YUAN, Yemin ;WANG, Jintao ;CHEN, JianFeng ;YU, Yang ;XIE, YouHao ;WAMG, HuiXian ;CHEN, Yu .
Exploration of Efficiency in Multi-step Erosion by Computational Fluid Dynamics Assisted Abrasive Waterjet.
Articles in Press, [S.l.], v. 0, n.0, p. , february 2026.
ISSN 0039-2480.
Available at: <https://www.sv-jme.eu/sl/article/exploration-of-efficiency-in-multi-step-erosion-by-computational-fluid-dynamics-assisted-abrasive-waterjet/>. Date accessed: 20 apr. 2026.
doi:http://dx.doi.org/.
Yuan, Y., Wang, J., Chen, J., Yu, Y., Xie, Y., Wamg, H., & Chen, Y.
(0).
Exploration of Efficiency in Multi-step Erosion by Computational Fluid Dynamics Assisted Abrasive Waterjet.
Articles in Press, 0(0), .
doi:http://dx.doi.org/
@article{.,
author = {Yemin Yuan and Jintao Wang and JianFeng Chen and Yang Yu and YouHao Xie and HuiXian Wamg and Yu Chen},
title = {Exploration of Efficiency in Multi-step Erosion by Computational Fluid Dynamics Assisted Abrasive Waterjet},
journal = {Articles in Press},
volume = {0},
number = {0},
year = {0},
keywords = {Abrasive waterjet; CFD; Stagnation zone; Multi-step erosion; },
abstract = {Abstract：Abrasive water jet (AWJ) technology, predicated on the high-velocity mixing of air, water, and abrasive particles, is a critical technique for precision material removal. This study presents a comprehensive investigation into AWJ erosion mechanisms by integrating experimental observations with advanced Computational Fluid Dynamics (CFD) simulations. The inherent complexity of the three-phase erosion field, particularly regarding the evolution of stagnation zones at increased erosion depths, presents significant challenges for direct experimental observation. To overcome these limitations, an initial erosion channel profile obtained under controlled experimental conditions was employed as a boundary condition in CFD simulations to model the trajectory of abrasive particles accurately. The simulations facilitate the prediction of successive erosion channel profiles by elucidating the influence of stagnation zones on abrasive particle refraction during both normal and inclined multi-step erosion processes. Comparative analysis between the CFD results and experimental data confirms that stagnation zones play a pivotal role in modulating AWJ erosion energy. This work not only refines the predictive modeling of AWJ-induced erosion but also deepens the fundamental understanding of the erosion process through detailed examination of stagnation zone dynamics.},
issn = {0039-2480}, pages = {}, doi = {},
url = {https://www.sv-jme.eu/sl/article/exploration-of-efficiency-in-multi-step-erosion-by-computational-fluid-dynamics-assisted-abrasive-waterjet/}
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Yuan, Y.,Wang, J.,Chen, J.,Yu, Y.,Xie, Y.,Wamg, H.,Chen, Y.
0 February 0. Exploration of Efficiency in Multi-step Erosion by Computational Fluid Dynamics Assisted Abrasive Waterjet. Articles in Press. [Online] 0:0
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%9 Abrasive waterjet; CFD; Stagnation zone; Multi-step erosion;
%! Exploration of Efficiency in Multi-step Erosion by Computational Fluid Dynamics Assisted Abrasive Waterjet
%K Abrasive waterjet; CFD; Stagnation zone; Multi-step erosion;
%X Abstract：Abrasive water jet (AWJ) technology, predicated on the high-velocity mixing of air, water, and abrasive particles, is a critical technique for precision material removal. This study presents a comprehensive investigation into AWJ erosion mechanisms by integrating experimental observations with advanced Computational Fluid Dynamics (CFD) simulations. The inherent complexity of the three-phase erosion field, particularly regarding the evolution of stagnation zones at increased erosion depths, presents significant challenges for direct experimental observation. To overcome these limitations, an initial erosion channel profile obtained under controlled experimental conditions was employed as a boundary condition in CFD simulations to model the trajectory of abrasive particles accurately. The simulations facilitate the prediction of successive erosion channel profiles by elucidating the influence of stagnation zones on abrasive particle refraction during both normal and inclined multi-step erosion processes. Comparative analysis between the CFD results and experimental data confirms that stagnation zones play a pivotal role in modulating AWJ erosion energy. This work not only refines the predictive modeling of AWJ-induced erosion but also deepens the fundamental understanding of the erosion process through detailed examination of stagnation zone dynamics.
