Numerical Study on Laser Cladding of BT20 Alloy

Qing Ming Chang; Jing Yuan; Yin Kai Yang; Xia Chen; Chang Jun Chen; Si Qian Bao

doi:10.4028/www.scientific.net/AMR.479-481.850

Paper Titles

Synthetic Process Research and Development of Resveratrol
p.833

Optimum Design of Kitchen Garbage Truck Lifting Mechanism Based on Virtual Prototype
p.837

Numerical Analysis of a Slope Stabilized with Anchors
p.841

Research on Optimization Method for Reuse Degree of Loader Bucket Module-Base
p.845

Numerical Study on Laser Cladding of BT20 Alloy
p.850

Probe Into the Scheme of the Structural Design of Stereoscopic Garage
p.857

Study on Teaching Method Reform of the Professional Course in Applied Undergraduate Colleges - Take Automobile Marketing Major as an Illustration
p.861

A Self-Adaptively Loading Mechanism for Planetary Cylindrical Roller Traction Drives
p.865

Checking Existence of Tolerance Solutions of Interval Linear Equations via Mixed Integer Programming
p.872

HomeAdvanced Materials ResearchAdvanced Materials Research Vols. 479-481Numerical Study on Laser Cladding of BT20 Alloy

Numerical Study on Laser Cladding of BT20 Alloy

Abstract:

A 3-D modeling based on the numerical resolution of fluid flow and heat transfer are utilized to investigate the thermal phenomena during laser laser-cladding processes of BT20 alloy. From this model, it has been found that the shape and size of the molten pool in the work piece are affected by laser cladding parameters such as scanning speed and the incident laser power. The effects of process parameters on the melt pool are quantitatively discussed by numerical analysis. Furthermore, it has been observed that the surface tension temperature coefficient, Marangoni convection, which is sensitive to the active elements in the titanium alloy composition, also affect the pattern of the fluid flow in the molten pool.