Titanium (Ti) and its alloys are frequently utilized as critical components in a variety of
engineering applications because of their high specific strength and excellent corrosion …

The laser shock peening (LSP) process using a Q-switched pulsed laser beam for surface
modification has been reviewed. The development of the LSP technique and its numerous …

Surface modification methods have been applied to metals and alloys to change the surface
integrity, obtain superior mechanical properties, and improve service life irrespective of the …

In this study, the influences of heat treatment (HT) in combination with subsequent laser
shock peening (LSP) on the strength-toughness and isotropy of laser powder bed fused …

Fatigue is a dominant failure mechanism of several engineering components. One
technique for increasing the fatigue life is by inducing surface residual stress to inhibit crack …

Laser shock peening (LSP) is a post-treatment process that is widely used to modify the
surface microstructure and mechanical properties of parts constructed by additive …

Laser shock peening (LSP) is an innovative surface treatment technique, and can
significantly improve the fatigue performance of metallic components. In this paper, the …

Combined manufacturing of direct energy deposition (DED) and laser shock peening (LSP)
exhibits great potentials in repairing titanium alloy components and improving their …

Stress corrosion cracking (SCC) of welded joint is one of the salient problems influencing
the safety of nuclear power structure. In this work, laser shock peening (LSP) was introduced …

In the present study, laser beam welding of commercially pure titanium has been carried out
at different scan speeds in the range from 2.4 m/min to 4 m/min at 2.15 kW laser power and …