Video URL
3D-printed bone substitutes: From pores to adaptive density minimal surface microarchitecture (Lect…3D-printed bone substitutes: From pores to adaptive density minimal surface microarchitecture (Lecture1)
APA
(2024). 3D-printed bone substitutes: From pores to adaptive density minimal surface microarchitecture (Lecture1). SciVideos. https://youtube.com/live/Pves2aLR9o8
MLA
3D-printed bone substitutes: From pores to adaptive density minimal surface microarchitecture (Lecture1). SciVideos, Sep. 02, 2024, https://youtube.com/live/Pves2aLR9o8
BibTex
@misc{ scivideos_ICTS:29541, doi = {}, url = {https://youtube.com/live/Pves2aLR9o8}, author = {}, keywords = {}, language = {en}, title = {3D-printed bone substitutes: From pores to adaptive density minimal surface microarchitecture (Lecture1)}, publisher = {}, year = {2024}, month = {sep}, note = {ICTS:29541 see, \url{https://scivideos.org/icts-tifr/29541}} }
Abstract
Introduction: In the last decades, advances in bone tissue engineering mainly based on osteoinduction and on stem cell research. Only recently, new efforts focused on the micro- and nanoarchitecture of bone substitutes to improve and accelerate bone regeneration. By the use of additive manufacturing, diverse microarchitectures were tested to identify the ideal pore size [1], the ideal filament distance and diameter [2], or light-weight microarchitecture [3], for osteoconduction to minimize the chance for the development of non-unions. Overall, the optimal microarchitecture doubled the efficiency of scaffold-based bone regeneration without the need for growth factors or cells. Another focus is on bone augmentation, a procedure mainly used in the dental field.
Methods: For the production of scaffolds, we applied the CeraFab 7500 from Lithoz, a lithographybased additive manufacturing machine. Hydroxyapatite-based and tri-calcium-phosphate-based scaffolds were produced with Lithoz TCP 3...