Tribological and Corrosion Behavior of HVOF-Sprayed WC-Co-Based Composite Coatings in Simulated Mine Water Environments

Keyphrases

• Water Environment 100%
• Corrosion Behavior 100%
• Tribological Behavior 100%
• WC-Co 100%
• Simulated Mine Water 100%
• Co-based Composite Coating 100%
• High Velocity Oxygen Fuel 100%
• Wear Resistance 66%
• Wet Sliding 66%
• WC-Co Cermet 66%
• Elemental Analysis 33%
• Oxides 33%
• Chemical Composition 33%
• Electron Energy 33%
• Energy Dispersive X-ray Spectroscopy 33%
• Chromium Oxide 33%
• Structure Composition 33%
• Engineering Application 33%
• Optical Microscopy 33%
• Composite Coating 33%
• Morphological Structure 33%
• Mine Environment 33%
• Binder 33%
• Mine Water 33%
• As-received 33%
• Corrosion Resistance 33%
• Wear Behavior 33%
• Stainless Steel Substrate 33%
• Corrosion Testing 33%
• Corrosive Wear 33%
• WC-based Composites 33%
• Improved Surface Properties 33%
• Passive Film 33%
• Austenitic Stainless Steel 33%
• Wear Studies 33%
• Corrosive Behavior 33%
• Powder Coating 33%
• Binder Material 33%
• Anodic Polarization 33%
• Coating Composition 33%
• WC-10Co-4Cr 33%
• Coating Morphology 33%
• Superior Hardness 33%
• Hard Chrome Plating 33%
• Coating Structure 33%
• Scanning Electron Microscopy (SEM-EDS) 33%
• High-temperature Wear Resistance 33%
• Potentiodynamic Scan 33%
• Oxyfuel Technology 33%

Material Science

• Corrosion 100%
• Wear Resistance 100%
• Composite Coating 100%
• Cermet 66%
• Scanning Electron Microscopy 33%
• Plating 33%
• Energy-Dispersive X-Ray Spectroscopy 33%
• Elemental Analysis 33%
• Structure (Composition) 33%
• Surface Property 33%
• Corrosion Resistance 33%
• Corrosion Monitoring 33%
• Austenitic Stainless Steel 33%
• Passive Film 33%
• Powder Coating 33%
• Oxide Compound 33%
• Steel Substrate 33%