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%8 2026-02-24
%7 2026-02-24
Yuan, Yemin, Jintao Wang, JianFeng Chen, Yang Yu, YouHao Xie, HuiXian Wamg, & Yu Chen.
"Exploration of Efficiency in Multi-step Erosion by Computational Fluid Dynamics Assisted Abrasive Waterjet." Articles in Press [Online], 0.0 (0): . Web. 20 Apr. 2026
TY - JOUR
AU - Yuan, Yemin
AU - Wang, Jintao
AU - Chen, JianFeng
AU - Yu, Yang
AU - Xie, YouHao
AU - Wamg, HuiXian
AU - Chen, Yu
PY - 0
TI - Exploration of Efficiency in Multi-step Erosion by Computational Fluid Dynamics Assisted Abrasive Waterjet
JF - Articles in Press
DO -
KW - Abrasive waterjet; CFD; Stagnation zone; Multi-step erosion;
N2 - Abstract：Abrasive water jet (AWJ) technology, predicated on the high-velocity mixing of air, water, and abrasive particles, is a critical technique for precision material removal. This study presents a comprehensive investigation into AWJ erosion mechanisms by integrating experimental observations with advanced Computational Fluid Dynamics (CFD) simulations. The inherent complexity of the three-phase erosion field, particularly regarding the evolution of stagnation zones at increased erosion depths, presents significant challenges for direct experimental observation. To overcome these limitations, an initial erosion channel profile obtained under controlled experimental conditions was employed as a boundary condition in CFD simulations to model the trajectory of abrasive particles accurately. The simulations facilitate the prediction of successive erosion channel profiles by elucidating the influence of stagnation zones on abrasive particle refraction during both normal and inclined multi-step erosion processes. Comparative analysis between the CFD results and experimental data confirms that stagnation zones play a pivotal role in modulating AWJ erosion energy. This work not only refines the predictive modeling of AWJ-induced erosion but also deepens the fundamental understanding of the erosion process through detailed examination of stagnation zone dynamics.
UR - https://www.sv-jme.eu/sl/article/exploration-of-efficiency-in-multi-step-erosion-by-computational-fluid-dynamics-assisted-abrasive-waterjet/
@article{{}{.},
author = {Yuan, Y., Wang, J., Chen, J., Yu, Y., Xie, Y., Wamg, H., Chen, Y.},
title = {Exploration of Efficiency in Multi-step Erosion by Computational Fluid Dynamics Assisted Abrasive Waterjet},
journal = {Articles in Press},
volume = {0},
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TY - JOUR
AU - Yuan, Yemin
AU - Wang, Jintao
AU - Chen, JianFeng
AU - Yu, Yang
AU - Xie, YouHao
AU - Wamg, HuiXian
AU - Chen, Yu
PY - 2026/02/24
TI - Exploration of Efficiency in Multi-step Erosion by Computational Fluid Dynamics Assisted Abrasive Waterjet
JF - Articles in Press; Vol 0, No 0 (0): Articles in Press
DO -
KW - Abrasive waterjet, CFD, Stagnation zone, Multi-step erosion,
N2 - Abstract：Abrasive water jet (AWJ) technology, predicated on the high-velocity mixing of air, water, and abrasive particles, is a critical technique for precision material removal. This study presents a comprehensive investigation into AWJ erosion mechanisms by integrating experimental observations with advanced Computational Fluid Dynamics (CFD) simulations. The inherent complexity of the three-phase erosion field, particularly regarding the evolution of stagnation zones at increased erosion depths, presents significant challenges for direct experimental observation. To overcome these limitations, an initial erosion channel profile obtained under controlled experimental conditions was employed as a boundary condition in CFD simulations to model the trajectory of abrasive particles accurately. The simulations facilitate the prediction of successive erosion channel profiles by elucidating the influence of stagnation zones on abrasive particle refraction during both normal and inclined multi-step erosion processes. Comparative analysis between the CFD results and experimental data confirms that stagnation zones play a pivotal role in modulating AWJ erosion energy. This work not only refines the predictive modeling of AWJ-induced erosion but also deepens the fundamental understanding of the erosion process through detailed examination of stagnation zone dynamics.
UR - https://www.sv-jme.eu/sl/article/exploration-of-efficiency-in-multi-step-erosion-by-computational-fluid-dynamics-assisted-abrasive-waterjet/
Yuan, Yemin, Wang, Jintao, Chen, JianFeng, Yu, Yang, Xie, YouHao, Wamg, HuiXian, AND Chen, Yu.
"Exploration of Efficiency in Multi-step Erosion by Computational Fluid Dynamics Assisted Abrasive Waterjet" Articles in Press [Online], Volume 0 Number 0 (24 February 2026)
