TY - JOUR
T1 - Evaluation of the wear energy consumption of nitrogenated diamond-like carbon against alumina
AU - Yamamoto, Shuji
AU - Egashira, Mitsuru
AU - Kondoh, Katsuyoshi
AU - Masuda, Chitoshi
PY - 2014
Y1 - 2014
N2 - The wear energy consumption of nitrogenated diamond-like carbon (NDLC) in the tribo-test against alumina was evaluated. The energy input induced by the power source of the tribometer is applied to the contact area of two sliding bodies. The energy is dissipated into the two bodies with various transforming energies, such as (1) wear energy, (2) friction heat, (3) strain energy, (4) plastic deformation energy, and (5) chemical reaction energy used to form the tribo-layer. Determining the breakdown of the energy consumption into each mode is notably important for the investigation of the tribological mechanism. The surface fracture energy of NDLCs was evaluated by the micro-indentation method. The newly created surface area was estimated using the wear particles size distribution measured by image processing. The consumed wear energy was obtained by the surface fracture energy multiplied by the new created surface area corresponding to the generation of the wear particles in the tribo-test. The index numbers of the wear consumption energy/energy input ratio of the NDLCs were almost the same as those of their wear coefficients.
AB - The wear energy consumption of nitrogenated diamond-like carbon (NDLC) in the tribo-test against alumina was evaluated. The energy input induced by the power source of the tribometer is applied to the contact area of two sliding bodies. The energy is dissipated into the two bodies with various transforming energies, such as (1) wear energy, (2) friction heat, (3) strain energy, (4) plastic deformation energy, and (5) chemical reaction energy used to form the tribo-layer. Determining the breakdown of the energy consumption into each mode is notably important for the investigation of the tribological mechanism. The surface fracture energy of NDLCs was evaluated by the micro-indentation method. The newly created surface area was estimated using the wear particles size distribution measured by image processing. The consumed wear energy was obtained by the surface fracture energy multiplied by the new created surface area corresponding to the generation of the wear particles in the tribo-test. The index numbers of the wear consumption energy/energy input ratio of the NDLCs were almost the same as those of their wear coefficients.
KW - Nitrogenated diamond-like carbon
KW - Surface fracture energy
KW - Wear energy consumption
KW - Wear particle size distribution
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U2 - 10.1007/s11249-014-0357-5
DO - 10.1007/s11249-014-0357-5
M3 - Article
AN - SCOPUS:84904729338
VL - 55
SP - 279
EP - 288
JO - Tribology Letters
JF - Tribology Letters
SN - 1023-8883
IS - 2
ER -