Damage Behavior of Glass Fiber Composite Laminates for Different Stacking Sequences under Impact Drop Weight

Salama, Ahmed; Abdellah, Mohammed; Seleem, Abo-El Hagag; Salem, Mahmoud; Abdel-Jaber, Gamal

doi:10.21608/sjyr.2022.228706

	Damage Behavior of Glass Fiber Composite Laminates for Different Stacking Sequences under Impact Drop Weight
مجلة سوهاج لشباب الباحثين
Volume 2, Issue 2, 2022, Page 37-47 PDF (956.62 K)
Document Type: المقالة الأصلية
DOI: 10.21608/sjyr.2022.228706
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Authors
Ahmed Salama ¹; Mohammed Abdellah²; Abo-El Hagag Seleem³; Mahmoud Salem⁴; Gamal Abdel-Jaber⁵
¹Mechanical Department, Faculty of Technology and Education, Sohag University, Sohag, 82524, Egypt
²Mechanical Engineering Department, South Valley University, Qena, Egypt 83523
³Sun Miser petroleum company, Cairo, Egypt
⁴Mechanical Department, Faculty of Technology and Education, Sohag University, Sohag, Egypt 82524
⁵2Mechanical Engineering Department, South Valley University, Qena, Egypt 83523
Abstract
Glass fiber composite laminates have attracted the interest of researchers all over the world due to their have outstanding applications in a lot of industrial fields. Toughness is a very important property in various applications. The current study gives a brief account of the effect of fiber orientation on the toughness of glass fiber composite laminates. Four different layups of stacking sequences [0] 4s, [0,90 ± 45] s, [0,90] 2s, and woven fabric are used. These laminates are manufactured using hand lay-up process technique. It is consisting of glass fiber as reinforcement material and epoxy as resin. Impact damage tolerance in composite laminates structures is a very active research topic. Drop weight impact test is applied to measure the depth of penetration through specimens’ surface, therefore, the effect of fallen load on the topography of the specimen and damage will be noticed. The impact strength is nearly given the same behavior for the four stacking sequences at lower drop velocities, but the woven fabric sample shows a lower penetration depth when the drop velocity increases.
Keywords
Composite material; Laminates; Fiber glass; Toughness


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