Research Article
Synthesis and Performance Evaluation of Pulse Electrodeposited Ni-AlN Nanocomposite Coatings
Table 3
Hardness of the previously reported nickel based composite coatings.
| Constituents | Content of particles | Hardness | Method | Application | Reference |
| Ni-WC | vol% | HV | Cold spray | Wear protection | Alidokht et al. [12] | Ni-TiO2 | 1 g/L | 9.98–12.06 GPa | Electrodeposition | Corrosion | Birlik et al. [13] | Ni-TiN | 10–30 g/L | 3.23 GPa | Electrodeposition | Corrosion | Parhizkar et al. [14] | Ni-CeO2 | 30 g/L | 436 HV | Electrodeposition | Corrosion | Zeng et al. [15] | Ni-Si3N4 | 12 g/L | 720 HV | Electrodeposition | Corrosion | Kasturibai and Kalaignan [16] | Ni-SiO2 | 5–45 g/L | 800–850 HV | Electrodeposition | Wear protection | Li et al. [17] | Ni-ZrO2 | 3.37 wt.% | 462 HV | Electrodeposition PRC plating | Wear protection | Wang et al. [18] | Ni-Al2O3 | 30 g/L | 426 HV | Electrodeposition | Wear protection | Jeyaraj et al. [19] | Ni-SiC | 0.8–0.15 wt.% | 247–270 HV | Thermal spray | Wear protection | Lanzutti et al. [20] | Ni-graphene | 0.1–0.4 g/L | ~207–224 HV | Electrodeposition | Wear protection | Chen et al. [21] |
|
|