1. 3D printing algorithm of anisotropic biological scaffold with oxidized nanocellulose and gelatin.
- Author
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Xu X, Zhou J, Feng C, Jiang Y, Zhang Q, and Shi H
- Subjects
- Anisotropy, Mechanical Phenomena, Oxidation-Reduction, Porosity, Algorithms, Cellulose chemistry, Gelatin chemistry, Nanostructures chemistry, Printing, Three-Dimensional, Tissue Scaffolds chemistry
- Abstract
Tissue scaffolds need to have anisotropic mechanical properties and a porous structure to meet the needs of different tissues and organs. This report presents results of a study on an especially-designed 3D printing method with oxidized nanocellulose and gelatin, analyzes the servo principle of pneumatic condensing extrusion 3D printer, and proposes a hexagonal algorithm. For the purpose of this study, a printing process file was written by G code, physical and mechanical performance of the 3D scaffolds was evaluated with Solidworks simulation, the porous structure and pressure-pull performance of the printed 3D scaffolds was observed by SEM, and experiments were conducted to measure their bio-compatibility. The study draws the conclusion that scaffolds thus printed have a highly porous structure and anisotropic mechanical properties.
- Published
- 2019
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