Modeling of Single-Particle Impact in Abrasive Water Jet Machining
This work presents a study on the abrasive water jet
(AWJ) machining. An explicit finite element analysis (FEA) of
single abrasive particle impact on stainless steel 1.4304 (AISI 304) is
conducted. The abrasive water jet machining is modeled by FEA
software ABAQUS/CAE. Shapes of craters in FEM simulation
results were used and compared with the previous experimental and
FEM works by means of crater sphericity. The influence of impact
angle and particle velocity was observed. Adaptive mesh domain is
used to model the impact zone. Results are in good agreement with
those obtained from the experimental and FEM simulation. The
crater-s depth is also obtained for different impact angle and abrasive
particle velocities.
[1] A. A. Khan, M. M. Haque, "Performance of different abrasive materials
during abrasive water jet machining of glass", Journal of materials
processing technology 191 (2007) 404-407.
[2] M. Junkar, B. Jurisevic, M. Fajdiga, M. Grah, "Finite element analysis of
single-particle impact in abrasive water jet machining", International
Journal of Impact Engineering 32 (2006) 1095-1112.
[3] Orbanic H, Junkar M. "Cellular automata in mechanical engineering".
In: Junkar M, Levy PR, editors. Proceedings of the sixth international
conference on management of innovative technologies. Piran, Slovenia:
LAT, TAVO; 2003. p. 139-47.
[4] Lebar A, Junkar M. "Simulation of abrasive waterjet machining based
on unit event features". Proc Inst Mech Eng BJ Eng Manuf 2003;
217(B5):699-703.
[5] Henning A, Westkamper E. "Modeling of wear mechanisms at the
abrasive waterjet cutting front". In: Summers DA, editor. Proceedings of
the 2003 WJTA American waterjet conference. Houston, TX, USA:
WJTA; 2003. Paper 3-A.
[6] Vikram G, Ramesh Babu N. "Modelling and analysis of abrasive water
jet cut surface topography". Int J Mach Tools Manuf 2002; 42:1345-54.
[7] Momber AW, Kovacevic R. "Principles of abrasive water jet
machining". Berlin: Springer; 1998.
[8] Guo Z, Ramulu M, Jenkins MG. "Analysis of the waterjet
contact/impact on target material". Opt Lasers Eng 2000; 33:121-39.
[9] Hassan AI, Kosmol J. "Finite element modeling of abrasive water-jet
machining (AWJM)". In: Ciccu R, editor. 15th international conference
on jetting technology. Ronneby (Sweden): BHR Group Limited; 2000. p.
321-33.
[10] Molinari JF, Ortiz M. "A study of solid-particle erosion of metallic
targets". Int J Impact Eng 2002; 27:347-58.
[11] Abaqus Version 6.4 Documentation.
[12] S. Lee, F. Barthelat , J.W. Hutchinson , H.D. Espinosa , "Dynamic
failure of metallic pyramidal truss core materials - Experiments and
modeling". International Journal of Plasticity 22 (2006) 2118-2145.
[1] A. A. Khan, M. M. Haque, "Performance of different abrasive materials
during abrasive water jet machining of glass", Journal of materials
processing technology 191 (2007) 404-407.
[2] M. Junkar, B. Jurisevic, M. Fajdiga, M. Grah, "Finite element analysis of
single-particle impact in abrasive water jet machining", International
Journal of Impact Engineering 32 (2006) 1095-1112.
[3] Orbanic H, Junkar M. "Cellular automata in mechanical engineering".
In: Junkar M, Levy PR, editors. Proceedings of the sixth international
conference on management of innovative technologies. Piran, Slovenia:
LAT, TAVO; 2003. p. 139-47.
[4] Lebar A, Junkar M. "Simulation of abrasive waterjet machining based
on unit event features". Proc Inst Mech Eng BJ Eng Manuf 2003;
217(B5):699-703.
[5] Henning A, Westkamper E. "Modeling of wear mechanisms at the
abrasive waterjet cutting front". In: Summers DA, editor. Proceedings of
the 2003 WJTA American waterjet conference. Houston, TX, USA:
WJTA; 2003. Paper 3-A.
[6] Vikram G, Ramesh Babu N. "Modelling and analysis of abrasive water
jet cut surface topography". Int J Mach Tools Manuf 2002; 42:1345-54.
[7] Momber AW, Kovacevic R. "Principles of abrasive water jet
machining". Berlin: Springer; 1998.
[8] Guo Z, Ramulu M, Jenkins MG. "Analysis of the waterjet
contact/impact on target material". Opt Lasers Eng 2000; 33:121-39.
[9] Hassan AI, Kosmol J. "Finite element modeling of abrasive water-jet
machining (AWJM)". In: Ciccu R, editor. 15th international conference
on jetting technology. Ronneby (Sweden): BHR Group Limited; 2000. p.
321-33.
[10] Molinari JF, Ortiz M. "A study of solid-particle erosion of metallic
targets". Int J Impact Eng 2002; 27:347-58.
[11] Abaqus Version 6.4 Documentation.
[12] S. Lee, F. Barthelat , J.W. Hutchinson , H.D. Espinosa , "Dynamic
failure of metallic pyramidal truss core materials - Experiments and
modeling". International Journal of Plasticity 22 (2006) 2118-2145.
@article{"International Journal of Mechanical, Industrial and Aerospace Sciences:61971", author = "S. Y. Ahmadi-Brooghani and H. Hassanzadeh and P. Kahhal", title = "Modeling of Single-Particle Impact in Abrasive Water Jet Machining", abstract = "This work presents a study on the abrasive water jet
(AWJ) machining. An explicit finite element analysis (FEA) of
single abrasive particle impact on stainless steel 1.4304 (AISI 304) is
conducted. The abrasive water jet machining is modeled by FEA
software ABAQUS/CAE. Shapes of craters in FEM simulation
results were used and compared with the previous experimental and
FEM works by means of crater sphericity. The influence of impact
angle and particle velocity was observed. Adaptive mesh domain is
used to model the impact zone. Results are in good agreement with
those obtained from the experimental and FEM simulation. The
crater-s depth is also obtained for different impact angle and abrasive
particle velocities.", keywords = "Abrasive water jet machining, Adaptive meshcontrol, Explicit finite elements analysis, Single-particle impact.", volume = "1", number = "12", pages = "764-6", }