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Thermo-mechanical stress analysis of rotating fiber reinforced variable thickness disk

Circumferentially fiber reinforced composite disk, which has a variable thickness, is modeled via analytical approaches. The disk is subjected to rotation in traction free conditions and decreasing, constant, and increasing steady state radial temperature gradients along the disk radius. Limit angul...

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Published in:Journal of strain analysis for engineering design 2022-11, Vol.57 (8), p.664-676
Main Authors: Can Farukoğlu, Ömer, Korkut, İhsan
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description Circumferentially fiber reinforced composite disk, which has a variable thickness, is modeled via analytical approaches. The disk is subjected to rotation in traction free conditions and decreasing, constant, and increasing steady state radial temperature gradients along the disk radius. Limit angular velocities are calculated by operating Tsai-Wu and Norris failure indexes to the problem. Subsequently, these limit velocities are gradually decreased to examine the stress and displacement fields. Acquired results show that as the angular velocity drops, the effects of temperature gradients become more visible. At lower angular velocities, these gradients may even alter the stress field directions. Also, different failure criteria implementation may change the calculated limit velocities to a considerable degree. Therefore, the failure index should be chosen attentively to procure conservative results. In the investigation, the influence of disk geometry on the directional stresses is studied as well. Without further ado, it can be expressed that the geometry causes slight alterations in stresses and displacements.
doi_str_mv 10.1177/03093247211060996
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subjects Angular velocity
Failure
Fiber composites
Rotating disks
Stress analysis
Stress distribution
Temperature effects
Thermomechanical analysis
Variable thickness
Velocity
title Thermo-mechanical stress analysis of rotating fiber reinforced variable thickness disk
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