3D printing offers unprecedented control over the design and fabrication of functional materials with complex architectures. In this project, we focus on developing textured ceramic structures using advanced 3D printing techniques. By engineering the resin formulation and printing process, we aim to align ceramic grains along designed orientations, enabling anisotropic properties tailored for transducer applications. The study will reveal the processing–structure–property correlations of textured ceramics, demonstrating how controlled grain orientation alignment and microstructural design enhance electromechanical coupling and energy conversion efficiency. These findings open pathways toward high-performance acoustic and piezoelectric transducers, as well as broader applications in sensing and actuation.
Project currently funded by: Federal