Optimization and Modelling of Fracture Height in SECC Cylindrical Cup Deep Drawing Processes

Deep drawing processes play a pivotal role in the manufacturing of sheet and shell products, making it a widely adopted method. This research employs numerical simulations to investigate the impact of various process parameters on the fracture height of cylindrical cups made from SECC (Steel Electro...

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Main Authors: Quy-Huy Trieu, The Thanh Luyen, Duc-Toan Nguyen
Format: Article
Language:English
Published: Publishing House of Wrocław Board of Scientific Technical Societies Federation NOT 2024-03-01
Series:Journal of Machine Engineering
Subjects:
Online Access:http://jmacheng.not.pl/Optimization-and-Modelling-of-Fracture-Height-in-SECC-Cylindrical-Cup-Deep-Drawing,185476,0,2.html
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author Quy-Huy Trieu
The Thanh Luyen
Duc-Toan Nguyen
author_facet Quy-Huy Trieu
The Thanh Luyen
Duc-Toan Nguyen
author_sort Quy-Huy Trieu
collection DOAJ
description Deep drawing processes play a pivotal role in the manufacturing of sheet and shell products, making it a widely adopted method. This research employs numerical simulations to investigate the impact of various process parameters on the fracture height of cylindrical cups made from SECC (Steel Electrogalvanized Commercial Cold rolled) material. Specifically, it examines parameters such as blank holder force (BHF), punch corner radius (Rp), die corner radius (Rd), and punch-die clearance (Wc). The study extends to optimizing fracture height, offering a solution to this challenge. Subsequently, the selected parameters are validated through experimental deep drawing of cylindrical cups, resulting in a minimal deviation of 1.55% between simulation and experiment outcomes. A precise mathematical equation is developed to estimate fracture height under diverse machining conditions, with a maximum deviation of 4.52% observed between the mathematical model and simulation. These findings represent a substantial advancement in deep drawing processes technology, particularly in reducing error rates during the production of cylindrical cups.
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institution DOAJ
issn 1895-7595
2391-8071
language English
publishDate 2024-03-01
publisher Publishing House of Wrocław Board of Scientific Technical Societies Federation NOT
record_format Article
series Journal of Machine Engineering
spelling doaj-art-1e51b0d21d3548ee8cf9f0790bac6f4e2025-08-20T03:02:29ZengPublishing House of Wrocław Board of Scientific Technical Societies Federation NOTJournal of Machine Engineering1895-75952391-80712024-03-01241748610.36897/jme/185476185476Optimization and Modelling of Fracture Height in SECC Cylindrical Cup Deep Drawing ProcessesQuy-Huy Trieu0The Thanh Luyen1Duc-Toan Nguyen2https://orcid.org/0000-0001-9619-4476Faculty of Mechanical Engineering, University of Economics - Technology for Industries, Hanoi City, VietnamFaculty of Mechanical Engineering, Hungyen University of Technology and Education, Hungyen, VietnamSchool of Mechanical Engineering, Hanoi University of Science and Technology, Hai Ba Trung District, Hanoi City, VietnamDeep drawing processes play a pivotal role in the manufacturing of sheet and shell products, making it a widely adopted method. This research employs numerical simulations to investigate the impact of various process parameters on the fracture height of cylindrical cups made from SECC (Steel Electrogalvanized Commercial Cold rolled) material. Specifically, it examines parameters such as blank holder force (BHF), punch corner radius (Rp), die corner radius (Rd), and punch-die clearance (Wc). The study extends to optimizing fracture height, offering a solution to this challenge. Subsequently, the selected parameters are validated through experimental deep drawing of cylindrical cups, resulting in a minimal deviation of 1.55% between simulation and experiment outcomes. A precise mathematical equation is developed to estimate fracture height under diverse machining conditions, with a maximum deviation of 4.52% observed between the mathematical model and simulation. These findings represent a substantial advancement in deep drawing processes technology, particularly in reducing error rates during the production of cylindrical cups.http://jmacheng.not.pl/Optimization-and-Modelling-of-Fracture-Height-in-SECC-Cylindrical-Cup-Deep-Drawing,185476,0,2.htmlfemtaguchi orthogonal arrayfracture heightsecc sheet steel
spellingShingle Quy-Huy Trieu
The Thanh Luyen
Duc-Toan Nguyen
Optimization and Modelling of Fracture Height in SECC Cylindrical Cup Deep Drawing Processes
Journal of Machine Engineering
fem
taguchi orthogonal array
fracture height
secc sheet steel
title Optimization and Modelling of Fracture Height in SECC Cylindrical Cup Deep Drawing Processes
title_full Optimization and Modelling of Fracture Height in SECC Cylindrical Cup Deep Drawing Processes
title_fullStr Optimization and Modelling of Fracture Height in SECC Cylindrical Cup Deep Drawing Processes
title_full_unstemmed Optimization and Modelling of Fracture Height in SECC Cylindrical Cup Deep Drawing Processes
title_short Optimization and Modelling of Fracture Height in SECC Cylindrical Cup Deep Drawing Processes
title_sort optimization and modelling of fracture height in secc cylindrical cup deep drawing processes
topic fem
taguchi orthogonal array
fracture height
secc sheet steel
url http://jmacheng.not.pl/Optimization-and-Modelling-of-Fracture-Height-in-SECC-Cylindrical-Cup-Deep-Drawing,185476,0,2.html
work_keys_str_mv AT quyhuytrieu optimizationandmodellingoffractureheightinsecccylindricalcupdeepdrawingprocesses
AT thethanhluyen optimizationandmodellingoffractureheightinsecccylindricalcupdeepdrawingprocesses
AT ductoannguyen optimizationandmodellingoffractureheightinsecccylindricalcupdeepdrawingprocesses