簡易檢索 / 詳目顯示

研究生: 張益誠
Chang, Yi-Cheng
論文名稱: 數位工藝:機器人漿料3D列印協作工藝
Digital Craft: Robotic Slurry 3D Printing Collaborative Process
指導教授: 沈揚庭
Shen, Yang-Ting
學位類別: 碩士
Master
系所名稱: 規劃與設計學院 - 科技藝術碩士學位學程
Master Program on Techno Art
論文出版年: 2026
畢業學年度: 113
語文別: 中文
論文頁數: 89
中文關鍵詞: 機械手臂3D列印協作數位工藝3D掃描定位
外文關鍵詞: Human-Robot Collaborative 3D Printing, Digital Craft, 3D Scanning and Positioning
相關次數: 點閱:19下載:0
分享至:
查詢本校圖書館目錄 查詢臺灣博碩士論文知識加值系統 勘誤回報
  • 本研究從數位工藝研究著手,以工藝人的角度發想適應創作者隨機創作的技術。傳統工藝製作中的紋理需依賴大量手工技術來成型,而數位工藝的導入,使這些獨特紋理與裝飾能透過數據化、參數控制,省去繁瑣的步驟成為導入數位與工藝結合的想像。
    創作的核心建立在「人機協作」的創作觀念。人機協作是人類透過的經驗與機器間交流,機器依據人類提供的資訊及流程再執行加工,不斷地改善流程,人與機器之間的角色互補與感知交織,進而達成數位與工藝的結合。
    本研究利用3D掃描技術進行隨機物件定位與形態捕捉,透過點位數據建模並擷取加工範圍,進一步生成路徑由機械手臂進行漿體3D列印。這套方法不僅能提升製作的精確度與可控性,還能調整列印參數,使作品在不同條件下展現多變的紋理與形態。研究過程中,針對列印陶瓷漿體材料進行測試,探索數位工藝與機械手臂列印的結合,實現更具靈活性、創造力的工藝作品。
    研究方法分為三個主要階段。首先,透過3D掃描技術掃描試體物件形態,同時捕捉空間定位器、建立數位模型,並透過數位處理分析形態、表面特徵與限制,達成工作區域的選取。接下來透過參數化設計與數位模擬,調整列印參數,以優化機械手臂的動作軌跡與材料層積方式。最後,透過實作與驗證,觀察3D掃描與機械手臂列印技術如何在隨機的工藝創作中提供新的可能性。
    本研究最終創作成果以《拓界》為系列作品名稱,命名意涵源於對「陶藝疆界」的重新探索與突破。傳統陶瓷創作大多著重於手工成形、造型技術與釉燒質感,而《拓界》則嘗試導入數位技術視為創作的一部分,並共同策,展覽名稱:《系統更新中》共同呈現各自對當代科技與文化議題的回應等元素成為創作本身的結構與內容。《拓界》不僅是一場技術實驗,更是一個對工藝未來形貌的提問與回應。
    本研究為數位工藝領域提供新的視角,展示 3D 掃描技術如何提升機械手臂列印的精度與適應性,並拓展其人機協作工藝的應用潛力。

    This research explores the integration of digital craftsmanship and robotic clay extrusion from the perspective of traditional craft practitioners. In conventional ceramic practices, intricate textures, surface details, and expressive forms often rely heavily on manual skills, bodily experience, and long-term material understanding. The maker’s hands play an essential role in shaping clay, responding to its moisture, softness, deformation, and structural limits. With the introduction of digital technologies such as 3D scanning, parametric design, and robotic arm printing, these craft processes can be translated into controllable data, digital models, and fabrication parameters, opening new possibilities for ceramic creation.
    By focusing on the concept of “human-robot collaboration,” this study proposes a workflow in which human experience guides machine execution. The process begins with hand-formed clay objects, whose irregular shapes and handmade traces are captured through 3D scanning. The scanned data is then processed through parametric design to generate printable paths, which are further executed by a six-axis robotic arm with clay slurry extrusion. Through this workflow, the freedom of hand-building and the precision of robotic fabrication are connected within one creative process.
    The study demonstrates that robotic clay printing can extend the expressive potential of ceramic texture and form while preserving the uniqueness of handmade objects. Rather than separating handcraft and digital fabrication, this research develops an adaptive craft process in which human judgment, material sensitivity, and robotic precision work together to produce new possibilities for contemporary ceramic practice.

    摘要 I Abstract II 謝誌 V 目錄 VI 圖目錄 VIII 第一章 緒論 1 1.1 研究背景 1 1.2 研究動機 2 1.3 研究目標 3 1.4 研究範疇 4 1.5 研究架構 5 第二章 文獻回顧 6 2.1 3D 掃描形態捕捉技術 7 2.2 3D 列印增材製造原理 10 2.3 機械手臂列印技術的發展與應用 12 2.4 文獻回顧小結 14 第三章 研究方法 15 3.1 3D掃描 16 3.2 漿體列印材料 22 3.3 六軸機器人 26 3.4 流程建立 28 第四章 研究結果與創作應用 30 4.1 創作流程 30 4.2 創作作品:《拓界》 32 4.3 共同策展 : 系統更新中 48 第五章 結論與後續發展 54 5.1 研究成果總結 55 5.2 研究限制與技術挑戰 56 5.3 未來發展方向 58 參考文獻 59 圖片來源 61 附錄 62

