Advanced Thermally Assisted Surface Engineering ProcessesSurfaces are the bounding faces of solids. The interaction of component surface with the working environment results in wear and corrosion. Estimated loss due to wear and corrosion in the USA is around $500 billion. Engineered surfaces are the key to the reduction of losses due to wear and corrosion. There are surface engineering books on specific processes such as thermal spraying and vapor phase deposition or about specific heat sources such as plasma or laser. However, there are few, if any, covering the whole range of advanced surface engineering processes. Advanced Thermally Assisted Surface Engineering Processes has been structured to provide assistance and guidance to the engineers, researchers and students in choosing the right process from the galaxy of newer surface engineering techniques using advanced heat sources. |
Contents
Acknowledgements | 1 |
x | 14 |
CHAPTER 2 | 49 |
5 | 95 |
References | 112 |
CHAPTER 3 | 116 |
CHAPTER 4 | 135 |
References | 146 |
References | 237 |
References | 242 |
References | 264 |
CHAPTER 14 | 271 |
CHAPTER 15 | 279 |
References | 283 |
References | 303 |
CHAPTER 19 | 311 |
CHAPTER 6 | 157 |
References | 189 |
References | 199 |
References | 216 |
References | 226 |
References | 328 |
| 359 | |
About Author | 375 |
Other editions - View all
Advanced Thermally Assisted Surface Engineering Processes Ramnarayan Chattopadhyay Limited preview - 2007 |
Advanced Thermally Assisted Surface Engineering Processes Ramnarayan Chattopadhyay No preview available - 2004 |
Advanced Thermally Assisted Surface Engineering Processes Ramnarayan Chattopadhyay No preview available - 2004 |
Common terms and phrases
abrasive adhesive alloys aluminum amorphous amorphous metal anode applications argon atomic austenitic base blades bond coat carbon carburising cathode ceramic chromium coating material combustion components composition Conf cooling rate corrosion corrosion resistance crack density deposition process diamond diffusion dilution EBPVD elements energy erosion film flame flux formation friction fused fusion glow discharge grain GTAW hardening heat source high hardness high temperature higher HVOF improved increase induction ion implantation laser beam martensite melting metal micron microstructure microwave molten nickel nitriding nitrogen normally oxidation particles physical vapor deposition plasma spray polymer pressure produce quenching range reduced solid sprayed coating sprayed deposits sputtering stainless steel Stellite structure substrate substrate surface superalloy surface engineering surface engineering processes thermal barrier coating thermal spraying thin titanium torch tungsten carbide turbine vacuum valves vapor deposition weld overlay