Header menu link for other important links
X
Response of detonation sprayed ceramics to abrasive working environment
Ramalingam Krishnamurthy, M. M. Mayuram
Published in
2010
Volume: 46
   
Issue: 1
Pages: 63 - 70
Abstract
Tribological contact pairs usually encounter solid-solid or solid-fluid interface experiencing thereby surface originated failures through abrasion, erosion and corrosion. To combat these modes of wear and enhance the life, surface depositions like plasma spraying and detonation spraying are being practiced. In detonation spraying the particle undergoing an interaction with combustion flame splashes with high velocity on the substrate; the resultant microstructure of the deposition is largely dependant on the particle velocity and consequent temperature. In the case of plain alumina deposition, the deposition is a layer of lenticulted splats with certain porosity However with alumina-titania composite; the deposition is relatively denser presenting a structure similar to liquid phase sintered. This can influence the tribological response of the ceramic depositions. The present study illustrates the relatively distinct response of detonation sprayed Alumina and Alumina-Titania ceramic composite.
About the journal
JournalJournal of the Australian Ceramic Society
ISSN0004881X
Open AccessNo
Concepts (20)
  •  related image
    ABRASION WEAR
  •  related image
    Aluminium oxide
  •  related image
    DETONATION SPRAYING
  •  related image
    EROSION WEAR
  •  related image
    STATIC INDENTATION
  •  related image
    AT-13
  •  related image
    Abrasion
  •  related image
    Aluminum
  •  related image
    Ceramic materials
  •  related image
    Deposition
  •  related image
    Detonation
  •  related image
    Oxides
  •  related image
    Plasma spraying
  •  related image
    Protective coatings
  •  related image
    Sintered alumina
  •  related image
    Sintering
  •  related image
    Titanium dioxide
  •  related image
    Tribology
  •  related image
    Erosion
  •  related image
    Phase interfaces