MODELING THE IMPACT OF NONLINEAR OSCILLATIONS ON THE QUALITY OF THE WORKING SURFACE OF PARTS IN FINISHING OPERATIONS
DOI:
https://doi.org/10.20998/2078-7405.2025.103.06Keywords:
hereditary defect, crack formation, finishing operation, ferromagnetic modeling, analytical dependenciesAbstract
To establish analytical conditions for detecting hereditary defects in ferroceramic and ferromagnetic parts and to define machining parameters that prevent crack formation. Magnetic induction scattering is modelled to estimate defect geometry and depth; thermomechanical processes during grinding are analysed using the “weakest link” hypothesis and criteria based on temperature, heat flux, forces, and stress intensity. Obtained expressions describe magnetic field perturbation and allow evaluating defect size, while derived conditions prevent their growth into main cracks. A unified analytical framework combines magnetic defect detection with crack-resistance modelling. The results support selecting grinding modes and tool characteristics for defect-free finishing of materials prone to cracking.
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