TWI


(2014, May). Numerical and experimental analysis of heat flux and residual stress of the friction welding process of ASTM A36 steel pipe and API flange. 10th International Symposium.
. "Numerical and experimental analysis of heat flux and residual stress of the friction welding process of ASTM A36 steel pipe and API flange". 10th International Symposium (May.2014).
. "Numerical and experimental analysis of heat flux and residual stress of the friction welding process of ASTM A36 steel pipe and API flange". 10th International Symposium (May.2014).
. Numerical and experimental analysis of heat flux and residual stress of the friction welding process of ASTM A36 steel pipe and API flange. 10th International Symposium. 2014 May; .
2014, 'Numerical and experimental analysis of heat flux and residual stress of the friction welding process of ASTM A36 steel pipe and API flange', 10th International Symposium. Available from: https://www.twi-global.com/technical-knowledge/fsw-symposium-papers/FSWSymposia-201405-Poster13.pdf.
. Numerical and experimental analysis of heat flux and residual stress of the friction welding process of ASTM A36 steel pipe and API flange. 10th International Symposium. 2014;. https://www.twi-global.com/technical-knowledge/fsw-symposium-papers/FSWSymposia-201405-Poster13.pdf.
. Numerical and experimental analysis of heat flux and residual stress of the friction welding process of ASTM A36 steel pipe and API flange. 10th International Symposium. 2014 May;. https://www.twi-global.com/technical-knowledge/fsw-symposium-papers/FSWSymposia-201405-Poster13.pdf.

Numerical and experimental analysis of heat flux and residual stress of the friction welding process of ASTM A36 steel pipe and API flange

10th International Symposium
May 2014

Repository

Description

Numerical modelling and experimental measurements were undertaken to investigate the heat flux and residual stresses during a rotary friction welding process to fabricate joints between an ASTM A36 steel pipe (0.11%C, 0.2%Si, 0.92%Mn, 0.02%Cr, 0.02%Nb, 0.03%Al) and an API 6A flange. Welding experiments were conducted at a rotational speed of 500 rpm, friction force of 70 kN and forging force of 95 kN. The temperature distribution was measured by thermocouples and residual stresses were determined by X-ray diffraction. The numerical model was developed by adopting a coupled temperature-displacement procedure to solve the displacement and temperature fields simultaneously and a Johnson-Cook constitutive material model.

10th International Symposium, 20-22 May 2014, Poster Session, Paper 13

Show Full Abstract Collapse Abstract

Related Records

Loading...