In previous work, we have established a scheme that exploits a three-dimensional heat and mass flow model to assess tool durability and define the domains of satisfactory tool life in the context of welding difficult aluminium alloys. We now apply this scheme to the friction stir welding of steel and extend the calculations to cover consequences on the microstructure of the steel while optimising tool life. This is the first published model that covers both the processing parameters and the consequences on the physical metallurgy of the steel
Friction Stir V/elding (FSW) is a relatively new welding process, having being patented in 1991 by T...
The temperature fields, cooling rates, torque on the tool, stir zone geometry, and the magnesium con...
Interactions between the rotating and advancing pin-shaped tool (terminated at one end with a circul...
In previous work, we have established a scheme that exploits a three-dimensional heat and mass flow ...
Friction stir welding of steel presents an array of advantages across many industrial sectors compar...
Since its introduction in the industry, the amount of structures being joined by friction stir weldi...
The main objective of this work is the development of a novel integrated multiphysics modeling, test...
Simple process models are applied to predict microstructural changes due to the thermal cycle impose...
Compared to most thermomechanical processing methods, friction stir welding (FSW) is a recent techni...
A coupled theoretical and experimental study was undertaken to examine the impact of plate thickness...
In friction stir welding (FSW), the welding tool geometry plays a fundamental role in obtaining desi...
This work studies the metallurgical and microstructural aspects of Friction Stir Welding (FSW) in te...
In the friction stir welding process, the rotating surfaces of the pin and shoulder contact the weld...
This work studies the metallurgical and microstructural aspects of Friction Stir Welding (FSW) in te...
In friction stir welding (FSW), assemblies are joined by means of practising, shearing and stirring ...
Friction Stir V/elding (FSW) is a relatively new welding process, having being patented in 1991 by T...
The temperature fields, cooling rates, torque on the tool, stir zone geometry, and the magnesium con...
Interactions between the rotating and advancing pin-shaped tool (terminated at one end with a circul...
In previous work, we have established a scheme that exploits a three-dimensional heat and mass flow ...
Friction stir welding of steel presents an array of advantages across many industrial sectors compar...
Since its introduction in the industry, the amount of structures being joined by friction stir weldi...
The main objective of this work is the development of a novel integrated multiphysics modeling, test...
Simple process models are applied to predict microstructural changes due to the thermal cycle impose...
Compared to most thermomechanical processing methods, friction stir welding (FSW) is a recent techni...
A coupled theoretical and experimental study was undertaken to examine the impact of plate thickness...
In friction stir welding (FSW), the welding tool geometry plays a fundamental role in obtaining desi...
This work studies the metallurgical and microstructural aspects of Friction Stir Welding (FSW) in te...
In the friction stir welding process, the rotating surfaces of the pin and shoulder contact the weld...
This work studies the metallurgical and microstructural aspects of Friction Stir Welding (FSW) in te...
In friction stir welding (FSW), assemblies are joined by means of practising, shearing and stirring ...
Friction Stir V/elding (FSW) is a relatively new welding process, having being patented in 1991 by T...
The temperature fields, cooling rates, torque on the tool, stir zone geometry, and the magnesium con...
Interactions between the rotating and advancing pin-shaped tool (terminated at one end with a circul...