ABSTRACT Ceramic 3D printing has garnered extensive attention from both industry and academia in recent years. Owing to their excellent comprehensive properties, ceramic materials have been widely applied in various fields, including chemical engineering, machinery, electronics, aerospace, and biomedical engineering. With the growing industrial demand for product miniaturization and higher manufacturing precision, 3D printing technology has been introduced to overcome limitations of traditional ceramic‐forming processes, such as long processing cycles, high costs, and limited fabrication accuracy. Among various 3D printing technologies, VAT photopolymerization offers high manufacturing accuracy and speed, making it well‐suited for the manufacture of complex structures. Therefore, it shows great potential in improving the structural fineness of ceramic components. This paper outlines the general manufacturing workflow for mainstream vat photopolymerization‐based ceramic 3D printing and summarizes key strategies and methods to improve manufacturing accuracy across four main stages: model design, ink configuration, printing process, and post‐processing. The aim is to review the main strategies and development trends in accuracy control for photopolymerization‐based 3D printing of ceramics and to provide insights for further research aimed at enhancing printing precision, thereby advancing the fabrication of ceramic 3D‐printed devices toward micro‐ and nano‐scale structural accuracy.
Hong et al. (Tue,) studied this question.
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