Advanced ceramics exhibit exceptional properties such as high-temperature resistance, superior strength, and excellent electrical and thermal conductivity, making them integral in various industries like aerospace, healthcare, and electronics. However, traditional manufacturing methods for ceramics still pose various challenges for achieving intricate designs and complex structures. Additive Manufacturing of Advanced Ceramic Materials provides a comprehensive exploration of additive manufacturing techniques that are tailored to overcome these challenges, offering researchers, engineers, and industry professionals a roadmap to harness the full potential of advanced ceramics through innovative 3D printing and related processes. The reader will gain valuable insights into the intricacies of additive manufacturing processes such as selective laser sintering, binder jetting, and stereolithography as applied to ceramics, along with discussions on material properties, design considerations, and post-processing techniques. Additionally, the book explores emerging trends such as multi-material printing, hybrid manufacturing, and the integration of advanced characterization techniques, empowering readers to leverage additive manufacturing technologies to innovate and optimize the production of high-performance ceramic components for various applications ranging from aerospace and automotive to biomedical and electronics industries.
1. 1. Introduction to additive manufacturing of advanced ceramic materials - p. 3 2. 2. Discovering the world of additive manufacturing in advanced ceramics - p. 35 3. 3. Design considerations, optimizing build parameters, surface finish, and coating techniques for additive manufacturing of advanced ceramic materials - p. 55 4. 4. Biopolymer for 3D printing in biomedical application - p. 89 5. Part 2: Advanced ceramic materials for additive manufacturing - p. P107 6. 5. Oxide and nonoxide advanced ceramics in additive manufacturing of advanced ceramic materials - p. 109 7. 6. Polymer-derived ceramics in additive manufacturing of advanced ceramic materials - p. 143 8. 7. Advanced ceramic additive manufacturing with polymer-derived ceramics - p. 181 9. 8. Ceramic matrix composites and ceramic nanocomposites in additive manufacturing of advanced ceramic materials - p. 201 10. 9. Nano-infused ceramic matrix composites in additive manufacturing of advanced ceramic materials - p. 227 11. 10. Piezoelectric and ferroelectric ceramics in additive manufacturing of advanced ceramic materials - p. 251 12. 11. Next-generation ceramic materials: additive manufacturing utilizing polarity-responsive and polarizable ceramics - p. 269 13. Part 3: Additive manufacturing technologies for advanced ceramics - p. P291 14. 12. Stereolithography, selective laser sintering, and binder jetting techniques for additive manufacturing of advanced ceramic materials - p. 293 15. 13. Powder bed fusion techniques, extrusion-based additive, and hybrid additive for additive manufacturing of advanced ceramic materials - p. 315 16. 14. Human–machine collaboration and bioinspired design in additive manufacturing of advanced ceramic materials - p. 339 17. 15. Advanced ceramic additive manufacturing by extrusion-based technology - p. 371 18. 16. Liquid slurry based deposition technique in additive manufacturing of advanced ceramic materials - p. 393 19. Part 4: Various aspects and future directions in additive manufacturing of advanced ceramic materials - p. P420 20. 17. Environmental impact assessment in additive manufacturing of advanced ceramic materials - p. 421 21. 18. Additive manufacturing of ceramics: future, challenges, and opportunities - p. 449 22. Index - p. 457
Advanced ceramics exhibit exceptional properties such as high-temperature resistance, superior strength, and excellent electrical and thermal conductivity, making them integral in various industries like aerospace, healthcare, and electronics. However, traditional manufacturing methods for ceramics still pose various challenges for achieving intricate designs and complex structures. Additive Manufacturing of Advanced Ceramic Materials provides a comprehensive exploration of additive manufacturing techniques that are tailored to overcome these challenges, offering researchers, engineers, and industry professionals a roadmap to harness the full potential of advanced ceramics through innovative 3D printing and related processes. The reader will gain valuable insights into the intricacies of additive manufacturing processes such as selective laser sintering, binder jetting, and stereolithography as applied to ceramics, along with discussions on material properties, design considerations, and post-processing techniques. Additionally, the book explores emerging trends such as multi-material printing, hybrid manufacturing, and the integration of advanced characterization techniques, empowering readers to leverage additive manufacturing technologies to innovate and optimize the production of high-performance ceramic components for various applications ranging from aerospace and automotive to biomedical and electronics industries.
1. 1. Introduction to additive manufacturing of advanced ceramic materials - p. 3 2. 2. Discovering the world of additive manufacturing in advanced ceramics - p. 35 3. 3. Design considerations, optimizing build parameters, surface finish, and coating techniques for additive manufacturing of advanced ceramic materials - p. 55 4. 4. Biopolymer for 3D printing in biomedical application - p. 89 5. Part 2: Advanced ceramic materials for additive manufacturing - p. P107 6. 5. Oxide and nonoxide advanced ceramics in additive manufacturing of advanced ceramic materials - p. 109 7. 6. Polymer-derived ceramics in additive manufacturing of advanced ceramic materials - p. 143 8. 7. Advanced ceramic additive manufacturing with polymer-derived ceramics - p. 181 9. 8. Ceramic matrix composites and ceramic nanocomposites in additive manufacturing of advanced ceramic materials - p. 201 10. 9. Nano-infused ceramic matrix composites in additive manufacturing of advanced ceramic materials - p. 227 11. 10. Piezoelectric and ferroelectric ceramics in additive manufacturing of advanced ceramic materials - p. 251 12. 11. Next-generation ceramic materials: additive manufacturing utilizing polarity-responsive and polarizable ceramics - p. 269 13. Part 3: Additive manufacturing technologies for advanced ceramics - p. P291 14. 12. Stereolithography, selective laser sintering, and binder jetting techniques for additive manufacturing of advanced ceramic materials - p. 293 15. 13. Powder bed fusion techniques, extrusion-based additive, and hybrid additive for additive manufacturing of advanced ceramic materials - p. 315 16. 14. Human–machine collaboration and bioinspired design in additive manufacturing of advanced ceramic materials - p. 339 17. 15. Advanced ceramic additive manufacturing by extrusion-based technology - p. 371 18. 16. Liquid slurry based deposition technique in additive manufacturing of advanced ceramic materials - p. 393 19. Part 4: Various aspects and future directions in additive manufacturing of advanced ceramic materials - p. P420 20. 17. Environmental impact assessment in additive manufacturing of advanced ceramic materials - p. 421 21. 18. Additive manufacturing of ceramics: future, challenges, and opportunities - p. 449 22. Index - p. 457
