We have analyzed the 304 stainless steel (SS)–(Ag–Cu–Ti)–alumina brazed interface using scanning electron microscopy, electron probe microanalysis and nanoindentation. The SS interface exhibits increased bond strength and a larger diffusion zone compared to the alumina interface. In order to explain the nature of variation in hardness, we have fitted a second-degree Hermite polynomial-based model to the experimental observations of the nanoindentation results, across the reaction product zone of both interfaces
Hot-Dip-Aluminizing, is a versatile technique for protection of iron and steel from harsh environmen...
This paper studies surface effects on the depth-dependent hardness and proposes a novel method to es...
Stainless Steel Dissimilar Metal Welds (SS DMW) between low-alloy steel 18MND5 and austenitic 316L s...
The mechanical performance of Glass-to-Metal seals is largely dependent upon the morphology of the o...
Polycrystalline alumina and stainless steel were brazed at 900, 1000 and 1100 °C. Microstructural an...
A recent experiment of layered stainless steel with nanostructured interface has suggested that a br...
Microcracks initiated and propagated behaviors in Al/steel interface determined interfacial bonding ...
AbstractIn this study, commercial pure titanium was hot roll bonded with ferritic stainless steel (S...
The results of nanohardness measurements at a film surface and film-substrate interface are presente...
The notion of “interface” is a universal topic of research in material sciences. Interfaces are resp...
AbstractThe hardness of grain boundaries with or without twinning boundaries have impact on mechanic...
Microstructural evolution and interfacial reactions during active metal vacuum brazing of Ti (grade-...
International audienceGrit blasting with alumina particles offers a conventional substrate surface p...
The effects of substrate polarisation in a nitrided 316L stainless steel have been investigated in a...
The presence of interfaces with nanoscale spacing significantly enhances the strength of materials, ...
Hot-Dip-Aluminizing, is a versatile technique for protection of iron and steel from harsh environmen...
This paper studies surface effects on the depth-dependent hardness and proposes a novel method to es...
Stainless Steel Dissimilar Metal Welds (SS DMW) between low-alloy steel 18MND5 and austenitic 316L s...
The mechanical performance of Glass-to-Metal seals is largely dependent upon the morphology of the o...
Polycrystalline alumina and stainless steel were brazed at 900, 1000 and 1100 °C. Microstructural an...
A recent experiment of layered stainless steel with nanostructured interface has suggested that a br...
Microcracks initiated and propagated behaviors in Al/steel interface determined interfacial bonding ...
AbstractIn this study, commercial pure titanium was hot roll bonded with ferritic stainless steel (S...
The results of nanohardness measurements at a film surface and film-substrate interface are presente...
The notion of “interface” is a universal topic of research in material sciences. Interfaces are resp...
AbstractThe hardness of grain boundaries with or without twinning boundaries have impact on mechanic...
Microstructural evolution and interfacial reactions during active metal vacuum brazing of Ti (grade-...
International audienceGrit blasting with alumina particles offers a conventional substrate surface p...
The effects of substrate polarisation in a nitrided 316L stainless steel have been investigated in a...
The presence of interfaces with nanoscale spacing significantly enhances the strength of materials, ...
Hot-Dip-Aluminizing, is a versatile technique for protection of iron and steel from harsh environmen...
This paper studies surface effects on the depth-dependent hardness and proposes a novel method to es...
Stainless Steel Dissimilar Metal Welds (SS DMW) between low-alloy steel 18MND5 and austenitic 316L s...