    [1] Altıparmak, S. C., Yardley, V. A., Shi, Z., & Lin, J. (2022). Extrusion-based additive manufacturing technologies: State of the art and future perspectives. Journal of Manufacturing Processes, 83, 607–636.
    [2] Bhargav, A., Sanjairaj, V., Rosa, V., Feng, L. W., & Fuh YH, J. (2018). Applications of additive manufacturing in dentistry: A review. Journal of Biomedical Materials Research Part B: Applied Biomaterials, 106(5), 2058–2064.
    [3] Chaari, M. Z., Pereira, G. P., Daroge, F., & Al-Buainain, S. (2024). 3D printing birdhouses with ceramic clay using a six-axis palletizing robot. Discover Applied Sciences, 6(9), 467.
    [4] Chen, W., Ni, Z., Hu, X., & Lu, X. (2016). Research on pavement roughness based on the laser triangulation. Photonic Sensors, 6(2), 177–180.
    [5] Clarke, T. A. (1990). The use of optical triangulation for high speed acquisition of cross sections or profiles of structures. The Photogrammetric Record, 13(76), 523–532.
    [6] Cui, B., Tao, W., & Zhao, H. (2021). High-precision 3D reconstruction for small-to-medium-sized objects utilizing line-structured light scanning: A review. Remote Sensing, 13(21), 4457.
    [7] Dorsch, R. G., Häusler, G., & Herrmann, J. M. (1994). Laser triangulation: fundamental uncertainty in distance measurement. Applied Optics, 33(7), 1306–1314.
    [8] Goh, K. H., Phillips, N., & Bell, R. (1986). The applicability of a laser triangulation probe to non-contacting inspection. International Journal of Production Research, 24(6), 1331–1348.
    [9] Haleem, A., & Javaid, M. (2019). 3D scanning applications in medical field: A literature-based review. Clinical Epidemiology and Global Health, 7(2), 199–210.
    [10] Javaid, M., Haleem, A., Singh, R. P., & Suman, R. (2021). Industrial perspectives of 3D scanning: Features, roles and it's analytical applications. Sensors International, 2, 100114.
    [11] Ji, Z., & Leu, M. C. (1989). Design of optical triangulation devices. Optics & Laser Technology, 21(5), 339-341.
    [12] Jun, C., Dinggen, L., Feng, L., & Mingyong, L. (2013). Fuzzy adaptive control of light intensity in laser triangulation displacement measurement. 红外与激光工程, 42(6), 1458–1462.
    [13] Luu, Q. K., & La, H. M. (2021, January). A 3-dimensional printing system using an industrial robotic arm. In 2021 IEEE/SICE International Symposium on System Integration (SII) (pp. 443–448). IEEE.
    [14] McPherron, S. P., Gernat, T., & Hublin, J. J. (2009). Structured light scanning for high-resolution documentation of in situ archaeological finds. Journal of Archaeological Science, 36(1), 19–24.
    [15] Remondino, F. (2011). Heritage recording and 3D modeling with photogrammetry and 3D scanning. Remote Sensing, 3(6), 1104–1138.
    [16] Rocchini, C. M. P. P. C., Cignoni, P., Montani, C., Pingi, P., & Scopigno, R. (2001, September). A low cost 3D scanner based on structured light. In Computer Graphics Forum, 20(3), 299–308.
    [17] Yao, A. W. L. (2005). Applications of 3D scanning and reverse engineering techniques for quality control of quick response products. The International Journal of Advanced Manufacturing Technology, 26, 1284–1288.
    [18] Zeng, H., Feng, M., Zhuang, J., Cai, R., Xie, Y., & Li, J. (2019, December). 3D printing and free-form surface coating based on 6-DOF robot. In 2019 IEEE International Conference on Robotics and Biomimetics (ROBIO) (pp. 2641–2646). IEEE.
    [19] Zhang, X., Kang, L., An, Z., & Wang, R. (2018). 3D reconstruction of concrete defects using optical laser triangulation and modified spacetime analysis. Hongwai Yu Jiguang Gongcheng Infrared and Laser Engineering, 47(10).
    [20]許隆銓. (2020). 五軸同步 3D 列印機無需輔助支架於高複雜度物件積層製造之應用. 國立臺灣大學電機工程學系學位論文, 1-103.
    [21] Wohlers Associates. (2019). The Seven AM Processes. Retrieved July 2025, from https://wohlersassociates.com/terminology-and-definitions/the-seven-am-processes/

    圖片來源
    Polyga
    https://www.polyga.com/blog/3d-scanning-101-structured-light-3d-scanning/?utm_source=chatgpt.com
    Artec 3D
    https://www.artec3d.cn/learning-center/what-is-photogrammetry
    UNFOLD
    https://unfold.be/pages/ceramic-3d-printing
    MOTTIMES
    https://www.mottimes.com/article/detail/4760
    FEASUN
    https://www.feasun3d.com/archives/3dscanner-0425/

    QR CODE