Presents the numerical results obtained from the finite element analyses of the superplastic forming (SPF) of Al–Ti alloys. The models are used to optimise the process and predict forming times in terms of deformed shapes, stress–strain distributions and thickness evolution across the facets of fully formed surfaces. Unlike earlier studies that have used membrane elements, this is an exercise using shell elements in an attempt to estimate stresses, slip planes and variation of friction coefficients during the forming process. The simulations were validated using previously reported experimental results. The constitutive modelling was based on the elastic–viscoplastic material properties, taking into account the viscous flow parameters of th...
For many superplastically formed components, only some regions undergo superplastic deformation. In ...
This paper provides an analytical solution to the real industrial problem of the superplastic formin...
Superplasticity is the ability of some materials to sustain very high value of strain (up to 2000%) ...
Presents the numerical results obtained from the finite element analyses of the superplastic forming...
Superplastic forming (SPF) is a material forming technique that uses superplastic exceptional elonga...
In recent years, there is a considerable interest in the application of superplastic forming for the...
Superplastic forming (SPF) is a near net-shape forming process which offers many advantages over con...
Superplastic forming (SPF) has been a widely used technology in the aerospace and automotive industr...
Super plastic forming (SPF) is a manufacturing process whereby certain materials under the correct c...
A theoretical and experimental analysis was carried out, after superplastic forming, of Al-Ti-V-base...
Superplastic forming (SPF) is considered to be a near net shape manufacturing technique, mainly adop...
Super Plastic Forming is the process of undergoing large uniform elongation prior to necking and fra...
A theoretical and experimental analysis was carried out, after superplastic forming, of Al-Ti-V-base...
The application of the superplasticity of metals has become an industrial reality in the aerospace i...
The utility of finite element modeling in optimizing superplastic metal forming is dependent on accu...
For many superplastically formed components, only some regions undergo superplastic deformation. In ...
This paper provides an analytical solution to the real industrial problem of the superplastic formin...
Superplasticity is the ability of some materials to sustain very high value of strain (up to 2000%) ...
Presents the numerical results obtained from the finite element analyses of the superplastic forming...
Superplastic forming (SPF) is a material forming technique that uses superplastic exceptional elonga...
In recent years, there is a considerable interest in the application of superplastic forming for the...
Superplastic forming (SPF) is a near net-shape forming process which offers many advantages over con...
Superplastic forming (SPF) has been a widely used technology in the aerospace and automotive industr...
Super plastic forming (SPF) is a manufacturing process whereby certain materials under the correct c...
A theoretical and experimental analysis was carried out, after superplastic forming, of Al-Ti-V-base...
Superplastic forming (SPF) is considered to be a near net shape manufacturing technique, mainly adop...
Super Plastic Forming is the process of undergoing large uniform elongation prior to necking and fra...
A theoretical and experimental analysis was carried out, after superplastic forming, of Al-Ti-V-base...
The application of the superplasticity of metals has become an industrial reality in the aerospace i...
The utility of finite element modeling in optimizing superplastic metal forming is dependent on accu...
For many superplastically formed components, only some regions undergo superplastic deformation. In ...
This paper provides an analytical solution to the real industrial problem of the superplastic formin...
Superplasticity is the ability of some materials to sustain very high value of strain (up to 2000%) ...