Evaluation of Membrane-Stabilizing and Clot-Lysing Activities of the Chloroform Fraction of Curcuma wallichii Rhizomes: An in vitro Model With Molecular Docking

Hossain, Md. Sabbir

doi:10.1177/1934578X261443392

The role of chemical composition in governing heat transfer and oxidation dynamics during laser-flame hybrid cutting of high-thickness steel plates

2026-04-13

0

PRE

AI

G

Gaofeng Xu

B

Beibei Zhu *

L

Li Meng

K

Kaiwen Wei

X

Xiaoyan Zeng

DOI：10.1016/j.jmatprotec.2026.119321

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• The processing capacity of laser-flame hybrid cutting (LFHC) technology for high alloy steel is significantly enhanced by the interaction of hybrid energy fields. • Alloying elements (Cr, Mo) form a dense, highly viscous oxide layer that hinders the oxygen-iron exothermic reaction, defining the material applicability boundary of LFHC. • The coupled effects of thermal conductivity and hardenability govern the heat transfer and microstructure evolution in heat-affected zone. • The oxidation mechanism in LFHC evolves from iron-dominated to Cr/Mo-involved hybrid oxidation with increasing alloy content.

Keywords:

laser-flame hybrid cutting

high alloy steel

oxidation mechanism

heat transfer

microstructure evolution

The role of chemical composition in governing heat transfer and oxidation dynamics during laser-flame hybrid cutting of high-thickness steel plates

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