Pressurized Infusion: A New and Improved Liquid Composite Molding Process

被引:22
|
作者
Yalcinkaya, M. Akif [1 ]
Guloglu, Gorkem E. [1 ]
Pishvar, Maya [1 ]
Amirkhosravi, Mehrad [1 ]
Sozer, E. Murat [2 ]
Altan, M. Cengiz [1 ]
机构
[1] Univ Oklahoma, Sch Aerosp & Mech Engn, Felgar Hall,Room 212,865 Asp Ave, Norman, OK 73019 USA
[2] Koc Univ, Mech Engn Dept, TR-34450 Istanbul, Turkey
关键词
composites manufacturing; voids; permeability; mechanical properties; INTERLAMINAR SHEAR-STRENGTH; VOID CONTENT; RESIN FLOW; EXPERIMENTAL VALIDATION; INJECTION PRESSURE; VACUUM INFUSION; VOLUME FRACTION; INDUCED DEFECTS; PERMEABILITY; QUALITY;
D O I
10.1115/1.4041569
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Vacuum-assisted resin transfer molding (VARTM) has several inherent shortcomings such as long mold filling times, low fiber volume fraction, and high void content in fabricated laminates. These problems in VARTM mainly arise from the limited compaction of the laminate and low resin pressure. Pressurized infusion (PI) molding introduced in this paper overcomes these disadvantages by (i) applying high compaction pressure on the laminate by an external pressure chamber placed on the mold and (ii) increasing the resin pressure by pressurizing the inlet resin reservoir. The effectiveness of PI molding was verified by fabricating composite laminates at various levels of chamber and inlet pressures and investigating the effect of these parameters on the fill time, fiber volume fraction, and void content. Furthermore, spatial distribution of voids was characterized by employing a unique method, which uses a flatbed scanner to capture the high-resolution planar scan of the fabricated laminates. The results revealed that PI molding reduced fill time by 45%, increased fiber volume fraction by 16%, reduced void content by 98%, improved short beam shear (SBS) strength by 14%, and yielded uniform spatial distribution of voids compared to those obtained by conventional VARTM.
引用
收藏
页数:12
相关论文
共 50 条
  • [21] A hybrid optimization algorithm for gate locations in the liquid composite molding process
    Liu, Junling
    Xie, Junbo
    Chen, Li
    TEXTILE RESEARCH JOURNAL, 2022, 92 (23-24) : 4912 - 4920
  • [23] Liquid molding of a composite aileron
    Kruckenberg, T
    Raju, J
    SAMPE JOURNAL, 1998, 34 (01) : 38 - 45
  • [24] Design and testing of a new injection approach for liquid composite molding
    Lawrence, JM
    Devillard, M
    Advani, SG
    JOURNAL OF REINFORCED PLASTICS AND COMPOSITES, 2004, 23 (15) : 1625 - 1638
  • [25] PREFORMING FOR LIQUID COMPOSITE MOLDING
    CARLEY, EP
    DOCKUM, JF
    SCHELL, PL
    DESIGN AND MANUFACTURING OF ADVANCED COMPOSITES, 1989, : 259 - 273
  • [26] Liquid molding of a composite aileron
    Cooperative Research Cent for, Advanced Composite Structures
    SAMPE J, 1 (38-45):
  • [27] Permeability Analysis of Natural and Artificial Fiber Textiles for Liquid Composite Molding Process
    Esperto, Vitantonio
    Boccarusso, Luca
    Durante, Massimo
    Carrino, Luigi
    Carlone, Pierpaolo
    23RD INTERNATIONAL CONFERENCE ON MATERIAL FORMING, 2020, 47 : 435 - 439
  • [28] Injection gate definition for improving the accuracy of liquid composite molding process simulation
    Dong, Chensong
    JOURNAL OF COMPOSITE MATERIALS, 2007, 41 (15) : 1851 - 1870
  • [29] Cure monitoring of the liquid composite molding process using fiber optic sensors
    Woerdeman, DL
    Spoerre, JK
    Flynn, KM
    Parnas, RS
    POLYMER COMPOSITES, 1997, 18 (01) : 133 - 150
  • [30] Compressibility and relaxation of a new sandwich textile preform for liquid composite molding
    Dept. of Mat. and Metall. Eng., Katholieke Universiteit Leuven, De Croylaan 2, 3001 Heverlee, Belgium
    Polym Compos, 2 (179-191):