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Sleeveless top
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Rah-rah skirt
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Bucket bag
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Hairband
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Different thickness/angle/materials
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Different pre-stretching
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(P-FYP) Phung ZH
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FORMATION OF 3D STRUCTURES ON FABRIC TO IMPROVE VENTILATION
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(FYP) TEE YH
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1D vs. 2D pre-stretched by 20%
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1D 20% pre-stretched. Before (top row) and after (bottom row) heating. Left: top side; right: back side.
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2D 20% pre-stretched. Before (top row) and after (bottom row) heating. Left: top side; right: back side.
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After removing the cloth
3D printed (different thickness) atop 2D pre-stretched spandex. Left: thin; right: thick.
Solid square version. Top: front; bottom: back.
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设计师将编织艺术与3D打印技术相结合，打造出二元序列
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双曲几何：针织艺术Crocheting Adventures with Hyperbolic Planes _ Tactile -- Taimiņa, Daina -- Second edition, Boca Raton, FL, 2018 -- CRC Press, Taylor & Francis Group
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3D打印技术在纺织品变形控制中的应用研究
Deepseek （Feb. 1, 2025)
摘要
本报告汇总了两篇关于3D打印技术在纺织品变形控制中的应用研究。Tee (2024) 主要研究了通过熔融沉积建模（FDM）3D打印技术在预拉伸纺织品上打印不同图案，以控制纺织品的三维变形。Lim (2023) 则探讨了3D打印技术在时尚设计中的应用，特别是通过3D打印在预拉伸纺织品上创建自组织杆状波动（self-organized rod undulations）。两篇文章均展示了3D打印技术在纺织品变形控制中的潜力，特别是在出平面失稳（out-of-plane buckling）和平面内失稳（in-plane buckling）方面的应用。
1. 研究背景与目标
1.1 背景
3D打印技术自20世纪80年代发明以来，逐渐在多个领域中得到广泛应用，包括制造业、医疗、建筑和时尚设计。近年来，3D打印技术在时尚设计中的应用引起了广泛关注，特别是在创建复杂纹理、形状和图案方面。通过在预拉伸纺织品上打印特定图案，可以实现对纺织品变形的精确控制，从而为时尚设计师提供新的创作工具。
1.2 研究目标
2. 研究方法与实验设计
2.1 3D打印技术与材料
两篇文章均使用了FDM 3D打印技术，并在预拉伸纺织品上打印不同图案。主要使用的材料包括：
3. 主要发现与结果
3.1 出平面失稳（Out-of-Plane Buckling）
4. 应用实例与潜力
4.1 时尚设计
5. 结论与未来工作
5.1 结论
参考文献
通过这两篇文章的研究，我们可以看到3D打印技术在纺织品变形控制中的广泛应用潜力，特别是在时尚设计和可穿戴设备中的应用。通过控制图案、材料和参数，可以实现对纺织品变形的精确控制，从而为设计师提供新的创作工具。
Deepseek （Feb. 1, 2025)
摘要
本报告汇总了两篇关于3D打印技术在纺织品变形控制中的应用研究。Tee (2024) 主要研究了通过熔融沉积建模（FDM）3D打印技术在预拉伸纺织品上打印不同图案，以控制纺织品的三维变形。Lim (2023) 则探讨了3D打印技术在时尚设计中的应用，特别是通过3D打印在预拉伸纺织品上创建自组织杆状波动（self-organized rod undulations）。两篇文章均展示了3D打印技术在纺织品变形控制中的潜力，特别是在出平面失稳（out-of-plane buckling）和平面内失稳（in-plane buckling）方面的应用。
