Innovation in 3D Braiding Technology and Its Applications

被引:21
|
作者
Emonts, Caroline [1 ]
Grigat, Niels [1 ]
Merkord, Felix [1 ]
Vollbrecht, Ben [1 ]
Idrissi, Akram [1 ]
Sackmann, Johannes [1 ]
Gries, Thomas [1 ]
机构
[1] Rhein Westfal TH Aachen, Inst Textiltech, Otto Blumenthal Str 1, D-52074 Aachen, Germany
来源
TEXTILES | 2021年 / 1卷 / 02期
关键词
3D braiding; 3D hexagonal braiding; 3D rotary braiding; medical textiles; lightweight materials; SIMULATION; LIGAMENTS; SURGERY;
D O I
10.3390/textiles1020009
中图分类号
TB3 [工程材料学]; TS1 [纺织工业、染整工业];
学科分类号
0805 ; 080502 ; 0821 ;
摘要
Braids are generally divided into 2D braids and 3D braids. Two-dimensional braids include flat braids and circular braids. Circular braids represent three-dimensional textiles, as they enclose a volume, but consist of a two-dimensional yarn architecture. Three-dimensional braids are defined by a three-dimensional yarn architecture. Historically, 3D braids were produced on row and column braiding machines with Cartesian or radial machine beds, by bobbin movements around inlay yarns. Three-dimensional rotary braiding machines allow a more flexible braiding process, as the bobbins are moved via individually controlled horn gears and switches. Both braiding machines at the Institut f & uuml;r Textiltechnik (ITA) of RWTH Aachen University, Germany, are based on the principal of 3D rotary machines. The fully digitized 3D braiding machine with an Industry 4.0 standard enables the near-net-shape production of three-dimensionally braided textile preforms for lightweight applications. The preforms can be specifically reinforced in all three spatial directions according to the application. Complex 3D structures can be produced in just one process step due to the high degree of design freedom. The 3D hexagonal braiding technology is used in the field of medical textiles. The special shape of the horn gears and their hexagonal arrangement provides the densest packing of the bobbins on the machine bed. In addition, the lace braiding mechanism allows two bobbins to occupy the position between two horn gears, maximizing the number of bobbins. One of the main applications is the near-net-shape production of tubular structures, such as complex stent structures. Three-dimensional braiding offers many advantages compared to 2D braiding, e.g., production of complex three-dimensional geometries in one process step, connection of braided layers, production of cross-section changes and ramifications, and local reinforcement of technical textiles without additional process steps. In the following review, the latest developments in 3D braiding, the machine development of 3D braiding machines, as well as software and simulation developments are presented. In addition, various applications in the fields of lightweight construction and medical textiles are introduced.
引用
收藏
页码:185 / 205
页数:21
相关论文
共 50 条
  • [1] 3D Braiding Technology: A Historical Prospective
    Ko, Frank
    Theelen, Katrin
    Amalric, Emmanuel
    FabianSchreiber
    PROCEEDING OF THE THIRD WORLD CONFERENCE ON 3D FABRICS AND THEIR APPLICATIONS, 2010, : 130 - 135
  • [2] Research Status of 3D Braiding Technology
    Li, Xiping
    He, Xinhai
    Liang, Junhao
    Song, Yifan
    Zhang, Liang
    Wang, Bo
    Ma, Jingyan
    Kong, Guidong
    APPLIED COMPOSITE MATERIALS, 2022, 29 (01) : 147 - 157
  • [3] Research Status of 3D Braiding Technology
    Xiping Li
    Xinhai He
    Junhao Liang
    Yifan Song
    Liang Zhang
    Bo Wang
    Jingyan Ma
    Guidong Kong
    Applied Composite Materials, 2022, 29 : 147 - 157
  • [4] 3D Printing Technology and its Applications
    Liu, Wen
    Xu, Shuqiong
    ADVANCED MATERIAL ENGINEERING (AME 2015), 2016, : 506 - 514
  • [5] 3D vision technology and its applications in welding
    Li, LP
    Chen, SB
    Lin, T
    2004 8TH INTERNATIONAL CONFERENCE ON CONTROL, AUTOMATION, ROBOTICS AND VISION, VOLS 1-3, 2004, : 190 - 198
  • [6] Research status of simulation modeling technology for the 3D braiding process
    Yuan, Chengxu
    Li, Xin Rong
    Zhang, Shijie
    Li, Shun
    Ma, Kui
    TEXTILE RESEARCH JOURNAL, 2025,
  • [7] 3D digitization technology and its applications in reversing engineering
    Peng, QJ
    PROGRESS OF MACHINING TECHNOLOGY, 2004, : 926 - 931
  • [8] 3D cell aggregate printing technology and its applications
    Jeon, Seunggyu
    Lee, Se-Hwan
    Ahmed, Saeed B.
    Han, Jonghyeuk
    Heo, Su-Jin
    Kang, Hyun-Wook
    3D BIOPRINTING, 2021, 65 (03): : 467 - 480
  • [9] Aachen Technology Overview of 3D Textile Materials and Recent Innovation and Applications
    Thomas Gries
    Isa Bettermann
    Carolin Blaurock
    Andreas Bündgens
    Gözdem Dittel
    Caroline Emonts
    Valentine Gesché
    Nikola Glimpel
    Martin Kolloch
    Niels Grigat
    Henning Löcken
    Alexander Löwen
    Jens-Lennart Jacobsen
    Magdalena Kimm
    Hannah Kelbel
    Hauke Kröger
    Kai-Chieh Kuo
    Christoph Peiner
    Johannes Sackmann
    Max Schwab
    Applied Composite Materials, 2022, 29 : 43 - 64
  • [10] Aachen Technology Overview of 3D Textile Materials and Recent Innovation and Applications
    Gries, Thomas
    Bettermann, Isa
    Blaurock, Carolin
    Buendgens, Andreas
    Dittel, Gozdem
    Emonts, Caroline
    Gesche, Valentine
    Glimpel, Nikola
    Kolloch, Martin
    Grigat, Niels
    Loecken, Henning
    Loewen, Alexander
    Jacobsen, Jens-Lennart
    Kimm, Magdalena
    Kelbel, Hannah
    Kroeger, Hauke
    Kuo, Kai-Chieh
    Peiner, Christoph
    Sackmann, Johannes
    Schwab, Max
    APPLIED COMPOSITE MATERIALS, 2022, 29 (01) : 43 - 64