TY - JOUR
T1 - Optimization of AWJ parameters for improved material removal and hole geometry in drilling of Glass Fiber/Aluminum mesh epoxy hybrid composites
AU - Seif, Amr
AU - Fathy, A.
AU - El Aal, Mohamed Ibrahim Abd
AU - Megahed, A. A.
N1 - Publisher Copyright:
© 2024 Society of Plastics Engineers.
PY - 2024/5/10
Y1 - 2024/5/10
N2 - This study explores the application of abrasive waterjet drilling (AWJD) for varied patterns of GF/Al mesh hybrid composites (neat glass NG, AG: Al in the exterior surface, and GA: Al in the center). Key parameters such as jet pressure (P), standoff distance (S), and traverse speed (V) are systematically varied, influencing material removal rate (MRR), hole taper ratio ((Formula presented.)), and roundness error ((Formula presented.)). Employing a Taguchi approach with an L9 design. It was indicated that the optimal conditions for maximum MRR are (P: 150 MPa, S: 2 mm, and V: 900 mm/min). V and S are the main influential parameters on (Formula presented.) and (Formula presented.). Gray relational analysis (GRA) is employed for simultaneous optimization, enhancing drilling performance. The optimal parameters P of 150 MPa, S of 2 mm, and V of 300 mm/min are determined. Validation trials confirm the effectiveness of the determined parameters. A robust multiple regression equation is formulated, providing a predictive model that aligns closely with experimental observations. Highlights: The hybrid composites were drilled via a nontraditional process. The attributes of the hole geometry and the material removal impacts were studied. Operation parameters were optimized to improve MRR, (Formula presented.), and (Formula presented.). A multiple regression model and a confirmation test were performed and validated.
AB - This study explores the application of abrasive waterjet drilling (AWJD) for varied patterns of GF/Al mesh hybrid composites (neat glass NG, AG: Al in the exterior surface, and GA: Al in the center). Key parameters such as jet pressure (P), standoff distance (S), and traverse speed (V) are systematically varied, influencing material removal rate (MRR), hole taper ratio ((Formula presented.)), and roundness error ((Formula presented.)). Employing a Taguchi approach with an L9 design. It was indicated that the optimal conditions for maximum MRR are (P: 150 MPa, S: 2 mm, and V: 900 mm/min). V and S are the main influential parameters on (Formula presented.) and (Formula presented.). Gray relational analysis (GRA) is employed for simultaneous optimization, enhancing drilling performance. The optimal parameters P of 150 MPa, S of 2 mm, and V of 300 mm/min are determined. Validation trials confirm the effectiveness of the determined parameters. A robust multiple regression equation is formulated, providing a predictive model that aligns closely with experimental observations. Highlights: The hybrid composites were drilled via a nontraditional process. The attributes of the hole geometry and the material removal impacts were studied. Operation parameters were optimized to improve MRR, (Formula presented.), and (Formula presented.). A multiple regression model and a confirmation test were performed and validated.
KW - drilling
KW - material removal rate (MRR)
KW - multi-objective optimization
KW - roundness error
KW - taper ratio
UR - http://www.scopus.com/inward/record.url?scp=85185979172&partnerID=8YFLogxK
U2 - 10.1002/pc.28224
DO - 10.1002/pc.28224
M3 - Article
AN - SCOPUS:85185979172
SN - 0272-8397
VL - 45
SP - 6644
EP - 6661
JO - Polymer Composites
JF - Polymer Composites
IS - 7
ER -