1. 研究背景与目标
1.1 背景
3D打印技术自20世纪80年代发明以来，逐渐在多个领域中得到广泛应用，包括制造业、医疗、建筑和时尚设计。近年来，3D打印技术在时尚设计中的应用引起了广泛关注，特别是在创建复杂纹理、形状和图案方面。通过在预拉伸纺织品上打印特定图案，可以实现对纺织品变形的精确控制，从而为时尚设计师提供新的创作工具。
1.2 研究目标
- Tee (2024)：研究不同图案对预拉伸纺织品三维变形的影响，探索如何通过特定图案控制变形。
- Lim (2023)：探索3D打印技术在时尚设计中的应用，分析不同参数（如拉伸程度、杆的厚度和角度）对纺织品变形的影响。
2. 研究方法与实验设计
2.1 3D打印技术与材料
两篇文章均使用了FDM 3D打印技术，并在预拉伸纺织品上打印不同图案。主要使用的材料包括：
- 刚性材料：如聚乳酸（PLA），适合创建稳定的三维结构。
- 柔性材料：如热塑性聚氨酯（TPU）和热塑性弹性体（TPE），适合创建可穿戴纺织品。
- Tee (2024)：设计了多种图案，包括直线、波浪线、封闭环、弧形等，并研究了这些图案对纺织品变形的影响。
- Lim (2023)：通过调整拉伸程度、杆的厚度和角度，研究了这些参数对自组织杆状波动的影响。
3. 主要发现与结果
3.1 出平面失稳（Out-of-Plane Buckling）
- Tee (2024)：通过设计不同的图案（如螺旋形、方形、花瓣形等），可以控制出平面失稳的程度。例如，螺旋形图案由于相邻弧线之间的张力较弱，出平面失稳不明显，而方形和花瓣形图案则表现出明显的截锥效应。
- Lim Woon Pink, 3D Printing Assisted Fashion Design, Nanyang Technological University, Final Year Project, 2023：通过在预拉伸纺织品上打印细杆，可以观察到自组织的波动现象。这种波动主要表现为出平面失稳，即纺织品在垂直于拉伸方向的方向上发生弯曲。
- Tee (2024)：通过将图案分段设计，可以减少出平面失稳，同时增加平面内的收缩效果。例如，星形和花瓣形图案通过分段设计，可以在减少出平面失稳的同时，增加平面内的收缩效果。
- Lim (2023)：当杆的角度接近拉伸方向时，平面内的收缩效果更明显。例如，当杆的角度为90度时，平面内的收缩效果最强，而出平面失稳效果较弱。
- 拉伸程度：拉伸程度越高，波动越多，出平面失稳效果越明显。
- 杆的厚度：杆的厚度越大，波动幅度越大，出平面失稳效果越明显。
- 杆的角度：杆的角度越接近拉伸方向，平面内的收缩效果越明显。
4. 应用实例与潜力
4.1 时尚设计
- Tee (2024)：展示了通过3D打印技术在纺织品上创建复杂三维结构的潜力，特别是在时尚设计和可穿戴设备中的应用。
- Lim (2023)：展示了如何通过3D打印技术创建时尚单品，如无袖上衣、裙子和发带。这些单品利用了3D打印在纺织品上创建的波动效果，展示了3D打印技术在时尚设计中的潜力。
- Tee (2024)：通过控制图案和材料，可以实现对纺织品变形的精确控制，从而为可穿戴设备的设计提供新的可能性。
- Lim (2023)：TPU由于其高弹性和柔韧性，更适合用于可穿戴时尚设计，而PLA则更适合用于创建刚性结构。
5. 结论与未来工作
5.1 结论
- Tee (2024)：通过3D打印技术在预拉伸纺织品上打印不同图案，可以实现对纺织品三维变形的精确控制，特别是在出平面失稳和平面内失稳方面的应用。
- Lim (2023)：通过调整拉伸程度、杆的厚度和角度，可以实现对纺织品变形的精确控制，从而为时尚设计提供新的创作工具。
- 材料研究：进一步研究不同材料的刚性和柔性对纺织品变形的影响。
- 参数优化：优化拉伸程度、杆的厚度和角度等参数，以实现更精确的变形控制。
- 应用拓展：探索3D打印技术在其他领域的应用，如医疗、建筑和航空航天。
参考文献
- Tee Ying Hong (2024), Controlled 3D patterns formed via FDM printing atop pre-stretched textile, Nanyang Technological University, Final Year Project, 2024
- Lim Woon Pink (2023), 3D printing assisted fashion design, Nanyang Technological University, Final Year Project, 2023
通过这两篇文章的研究，我们可以看到3D打印技术在纺织品变形控制中的广泛应用潜力，特别是在时尚设计和可穿戴设备中的应用。通过控制图案、材料和参数，可以实现对纺织品变形的精确控制，从而为设计师提供新的创作工具。
Review: Innovations in 3D Printing on Textiles for Structural and Aesthetic Applications
ChatGPT (Feb. 1, 2025)
Introduction
The integration of 3D printing technologies with textiles has enabled a diverse range of applications, from structural deformation studies to fashion design. The two reports, Controlled 3D Patterns Formed via FDM Printing Atop Pre-Stretched Textile (2024) and 3D Printing Assisted Fashion Design (2023), explore different but complementary aspects of this innovative domain.
