Abstract
This study presents an experimental study on failure modes and resistances of polycarbonate (PC)/Acrylonitrile Butadiene Styrene (ABS) blends and their ABS constituents under a drop weight impact test (DWIT). Failure modes and impact resistances such as impact strength and impact toughness of such blends are generally influenced by molecular weight of the PC, rubber content and size of rubber particle in ABS system. A preliminary study on ABS materials using a DWIT showed that size of rubber particle not only determining their failure modes but also influencing their resistance characteristics. However, in a previous study performed using the similar DWIT on PC/ABS blends with a 10 wt% rubber content, it was revealed that size of rubber particle did not significantly influence their resistances. Their failure modes were even macroscopically very difficult to be distinguished. This study, hence, is aimed to further explore role of the size of rubber particle on failure mode and impact resistance characteristics of the PC/ABS blends and their ABS constituents with a higher rubber content. The impact test results have revealed that with a 20 wt% rubber content, size of rubber particle only influenced the resistances of the PC/ABS blends. It did not significantly contribute to affect failure mode of the PC/ABS blends. Whilst, it significantly influenced failure modes and resistances of the ABS. The DWIT results also re-confirmed that blending a brittle ABS into PC led to produce a tougher PC/ABS blend.
Original language | English |
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Pages (from-to) | 1-6 |
Number of pages | 6 |
Journal | Defect and Diffusion Forum |
Volume | 402 DDF |
DOIs | |
Publication status | Published - 2020 |
Event | International Conference on Experimental and Computational Mechanic in Engineering, ICECME 2019, held in Conjunction with 9th AIC 2019 - Banda Aceh, Indonesia Duration: 2019 Sept 18 → 2019 Sept 19 |
Keywords
- Drop weight impact
- Failure mode
- Impact strength
- PC/ABS
- Polymer blends
- Toughness
ASJC Scopus subject areas
- Radiation
- Materials Science(all)
- Condensed Matter Physics