3D Printing Technology in the Film Adaptation of Manual Lenses
DOI:
https://doi.org/10.54097/ythg2t97Keywords:
Additive Manufacturing; Cinematic Lens; Intelligent Modification.Abstract
This paper systematically reviews the latest domestic and international research achievements, providing a comprehensive exposition of the research progress in 3D printing technology for the cinematic conversion of manual lenses. The study begins by analyzing the fundamental differences between professional cinema lenses and traditional photographic lenses from the perspective of cinematic requirements. Subsequently, adopting an interdisciplinary approach integrating materials science, mechanical engineering, and optical engineering, it thoroughly examines the core principles and implementation pathways of 3D printing conversion technology. Through a comparative analysis of twelve mainstream commercial conversion solutions, a complete technical evaluation system is established. Finally, four key breakthrough directions are proposed to address existing technical bottlenecks. This research fills a critical gap in systematic literature reviews within this field. The findings demonstrate that 3D printing technology can reduce the manufacturing cost of professional cinema lenses by over 85% while maintaining more than 90% of performance metrics, demonstrating significant economic benefits and practical value.
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[1] Ni Luting, Cheng Ping, Wei Di. Design of aspherical photography lens based on ZEMAX. Journal of Hefei University of Technology (Natural Science Edition), 2012, 35(11): 1510-1513.
[2] Qian Yuankai. Photographic Optics and Lenses. Zhejiang Photography Publishing House, 2020: 229.
[3] Tao Shiwei. Research on Contemporary Digital Cinematography Lens. Modern Women (Late Month), 2014, (02): 207.
[4] Zhao Yang, Zhou Lingfei. Optical Imaging Quality Control of Photographic Lenses: The Influence of Key Lens Indicators on Photographic Creation (II). Modern Film Technology, 2018, (08): 57-60.
[5] Yang Liang, Zhang Yu, Li Maozhong, et al. Optimization design and finite element analysis of cam in zoom system. New Technology and New Process, 2012, (11): 16-18.
[6] Shenzhen Dongzheng Optical Technology Co., Ltd. Lens structure and camera: 202421976530.5. 2025-06-10.
[7] Han Jun. Modern Cinematography Technology. 2006, (08): 49-51.
[8] Li Ming. Structure and performance of cinematographic lenses. Film and Television Technology, 2005, (05): 31-34+27.
[9] Chen Shuang, Wu Jiamin, Shi Yusheng. Overview of 3D Printing Materials and Their Applications. Physics, 2018, 47(11): 715-724.
[10] Wang Yanqing, Shen Jingxing, Wu Haiquan. Application and Research Status of 3D Printing Materials. Journal of Aeronautical Materials, 2016, 36(4): 89-98.
[11] Wang Xueying. Development and prospect analysis of 3D printing technology and industry. China High-tech Enterprises, 2012, 26(3): 6-8.
[12] Zhang Jun. Development Status of 3D Printing Materials. Modern Decoration: Theory, 2015, (12): 291-291.
[13] Yang Yongqiang, Liu Yang, Song Changhui. Current status and research progress of 3D printing technology for metal parts. Mechatronics Engineering Technology, 2013, (4): 1-7.
[14] Pu Yisong, Wang Baoqi, Zhang Liangui. Research on Metal 3D Printing Technology. Surface Technology, 2018, 47(3): 78-84.
[15] Chen Xiangming, Yao Liaojun, Guo Licheng, et al. 3D Review of the research status of continuous fiber reinforced composites for printing. 2021.
[16] 3D printing of continuous fiber self-reinforcing composites and their recycling performance. Journal of Mechanical Engineering, 2022, 58(23): 188-195.
[17] Li Jian, Xu Min, Bao Wenhui. Disruptive Technologies Affecting the Future: 3D Printing for Multi-material Hybrid Intelligent Manufacturing. Journal of Northeast Forestry University, 2015, 43(6): 1-9.
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