JOURNAL ARTICLE

Tearing mode interlaminar fracture toughness of composite materials

Shun‐Fa HwangChiao‐Lin Hu

Year: 2001 Journal:   Polymer Composites Vol: 22 (1)Pages: 57-64   Publisher: Wiley

Abstract

Abstract The Simplified Split Cantilever Beam (SSCB) is proposed in this work and compared with the Split Cantilever Beam (SCB) to obtain the tearing mode interlaminar fracture toughness. The materials considered are single‐fiber system composites and interply hybrid composites. For interply hybrid composites, three different types of stacking sequence for SSCB specimens, which are [0 /0 //0 ],[0 /0 //0 ]. and [0 /0 //0 ], are tested to compare their suitability. Finite element analysis combined with a modified crack closure integral has been applied to separate the different components of the strain‐energy release rate. In addition, the method of compliance calibration was used to calculate Gc values. The effects of crack growth, initial crack length, specimen width, and number of glass fiber plies were also studied. The results show that SSCB testing has a more dominant Mode III component and more stable Gc values than SCB testing. For SSCB testing, the crack growth and the specimen width for the range considered have no clear effects on the interlaminar fracture toughness, but the initial crack length should be carefully selected to obtain corrected values. The tearing mode interlaminar fracture toughness of interply hybrid composites is higher than that of carbon/epoxy composites, and the three different types of stacking sequence considered are all suitable to approximate the Mode III interlaminar fracture toughness for interply hybrid composites.

Keywords:
Materials science Composite material Fracture toughness Tearing Epoxy Fracture (geology) Delamination (geology) Composite number Toughness Fracture mechanics Strain energy release rate Stacking

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Citation History

Topics

Mechanical Behavior of Composites
Physical Sciences →  Engineering →  Mechanics of Materials
Fatigue and fracture mechanics
Physical Sciences →  Engineering →  Mechanics of Materials
Composite Structure Analysis and Optimization
Physical Sciences →  Engineering →  Mechanics of Materials

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