Argon in TIG Welding

In recent years, TIG welding has faced increasing competition from continuously refined MIG/MAG processes and their derived methods. Despite the slower welding speeds and lower melting power of TIG, it remains unmatched in achieving the highest quality results for many applications. Recent advancements in power supply technology offer promising future opportunities for TIG welding.

In recent years, TIG welding has faced increasing competition from continuously refined MIG/MAG processes and their derived methods. Despite the slower welding speeds and lower melting power of TIG, it remains unmatched in achieving the highest quality results for many applications. Recent advancements in power supply technology offer promising future opportunities for TIG welding.

Gas Metal Arc Welding (GMAW), commonly known as MIG welding, is a welding process where an electric arc forms between a consumable electrode and the workpiece, generating the necessary heat for welding. The electrode, continuously fed as a solid wire, melts and forms the weld metal as it is consumed. The welding area is protected from atmospheric contamination by shielding gases or gas mixtures from the welding torch, ensuring high-quality welds by preventing defects caused by even minimal air exposure.

Gas Metal Arc Welding (GMAW), commonly known as MIG welding, is a welding process where an electric arc forms between a consumable electrode and the workpiece, generating the necessary heat for welding. The electrode, continuously fed as a solid wire, melts and forms the weld metal as it is consumed. The welding area is protected from atmospheric contamination by shielding gases or gas mixtures from the welding torch, ensuring high-quality welds by preventing defects caused by even minimal air exposure.