• Media type: Text; E-Article
  • Title: Material removal and chip formation mechanisms of UHC-steel during grinding
  • Contributor: Denkena, Berend [Author]; Grove, Thilo [Author]; Göttsching, Tim [Author]
  • Published: London : Springer, 2017
  • Published in: International Journal of Advanced Manufacturing Technology 92 (2017), Nr. 5-8
  • Issue: accepted Version
  • Language: English
  • DOI: https://doi.org/10.15488/1262; https://doi.org/10.1007/s00170-017-0270-9
  • ISSN: 0268-3768
  • Keywords: Alloy steel ; Ultrahigh carbon steel ; Wear of materials ; Material removal mechanisms ; Carbide cutting tools ; Manufacturing process ; Carbides ; Chip formation ; Chip formation mechanism ; UHC-steel ; Carbon steel ; Powertrain components ; Automotive component ; Carbon ; Grinding (machining) ; Difficult-to-cut materials ; Cutting ; Grinding ; Cutting tools
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  • Description: The grinding process is still an important manufacturing process for the machining of automotive components. For power train components, ultra-high carbon steel (UHC-steel) is a promising new innovative alloy because of its low specific density. Results from turning of UHC-steel showed that the texture of UHC-steel significantly differs from conventional steels. Furthermore, extremely hard carbides, which are embedded into a soft ferrite matrix, result in a UHC-steel specific machining behavior and a high tool wear rate. Therefore, UHC-steel is marked as a difficult-to-cut material. So far, there are no research results available for the grinding of UHC-steel. Therefore, fundamental investigations were conducted in order to analyze the material removal and chip formation mechanisms. Scratching tests with a geometrically defined cubic boron nitride cutting edge showed ductile material removal mechanisms for a single grain chip thickness variation from hcu = 1.5 up to 14 μm. Analysis of the contact zone by means of an innovative quick stop device confirms these results. The final publication is available at Springer via http://dx.doi.org/10.1007/s00170-017-0270-9 ; BMBF/02PN2050
  • Access State: Open Access