The convergence of advanced 3D printing technologies and ceramic engineering is revolutionizing the field of electromagnetic wave absorption (EMWA).Advanced 3D printing enables the precise fabrication of complex ceramic metamaterial structures at micro- and nano-scales, enhancing EMWA performance.Researchers can now design multilayered ceramic structures with tailored properties for efficient electromagnetic wave manipulation.Challenges like limited resolution in multi-material 3D printing techniques and seamless interface integration between ceramic phases persist.Experimental evaluation methods need to evolve to encompass wider environmental conditions and frequency ranges for practical application suitability.Future advancements require improvements in printing resolution and multi-material integration for finely tuned electromagnetic properties.Innovations in ceramic composite formulations and printing modalities are crucial for advancing EMWA material performance.The integration of sensing and actuation functions in printed ceramic EMW absorbers presents opportunities for adaptive electromagnetic shields.Standardization efforts across industries are vital to transition these technologies from laboratory-scale to commercial applications.The marriage of 3D printing with ceramic materials signifies a fundamental shift towards structure-centric design philosophy in EMWA technology.