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Elevated Temperature Stress Analysis of Cobalt-Based Composite Cladding by Microwave Process on Gas Turbine Rotor Blade Using FEA

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Abstract

An electromagnetic field provides energy to the material directly during microwave processing. As a result, there are less thermal gradients and a quick heating of the entire material thickness. Additionally, volumetric heating can conserve energy and shorten production times. In the current study, a 900-W power level and 2.45-GHz microwave furnace were used to generate a cobalt-based coating on titanium substrate. The processing time is approximately 20 min. This report presents a review on microwave heating and describes the procedure for the development of clad. The latter part of this report deals with a thermal analysis using ANSYS software to determine the temperature gradient being created by the cobalt-based coating on two models: a regular square-shaped body and a gas turbine rotor blade.

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Kollur, S., Veeresha, G., Pushpavathi, S.M. et al. Elevated Temperature Stress Analysis of Cobalt-Based Composite Cladding by Microwave Process on Gas Turbine Rotor Blade Using FEA. J. Inst. Eng. India Ser. D (2024). https://doi.org/10.1007/s40033-024-00691-y

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