Abstract
2-In Section V, on page 9, the text below Table 2: “As shown in this table, values of μ are smaller for the designed VAT structures in comparison with other unidirectional composite structures. In particular, when ΔT= 0°C, the unidirectional constant stiffness structure with θ1 = 45° has the lowest value of bending states. For ΔT= 50°C, the unidirectional constant stiffness structure with θ1 = 90° has the lowest value of μ representing the bending states. Finally, for ΔT= 100°C, the unidirectional constant stiffness structure with θ1 = 15° has the lowest bending states in comparison with other constant stiffness composite structures. Fig. 5 shows the contour plots of χ for VAT designed structures in comparison with the unidirectional constant stiffness structures developing the largest and the smallest values of bending. Fig. 5 shows the contour plots of X for VAT designed structures in comparison with the unidirectional constant stiffness structures developing the largest and the smallest values of bending. Fig. 5 shows that bending can be suppressed by tailoring the stiffness using the VAT technique. Furthermore, increasing the thermal load (ΔT) increases the bending level in the structure.” should be changed as follows: “As shown in this table, values of μ are smaller for the designed VAT structures in comparison with other unidirectional composite structures. Moreover, for different ΔT, unidirectional constant stiffness structures with θ1 = 45° have the lowest values of μ representing the bending states. Fig. 5 shows the contour plots of X for VAT designed structures in comparison with the unidirectional constant stiffness structures developing the largest and the smallest values of bending. Fig. 5 shows that bending can be suppressed by tailoring the stiffness using the VAT technique. Furthermore, increasing the thermal load (ΔT) increases the bending level in the structure.”
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Duration: 3 Jan 2022 → 7 Jan 2022