Monitoring of flank wear and damage in high-speed end milling inclined surfaces of hardened steel AISI D6

Authors

  • Yanier Sánchez-Hechavarría Universidad de Oriente
  • Maritza Mariño-Cala Universidad de Oriente
  • Luis Ángel Brito-Sauvanell Universidad de Oriente
  • Frank Sanabria-Macias Universidad de Oriente

Keywords:

milling, monitoring, inclined surfaces, wear, mechanism of damage, cutting force.

Abstract

Cutting tool condition monitoring system in the industry is mainly used to detect tool wear, breakage and chatter on the tool. In this paper, tool wear with two inclination surfaces angles was investigated in end milling inclined surface using cutting force signals. This study is focused in the time domain radial force amplitude analysis and Root Mean Square (RMS) values for tool wear monitoring in milling process. The RMS value of the radial cutting force is increased with the flank wear and inclination angle increases. The analysis of the RMS values of the radial cutting force can be effectively used for the tool wear progression monitoring during milling operations. It was confirmed that in end milling inclined surface the predominant mechanism of damage is adhesive–abrasive.

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Author Biographies

Yanier Sánchez-Hechavarría, Universidad de Oriente

Máster en Procesos de Manufactura y Materiales. Profesor Auxiliar.

Maritza Mariño-Cala, Universidad de Oriente

Profesora TitularDepartamento de Manufactura y MaterialesFacultad de Ingeniería Mecánica

Luis Ángel Brito-Sauvanell, Universidad de Oriente

Doctor en Ciencias Técnicas. Profesor Titular.

Frank Sanabria-Macias, Universidad de Oriente

Máster en Sistemas Electrónicos Avanzados. Sistemas Inteligentes. Profesor Asistente.

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Published

2017-01-31

How to Cite

Sánchez-Hechavarría, Y., Mariño-Cala, M., Brito-Sauvanell, L. Ángel, & Sanabria-Macias, F. (2017). Monitoring of flank wear and damage in high-speed end milling inclined surfaces of hardened steel AISI D6. Minería & Geología, 33(1), 58–75. Retrieved from https://revista.ismm.edu.cu/index.php/revistamg/article/view/art5_No1_2017

Issue

Section

Metalurgia física