Tool behavior at alternating thermo-mechanical loads during milling of compounds out of aluminum and spheroidal cast iron

Research output: Contribution to journalArticleResearchpeer review

Authors

  • B. Denkena
  • D. Boehnke
  • P. Dziewiecki
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Details

Original languageEnglish
Pages (from-to)351-356
Number of pages6
JournalProduction Engineering
Volume2
Issue number4
Early online date21 Aug 2008
Publication statusPublished - Dec 2008

Abstract

The mass of high-performance components can be reduced by the use of materials with a high ultimate strength. However, due to increasing demands on the performance of such components this design strategy reaches its limits, especially if certain parts of the components demand special physical properties. Therefore, in a load-dependent strategy hybrid components out of compounds are used. Through this, suitable materials are placed in the highly loaded component areas. This contribution presents results of experimental investigations of the tool behavior when milling compounds. The focus is on tool wear during face slab milling of a compound out of an aluminum alloy and a spheroidal cast iron. In order to distinguish between the thermal and mechanical influences on the tool wear, different material combinations are used. The influence of tensile strength is studied during the milling of materials with the same heat conductivity (GJS400/GJS600), while the influence of the heat conductivity is examined with materials with comparable tensile strengths (AW2030/GJS400).

Keywords

    Milling of compounds, Thermo-mechanical analysis, Tool wear

ASJC Scopus subject areas

Cite this

Tool behavior at alternating thermo-mechanical loads during milling of compounds out of aluminum and spheroidal cast iron. / Denkena, B.; Boehnke, D.; Dziewiecki, P.
In: Production Engineering, Vol. 2, No. 4, 12.2008, p. 351-356.

Research output: Contribution to journalArticleResearchpeer review

Denkena B, Boehnke D, Dziewiecki P. Tool behavior at alternating thermo-mechanical loads during milling of compounds out of aluminum and spheroidal cast iron. Production Engineering. 2008 Dec;2(4):351-356. Epub 2008 Aug 21. doi: 10.1007/s11740-008-0124-2
Denkena, B. ; Boehnke, D. ; Dziewiecki, P. / Tool behavior at alternating thermo-mechanical loads during milling of compounds out of aluminum and spheroidal cast iron. In: Production Engineering. 2008 ; Vol. 2, No. 4. pp. 351-356.
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abstract = "The mass of high-performance components can be reduced by the use of materials with a high ultimate strength. However, due to increasing demands on the performance of such components this design strategy reaches its limits, especially if certain parts of the components demand special physical properties. Therefore, in a load-dependent strategy hybrid components out of compounds are used. Through this, suitable materials are placed in the highly loaded component areas. This contribution presents results of experimental investigations of the tool behavior when milling compounds. The focus is on tool wear during face slab milling of a compound out of an aluminum alloy and a spheroidal cast iron. In order to distinguish between the thermal and mechanical influences on the tool wear, different material combinations are used. The influence of tensile strength is studied during the milling of materials with the same heat conductivity (GJS400/GJS600), while the influence of the heat conductivity is examined with materials with comparable tensile strengths (AW2030/GJS400).",
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AU - Dziewiecki, P.

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AB - The mass of high-performance components can be reduced by the use of materials with a high ultimate strength. However, due to increasing demands on the performance of such components this design strategy reaches its limits, especially if certain parts of the components demand special physical properties. Therefore, in a load-dependent strategy hybrid components out of compounds are used. Through this, suitable materials are placed in the highly loaded component areas. This contribution presents results of experimental investigations of the tool behavior when milling compounds. The focus is on tool wear during face slab milling of a compound out of an aluminum alloy and a spheroidal cast iron. In order to distinguish between the thermal and mechanical influences on the tool wear, different material combinations are used. The influence of tensile strength is studied during the milling of materials with the same heat conductivity (GJS400/GJS600), while the influence of the heat conductivity is examined with materials with comparable tensile strengths (AW2030/GJS400).

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