| Abstract Scope |
Additive manufacturing (AM), particularly 3D printing, enables the creation of complex, high-performance ceramics with tailored microstructures to meet the specific requirements for various applications. This study investigates how AM can optimize mechanical and thermal properties through control over lattice structure, porosity, and density. Various geometries—including Simple Cubic (SC), Body-Centered Cubic (BCC), Gyroid (G), and Fluorite (F)—were explored at different volume fractions and unit cell sizes. SC and G lattices with 20–25% volume fraction showed superior mechanical performance, offering a balance between strength and weight. Process parameters like UV exposure time and heating temperature were optimized to enhance print quality. Post-processing steps, such as debinding and sintering, further improved the density and durability of the printed ceramics, making them suitable for harsh environments. This work highlights AM’s potential to create customizable, durable ceramic materials for next-generation applications, combining efficient production with improved material properties and long-term reliability. |