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Meeting MS&T26: Materials Science & Technology
Symposium 3D Printing of Biomaterials and Devices
Presentation Title 3-D printed β-TCP–Bioglass Scaffolds for Improved Bone Regeneration with curcumin
Author(s) Priya Kushram, Susmita Bose
On-Site Speaker (Planned) Priya Kushram
Abstract Scope The objective of this study was to develop a multifunctional 3D-printed β-tricalcium phosphate (β-TCP) scaffold incorporating bioglass (BG) and curcumin to improve bone regeneration and localized therapeutic delivery. We hypothesized that BG incorporation would enhance scaffold bioactivity and curcumin release, while sustained curcumin delivery would improve osteoblast activity and suppress osteoclast-mediated resorption. TCP-BG-curcumin scaffolds showed enhanced apatite formation and higher cumulative curcumin release compared to TCP-curcumin scaffolds under both acidic and physiological conditions. Osteoblast studies demonstrated significantly higher cell viability and alkaline phosphatase activity in TCP-BG-curcumin scaffolds, indicating enhanced osteogenic differentiation. Osteoclast studies showed reduced osteoclast activity and resorption pits in curcumin-loaded scaffolds, confirming suppression of osteoclastic activity. In vivo evaluation using a rat distal femur defect model showed increased new bone formation in TCP-BG-curcumin scaffolds (~22%) compared to TCP (~11%). These findings demonstrate that combining BG-mediated bioactivity with sustained curcumin release enhances osteogenesis and improves bone regeneration.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

3-D printed β-TCP–Bioglass Scaffolds for Improved Bone Regeneration with curcumin
3D Printed Infection-Resistant Alloys for Load-Bearing Implants
3D Printed Microneedles for Sensing and Drug Delivery
3D Printed O2-Generating Scaffolds Enhance Osteoprogenitor- and Type H Vessel Recruitment During Bone Healing
3D Printed Ti6Al4V TPMS Bone-Analogues: Bridging Mechanical Asymmetry and In Vivo Osseointegration
3D Printing of Biomimetic Auxetic Scaffolds for Dynamic Soft Tissue Engineering
3D Printing of Scaffolds with Tunable Heterogeneity for Spatially Controlled Cellular Behavior
Acemannan-Loaded DLP-Printed TCP-Bioglass Scaffolds for Bone Repair
Additive Manufacturing of Biodegradable Metals – Prospects and Perspectives
Biofabricated Secretome-Enabled Scaffolds and Vessel-on-a-Chip Platforms for Skeletal Tissue Engineering in Diabetes
Biomimetic Co–Cr–Mo Porous Lattice Scaffolds with a Novel Unit Cell for TKA Implants: Linking Architecture and Mechanics
Doxycycline-Quercetin-Loaded DLP-Printed TCP Scaffolds for Infection-Resistant Bone Regeneration
Enabling Technologies for 3D Printed Bone Reconstruction with a Focus on Pediatric Solutions
Evaluation of Osteoblast Behavior and Mechanical Properties on the Groove Surfaces of Alumina-Toughened Zirconia Composite Materials
Functionalization of 3D-Printed Fumarate-Based Polymer Scaffolds for Bone Tissue Engineering
Influence of Additive Manufacturing on Mechanical Properties and EBSD Analysis of Titanium Alloy
Physicochemical Evaluation and Cytocompatibility of 3D Printed 1393-Borate Bioglass Composite
Robocasting of a Water-Based Biopolymer/Ammonium Metatungstate Paste as a Precursor to Tungsten Carbide Lattices
Shaping Soft Materials Into Biomimetic 3D Structures for Organ-on-Chip and Tissue Engineering Applications
Surface Modification of Titanium Biomaterials Using UV-LED-Curable Acrylic Resin Coatings: Effect of Nano-Zeolite Additives on Biofilm Formation

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