Abstract <p>Titania coatings have been formed by the plasma-assisted vacuum arc deposition, and their structure, phase composition, and properties have been studied in detail. It has been shown that the discharge current of the gas plasma source is a key parameter for controlling the polymorphic composition, hardness, and wear resistance of the titania coating. Titania is present in the coatings in two polymorphs, namely, rutile and anatase; their relative content depends on plasma assistance conditions. Titania coatings, regardless of the plasma assistance mode, are a nanocrystalline material with a columnar structure.</p>

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Structure and Properties of Titania Coatings Formed by the Plasma-Assisted Vacuum Arc Method

  • N. A. Prokopenko,
  • O. V. Krysina,
  • E. A. Petrikova,
  • O. S. Tolkachev,
  • N. N. Koval,
  • Yu. F. Ivanov

摘要

Abstract

Titania coatings have been formed by the plasma-assisted vacuum arc deposition, and their structure, phase composition, and properties have been studied in detail. It has been shown that the discharge current of the gas plasma source is a key parameter for controlling the polymorphic composition, hardness, and wear resistance of the titania coating. Titania is present in the coatings in two polymorphs, namely, rutile and anatase; their relative content depends on plasma assistance conditions. Titania coatings, regardless of the plasma assistance mode, are a nanocrystalline material with a columnar structure.