Sains Malaysiana 42(12)(2013): 1755–1761
Effect of Dissolution Times on Compressive Properties and
Energy Absorption of Aluminum Foam
(Kesan Masa Pelarutan ke Atas Sifat Mampatan dan Penyerapan Tenaga Busa Aluminium)
NUR SURIANNI AHAMAD SUFFIN, ANASYIDA ABU SEMAN* & ZUHAILAWATI HUSSAIN
School of Materials and Mineral Resources Engineering, Engineering
Campus, Universiti Sains Malaysia, 14300 Nibong Tebal, Pulau Pinang, Malaysia
Received: 23 March 2012/Accepted: 23 May 2012
ABSTRACT
Aluminum foams were fabricated by sintering dissolution process (SDP)
using sodium chloride (NaCl) as space
holder. The compositions of space holder, used in this study were 40 and 60 wt.
% with different dissolution times; 1, 2 and 3 h. The effect of different dissolution
times on compressive behavior and energy absorption of foams were evaluated.
The result showed that by increasing space holder and dissolution times, energy
absorption capability increases. For aluminum foam contains 60 wt. % NaCl, longer dissolution times resulted in
thinner cell wall and cell structure become more unstable which lead to lower
plateau region.
Keywords: Aluminium foam; compressive
properties; dissolution time; energy absorption; sintering dissolution process
ABSTRAK
Busa aluminium telah dihasilkan melalui proses pensinteran pelarutan (SDP) menggunakan natrium klorida (NaCl) sebagai agen pembusaan. Komposisi bahan pembusaan yang digunakan dalam kajian ialah 40 dan 60 %berat dengan masa pembusaan yang berbeza; 1, 2 dan 3
jam. Kesan masa pembusaan yang berbeza ke atas sifat mampatan dan penyerapan tenaga aluminium berbusa dikaji. Hasil kajian menunjukkan dengan peningkatan agen pembusaan dan masa pelarutan, keupayaan penyerapan tenaga meningkat. Busa aluminium yang mengandungi 60 % berat NaCl, dengan masa pelarutan yang lebih panjang menyebabkan dinding sel menjadi lebih nipis dan struktur sel menjadi lebih tidak stabil dan mengurangkan rantau dataran.
Kata kunci: Aluminium berbusa; masa pelarutan; penyerapan tenaga; proses pelarutan; proses pensinteran pelarutan
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*Corresponding
author; email: anasyida@eng.usm.my