Optimization Analysis of 3D Printers for High Quality Requirements of Compensation Films

Mingyue Liao

doi:10.54097/4dyewp75

Authors

Mingyue Liao

DOI:

https://doi.org/10.54097/4dyewp75

Keywords:

3D printing; medical devices; technology optimization.

Abstract

3D printing technology has the characteristics of rapid prototyping and personalized manufacturing due to its simple operation and efficient molding. It can be used as an important way to manufacture tissue compensation materials for radiotherapy. Compared with traditional processes, it is environmentally friendly and efficient. In addition, it can realize the production of personalized tissue compensation materials. At present, a variety of medical products of tissue compensation materials for radiotherapy manufactured by 3D printing technology have been approved for marketing, but there are still many needs that 3D printers cannot meet. This paper makes a detailed analysis of the current application of 3D printing technology in the field of medical devices for tissue compensation films for radiotherapy, points out the current development dilemma of 3D printed tissue compensation membranes, and discusses the optimization technology of 3D printers according to the specific needs of tissue compensation membranes , which is conducive to promoting the benign development of 3D printing technology in the direction of medical devices.

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References

[1] COUNCIL A, PETCH M, LONG E 3D Printing: Rise of the Third Industrial Revolution[M]. Gyges 3D Presents, 2014.

[2] Zhen Zhen, Wang Jian, Xi Tingfei, et al. Application status of 3D printed titanium orthopedic implants[J]. Chinese Journal of Biomedical Engineering, 2019, 38(2): 240-251.

[3] Zou Quchao, Jin Jinjiang, Huang Tianhai, et al. Research progress of 3D printing technology in the medical field[J]. Chinese Journal of Medical Devices, 2019, 43(4): 279-281, 293.

[4] Li Jin, Huang Yusheng , Yang Zhenzhou and others. Application of 3D printed tissue compensation block in radiotherapy of nasal NK/T cell lymphoma[J]. Chinese Journal of Medical Physics, 2021, 38(11): 1321-1324.

[5] Wang Jiaocheng, Cui Lei, Zhang Qungong and others . The application value of 3D printing technology in adjuvant radiotherapy after breast cancer surgery[J]. Famous doctor, 2022(10): 71-73.

[6] Zeng Biao , Dou Yujiao, Tan Jianfeng and others. Research on 3D printed individualized compensators in radiotherapy of anal canal cancer[J]. China Medical Equipment, 2022, 37(04): 136-139.

[7] Yan Yufei. Construction and efficacy evaluation of biomimetic bone repair biomaterials that induce bone and blood vessel formation[D]. Shanghai: Shanghai Jiaotong University, 2019.

[8] Bian Bingxiao. 3D printer motion optimization method based on internal model control[D]. Xi'an University of Technology, 2022.

[9] Zhang Yibo . Optimization of nozzle motion and temperature control in 3D printing[D]. Taiyuan University of Science and Technology, 2021 .

[10] Su Pengsheng . Design and development of FDM 3D printer based on collaborative printing slicing technology[D]. Xijing University, 2020.