyses are conducted to identify optimal material choices and structural configurations. This research aims to develop highly resilient lunar habitats that ensure the safety and sustainability of human life on the Moon.