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Meeting MS&T25: Materials Science & Technology
Symposium 3D Printing of Biomaterials and Devices
Presentation Title Biomechanical Tuning of Composites for Tissue Engineering
Author(s) Dinesh Katti, Hanmant Gaikwad, Nanang Qosim, Priyanka Kumari, Pooyan Vahidi Pashaki, Mohan Edirisinghe, Kalpana Katti
On-Site Speaker (Planned) Dinesh Katti
Abstract Scope The tuning of mechanical properties of materials and, at the same time, controlling the biological responses of cells on the materials is critical for the design of biomaterials, especially for tissue engineering. Using a simulation-based materials design approach, we have synthesized polymer clay nanocomposite-based materials with predictable mechanical properties. We have extended this approach to computationally predict the biomineralization by human Mesenchymal Cells on the biomaterials. Using these approaches, we have successfully designed biomaterials with tunable mechanical properties and biological responses. We have achieved this by identifying optimal unnatural amino acids for nanoclay modification and choosing appropriate nanoclay loading to synthesize biomaterials for tissue engineering applications, for targeted mechanical properties, and the extent of tissue regeneration on the materials and scaffolds. Biomechanically functionally graded fibers for tissue engineering are also made with these biomaterials.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

3D Printed Ceramics in Natural Medicine Delivery for Bone Regeneration
3D Printing of Active Medical Devices for Transdermal Drug Delivery and Biosensing
A Collagen-Based Bioink for 3D Printing Biomimetic Tissue Graft for Rotator Cuff Repair
Bioglass Reinforced Ti6Al4V Composites for Load-Bearing Implants
Biomechanical Tuning of Composites for Tissue Engineering
C-1: Alkali-Heat Treated Titanium Loaded with Curcumin for Bone Tissue Engineering; Release Kinetics and In Vitro Biological Properties
C-2: Copper-Based Antimicrobial Filters Fabricated via a Hybrid 3D Printing–Casting Approach
C-3: In Vivo Performance of Additive Manufacturing Implants vs. Commercially Available Implants
Engineering Location, External Shape, and Internal Pore Geometry, to Achieve Stiffness-Matched, 3D Printed, Nickel-Titanium Mandibular Graft Fixation Plates
Fabrication of Personalized Resorbable Polymer Textile Scaffolds Using a Multi-Axis and Multi-Modality Biofabrication Platform
Virtual Surgical Planning for the Design and Manufacturing of Stiffness-Matched Personalized Load-Bearing Implants: Transfemoral Percutaneous Implant Case

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