Optimization of Ply-Laminated Stacking Sequence for Composite Drive Shaft

The objective of this paper was to obtain safe composite drive shaft having enough higher performance with less weight over steel one. For this purpose, finite element analysis FEA for five cases of different stacking sequence for composite drive shaft is carried out. Stacking sequence for these fiv...

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Bibliographic Details
Published inJournal of failure analysis and prevention Vol. 23; no. 1; pp. 176 - 190
Main Author Soliman, Ehab Samir Mohamed Mohamed
Format Journal Article
LanguageEnglish
Published Materials Park Springer Nature B.V 01.02.2023
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Summary:The objective of this paper was to obtain safe composite drive shaft having enough higher performance with less weight over steel one. For this purpose, finite element analysis FEA for five cases of different stacking sequence for composite drive shaft is carried out. Stacking sequence for these five cases is as the following case 1: [+ 45°/− 45°]8, case 2: [+ 45°/− 45°/+ 45°/− 45°/+ 45°/− 45°/0°/0°]2, case 3: [0°/0°/+ 45°/− 45°/+ 45°/− 45°/+ 45°/− 45°]2, case 4: [+ 45°/− 45°/+ 45°/− 45°/+ 45°/− 45°/90°/90°]2 and case 5: [+ 45°/− 45°/+ 45°/− 45°/+ 45°/− 45°/90°/0°]2. FEA results for these five cases are compared, and the comparison showed that cases 4 and 5 are optimum stacking sequence for composite drive shaft. FEA results for these two cases are compared with those of conventional steel drive shaft. The results showed that the composite drive shaft satisfies Tsai–Wu strength failure criteria with smooth operating where it has much higher safety in von misses stress and higher of critical speed and torsional buckling frequencies with weight saving 78.7% over conventional steel drive shaft.
ISSN:1547-7029
1864-1245
DOI:10.1007/s11668-022-01562-y