於這項研究中，添加了奈米SiCp，微米鉍和銻強化項，通過攪拌鑄造法製備出AZ91鎂基複和金屬材料（Mg MMC）並觀察材料顯微組織結構和力學性能。研究加入不同重量百分比的奈米SiCp（0％，0.5％和1％），鉍（1％）和銻（0.4％）。 觀察材料之微觀結構，它清楚地表明，將奈米SiCp添加到鎂基體材料中，複合材料基體的晶粒尺寸有顯著縮小。研究中基於拉伸，衝擊，壓縮和疲勞等數據等等研究，同時通過拉伸，衝擊，壓縮和疲勞測試表面等測試，已確認增強之機械性能，使用掃描電子顯微鏡（SEM）觀察材料，確認了脆性和韌性性質。 從機械測試結果來看，於拉伸，衝擊和疲勞測試中呈現的0.5％納米SiC以及0.5％SiC + 1％Bi + 0.4％Sb奈米可獲得最好的壓縮性和屈服性能。

In this study, the addition of nano SiCp, micro bismuth and antimony reinforcements were used to develop the microstructural and mechanical properties of as cast AZ91 magnesium metal matrix composites (Mg MMC’s) fabricated by stir casting method. Different weight % of nano SiCp (0%, 0.5% & 1%), bismuth (1%) and antimony (0.4%) were taken into the study. From the microstructure study, it clearly states that addition of nano SiCp into the magnesium matrix significantly reduced the grain size of the matrix of the composites. Enhanced mechanical properties were studied based on the tensile, impact, compression and fatigue data. The brittle and ductile properties were studied by using scanning electron microscopy (SEM) features of tensile, impact, compression and fatigue test surfaces. From the mechanical test results, the best one obtained from which has 0.5% nano SiC presented in tensile, impact and fatigue test as well as nano 0.5%SiC+1%Bi+0.4%Sb has a good compression & yield properties.

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