Key Objectives
Both studies utilized flexible (TPU, TPE) and rigid (PLA, PETG) filaments on textiles. While Tee Ying Hong focused on pre-stretched spandex to study deformation patterns such as warping and buckling, Lim Woon Pink primarily experimented with cotton spandex fabric for wearable designs. Creality 3D printers were central to both projects, providing the precision needed to realize complex patterns and structural features.
Findings
Both studies encountered challenges related to adhesion, print quality, and resolution of structural elements. Tee Ying Hong noted issues with capturing precise 3D mesh data due to the limitations of photogrammetry software. Lim Woon Pink faced difficulties in maintaining print stability on pre-stretched textiles and optimizing filament behavior for fashion applications.
Future Directions
The integration of 3D printing with textiles presents significant opportunities for both structural applications and fashion design. By leveraging the unique properties of different filaments and optimizing pattern designs, both studies have laid the groundwork for future innovations in this interdisciplinary field.
References
ChatGPT (Feb. 1, 2025)
Introduction
The integration of 3D printing technologies with textiles has enabled a diverse range of applications, from structural deformation studies to fashion design. The two reports, Controlled 3D Patterns Formed via FDM Printing Atop Pre-Stretched Textile (2024) and 3D Printing Assisted Fashion Design (2023), explore different but complementary aspects of this innovative domain.
Key Objectives
- Structural Studies: Tee Ying Hong's research focuses on using Fused Deposition Modeling (FDM) to create complex 3D deformations on pre-stretched textiles. The study investigates how printed patterns on textiles influence structural transformations during contraction, with implications for deployable structures and advanced materials.
- Fashion Applications: Lim Woon Pink explores the use of 3D printing to create innovative fashion pieces. This work emphasizes the aesthetic possibilities of combining flexible filaments like TPU with textiles to produce garments that feature dynamic textures and structural elements.
Both studies utilized flexible (TPU, TPE) and rigid (PLA, PETG) filaments on textiles. While Tee Ying Hong focused on pre-stretched spandex to study deformation patterns such as warping and buckling, Lim Woon Pink primarily experimented with cotton spandex fabric for wearable designs. Creality 3D printers were central to both projects, providing the precision needed to realize complex patterns and structural features.
Findings
- Structural Deformations: Tee Ying Hong demonstrated how circular and rectangular printed arrays can control 3D deformation, producing effects such as truncated cones and regular wrinkling patterns. These findings are pivotal for applications requiring deployable or morphing structures.
- Fashion Integration: Lim Woon Pink highlighted the potential of self-organized rod undulations and buckling phenomena in creating visually appealing, functional fashion pieces. The study culminated in the development of garments such as a sleeveless top and a rah-rah skirt, showcasing the versatility of TPU filaments in achieving dynamic designs.
Both studies encountered challenges related to adhesion, print quality, and resolution of structural elements. Tee Ying Hong noted issues with capturing precise 3D mesh data due to the limitations of photogrammetry software. Lim Woon Pink faced difficulties in maintaining print stability on pre-stretched textiles and optimizing filament behavior for fashion applications.
Future Directions
- Structural Applications: Further exploration of pattern designs and advanced materials for more complex and controllable deformation in engineering contexts.
- Fashion Innovation: Continued research into filament behavior on textiles and advanced design strategies to integrate 3D printing with wearable technology.
The integration of 3D printing with textiles presents significant opportunities for both structural applications and fashion design. By leveraging the unique properties of different filaments and optimizing pattern designs, both studies have laid the groundwork for future innovations in this interdisciplinary field.
References
- Tee Ying Hong, Controlled 3D Patterns Formed via FDM Printing Atop Pre-Stretched Textile. Final Year Project Report, School of Mechanical and Aerospace Engineering, Nanyang Technological University, 2024.
- Lim Woon Pink, 3D Printing Assisted Fashion Design. Final Year Project Report, School of Mechanical and Aerospace Engineering, Nanyang Technological University, 2023.
