Applied Methods in Flash Sintering

Dr. Anuj Kumar is a DBT-Ramalingaswami Faculty/Assistant Professor at the School of Materials Science and Technology, Indian Institute of Technology (BHU), Varanasi, India since April 2023. Prior to this position, he was an Assistant Professor (Polymers & Biomaterials) at the School of Chemical Engineering, Yeungnam University (YU), South Korea from 2016 to 2023. He was also a Postdoc at YU (2015-2016) and an Assistant Professor (Chemistry) at DIT University (India) (2014-2015). He received his Ph.D. (Polymer Science and Engineering, 2014), M.Tech. (Fibre Science and Technology, 2009), and M.Sc. (Organic Chemistry, 2006) from IIT Roorkee, IIT Delhi, and CCSU Meerut, India, respectively. He has published more than 85 research/review articles, 03 books, and 11 book chapters (Google Citations: 4673, h-index: 35, i10-index: 66). His research interests are focused on polymer chemistry, lignocellulosic biomass, nanocellulose, biomaterials, 3D bioprinting, micro-fluidics, tissue engineering, cultured meat production, drug delivery, cancer therapy, polymer composites/nanocomposites, functional foods and packaging materials, fibres/bio-textiles hydrogel and paper-based bioelectronics, etc.Dr. Ankur Sood is an Assistant Professor in the School of Chemical Engineering at the Yeungnam University (YU), South Korea. He received his Ph.D. in the field of drug delivery and imaging applications of nanoparticles from GGS Indraprastha University, New Delhi, India. He has a master’s degree in the field of nanotechnology and bachelor’s degree in biotechnology. His research is focused on 3D printing, microfluidics, organ-on-a chip technology, tissue engineering, and inorganic/organic nanoparticles for drug delivery and biosensing applications

• 1. Basics of additive manufacturing2. Additive manufacturing techniques3. Bioink development for additive manufacturing4. Role of additive manufacturing for biomedical applications Bioink development using piezoelectric ceramics5. Techniques for the development of different piezoelectric ceramic-based bioinks6. Role of piezoelectric ceramic-based bioinks in biomedical applications7. Challenges in the development of piezoelectric ceramic-based bioinks Piezoelectric ceramic-based biocomposites and 3D constructs8. Additive manufacturing technologies for piezoelectric ceramic laden biocomposites9. Surface modification strategies of piezoelectric ceramics for 3D printing10. Strategies in additive manufacturing for piezoelectric ceramic laden biocomposites Post processing of Piezoelectric ceramic-based 3D structures11. Post processing strategies for piezoelectric ceramic-based biocomposite 3D structures12. Computational modelling in the development and analysis of piezoelectric ceramic-based constructs13. Strategies for optimization and troubleshooting the final 3D structure Applications of Piezoelectric ceramic-based 3D structures14. Successful implementation of piezoelectric ceramic-based 3D structures in biomedical applications15. Advancements in piezoelectric ceramic-based 3D structures: an interdisciplinary approach16. Limitations and obstacles in the clinical translation of piezoelectric ceramic-based 3D structures. Economic considerations17. Economic viability and cost analysis of additive manufacturing technology18. Return on investment in the field of additive manufacturing