Yidong Wu , Dan Hong , Shijie Qiu , Yi Fang , Yabin Zhu
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引用次数: 0
Abstract
As concerns about personal health continue to escalate, there is an urgent need to innovate the development and production of photopolymeric 3D printing thermoset materials with inherent antibacterial properties and high elongation, paving the way for significant advances in 3D printing technology. In this work, two acrylate compounds (CMA and CAMA)with inherent antibacterial properties were synthesized using renewable monomers derived from citronellol and cinnamyl alcohol. The chemical structures of the two acrylate compounds were verified via Fourier transform infrared spectroscopy(FT-IR) and 1H NMR. The addition of these compounds to the photopolymeric 3D printing resin system can facilitate the production of 3D printed thermoset materials with inherent antibacterial properties. The mechanical and antibacterial properties of photopolymeric 3D printing thermosets were assessed utilizing tensile tests and oscillation methods. The results show that the addition of CMA and CAMA can significantly improve the fracture elongation and antibacterial performance of photopolymeric 3D printing thermosets. The improved systems exhibited the highest antibacterial rate (94.2 % and 98.9 %, respectively), and fracture productivities (47 % and 50 %, respectively). These results highlight the significant impact of integrating CMA and CAMA to enhance the toughness and antibacterial effects of photopolymeric 3D printing systems.
随着人们对个人健康的关注不断升级,迫切需要创新开发和生产具有固有抗菌性能和高伸长率的光聚合物 3D 打印热固性材料,为 3D 打印技术的重大进步铺平道路。本研究利用从香茅醇和肉桂醇中提取的可再生单体合成了两种具有固有抗菌性能的丙烯酸酯化合物(CMA 和 CAMA)。通过傅立叶变换红外光谱(FT-IR)和 1H NMR 验证了这两种丙烯酸酯化合物的化学结构。在光聚合三维打印树脂体系中添加这些化合物可以促进具有固有抗菌性能的三维打印热固性材料的生产。利用拉伸试验和振荡法评估了光聚合物 3D 打印热固性材料的机械性能和抗菌性能。结果表明,添加 CMA 和 CAMA 能显著提高光聚合物 3D 打印热固性材料的断裂伸长率和抗菌性能。改进后的系统表现出最高的抗菌率(分别为 94.2 % 和 98.9 %)和断裂生产率(分别为 47 % 和 50 %)。这些结果凸显了整合 CMA 和 CAMA 对提高光聚合物 3D 打印系统的韧性和抗菌效果的重大影响。
期刊介绍:
Polymer Testing focuses on the testing, analysis and characterization of polymer materials, including both synthetic and natural or biobased polymers. Novel testing methods and the testing of novel polymeric materials in bulk, solution and dispersion is covered. In addition, we welcome the submission of the testing of polymeric materials for a wide range of applications and industrial products as well as nanoscale characterization.
The scope includes but is not limited to the following main topics:
Novel testing methods and Chemical analysis
• mechanical, thermal, electrical, chemical, imaging, spectroscopy, scattering and rheology
Physical properties and behaviour of novel polymer systems
• nanoscale properties, morphology, transport properties
Degradation and recycling of polymeric materials when combined with novel testing or characterization methods
• degradation, biodegradation, ageing and fire retardancy
Modelling and Simulation work will be only considered when it is linked to new or previously published experimental results.