Abstract
Nowadays, roll forming becomes one of the most promising sheet metal forming method due to its excellent superiority of capital saving and capability of lightweight, high accuracy manufacturing technique. It has been increasingly used in a wide range of sectors, such as aerospace, automotive, transportation, construction, etc. However, with the requirements of rapid manufacturing and more complex customized profile shape in forming direction, such as variable shape, depth, etc., traditional roll forming is no longer suitable due to the movement restrictions along transverse and vertical directions. Also, with the trend of industry 4.0, traditional roll forming is fundamentally lack of machine learning capability for intelligent manufacturing upgrade. A new replacement called (3D) flexible roll forming has been proposed in recent years to confront the above challenges. The technology is carried out via an advanced control system. It is a complicated flexible manufacturing system composed of many key elements/parts, such as six-axis robot arms, high, blankholder system, smart sensors and other key elements.
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References
Sedlmaier A, Ehrlenspiel K (1984) Integriertes computer-Programmsystem ”Kaltprofilierwalzen” (KPW). Fachberichte für Metallbearbeitung 61, No 11–12
Halmos GT (2006) Roll_Forming_Handbook_
Sun Y (2017) Fundamental study of chain-die forming: identifying the essential characteristics of fabricated AHSS profiles enabling process improvement
Sedlmaier A, Dietl T, Ferreira P (2017) Digitalization in roll forming manufacturing. J Phys Conf Ser 896
Kasaei MM, Naeini HM, Abbaszadeh B, Silva MB, Martins PAF (2015) Flexible roll forming. In: Materials forming and machining, pp 51–71
Ma Y (2014) The control system research of multi-axis flexible roll forming. (Master), North China University of Technology
Sedlmaier A, Dietl T (2018) 3D roll forming center for automotive applications. Elsevier B.V, Procedia Manuf 15:767–774. In: 17th International conference on metal forming, metal forming, pp 16–19
Sedlmaier A, Dietl T, Harrasser J (2017) 3D rollforming in automotive industry. In: SCT2017 5th international conference on steels for cars and trucks, steel institute. www.sct2017.com
Ai Z, Liu J, Han F, Jing Z (2010) Research improvement of variable section flexible roll forming technology at home and abroad. Automob Parts (19):34–36
Larrañaga J, Galdos L, Uncilla L, Etxaleku A (2010) Development and validation of a numerical model for sheet metal roll forming. IntJ Mater Form 3(1):151–154
Sheu J-J, Liang C-F, Yu C-H, Hsu W-C, Lee P-K (2018) Flexible roll forming of U-section product with curved bending profile using advanced high strength steel. Procedia Manuf 15:782–787
Dr & Prof (2018) Key technology and development of roll forming in automobile lightweight—North China University of Technology. In: Proceedings of the first automobile internal high pressure forming and high strength steel and aluminum forming technology forum, pp 35–44
Park HS, Dang DV, Nguyen TT (2019) Development of a flexible roll forming machine for cutting cured parts with virtual prototyping technology
Buddhika Abeyrathna DMW, A/Prof Bernard Rolfe (2018) WISCO interim report_27_08_2018_Final
Jiao J, Rolfe B, Mendiguren J, Weiss M (2015) An analytical approach to predict web-warping and longitudinal strain in flexible roll formed sections of variable width. Int J Mech Sci 90:228–238
Sedlmaier A, Dietl T (2018) 3D roll forming center for automotive applications. Elsevier B.V. Procedia Manuf 15:767–774
Yan Y, Wang H, Li Q, Qian B, Mpofu K (2014) Simulation and experimental verification of flexible roll forming of steel sheets. Int J Adv Manuf Technol 72(1–4):209–220
Weiss M (2019) Confirmation of candidature report
Sreenivas AA (2020) Confirmation of candidature report
Yong Sun DBA, Weiss M, Peirra M (2017) Deakin University and Wuhan Iron and Steel (Group) Corp.
Weibiao C, Shuanhu W, Binbin P, Yu S (2013) Aided design of P form tube by COPRA. Mach Tool Hydraul 41(05):85–88
Zhenxi L, Tingyu Z, Jianpin L, Yu Q (2019) Roll forming process design and FEM analysis of automobile anti-collision beam based on COPRA. Paper presented at the The 15th China CAE engineering analysis technology annual conference, Shanghai, China
Qing-dong S, Chuan-hong W, You-liang R, Liang G, Peng J (2016) T-tube forming process optimization and the rolling die design based on COPRA. Die Mould Ind 42(09):59–63
Deole AD, Design ME (2019) Thesis_Final_weiss
Bao Z, Wuxue D, Binbin P (2014) Application of downhill method in roll forming. Forging Stamping Technol 39(01):52–57
Abeyrathna B, Abvabi A, Rolfe B, Taube R, Weiss M (2016) Numerical analysis of the flexible roll forming of an automotive component from high strength steel. IOP Conf Ser Mater Sci Eng 159(1):012005 (012009pp)
BAJC&Fund (2019) Baosteel 2019_Weiss_160719_Final (2)
Abeyrathna B, Rolfe B, Harrasser J, Sedlmaier A, Ge R, Pan L, Weiss M (2017) Prototyping of automotive components with variable width and depth. J Phys Conf Ser 896
Eggertsen PA, Mattiasson K (2009) On the modelling of the bending–unbending behaviour for accurate springback predictions. Int J Mech Sci 51(7):547–563
Kim D, Lee M-G, Kim C, Wenner ML, Wagoner RH, Barlat F, Kang TJ (2003) Measurements of anisotropic yielding, bauschinger and transient behavior of automotive dual-phase steel sheets. Met Mater Int 9(6):561
Li Y, Sun Y (2018) A numerical study on chain-die forming of the AHSS U-channel and contrast with roll forming. Int J Mech Sci
Morestin F, Boivin M (1996) On the necessity of taking into account the variation in the Young modulus with plastic strain in elastic-plastic software. Nucl Eng Des 162(1):107–116
PÉRez R, Benito J, Prado J (2005) Study of the inelastic response of TRIP steels after plastic deformation. Isij International—ISIJ INT 45:1925–1933
Yu HY (2009) Variation of elastic modulus during plastic deformation and its influence on springback. Mater Des 30(3):846–850
Weiss M, Wolfkamp H, Rolfe BF, Hodgson PD, Hemmerich E (2009) Measurement of bending properties in strip for roll forming
Woo YY, Han SW, Hwang TW, Park JY, Moon YH (2018) Characterization of the longitudinal bow during flexible roll forming of steel sheets. J Mater Process Technol 252:782–794
Abeyrathna B, Ghanei S, Rolfe B, Taube R, Weiss M (2021) Optimising part quality in the flexible roll forming of an automotive component. Int J Adv Manuf Technol, 1–13
Kang PG, Woo YY, Moon YH (2018) Effects of circular holes on the web warping of perforated blanks in flexible roll forming. Proc Inst Mech Eng Part B J Eng Manuf 233(9):1980–1992
Larrañaga J, Berner S, Galdos L, Groche P, Chinesta F, Chastel Y, El Mansori M (2011) Geometrical accuracy improvement in flexible roll forming lines
Park J-C, Yang D-Y, Cha M, Kim D, Nam J-B (2014) Investigation of a new incremental counter forming in flexible roll forming to manufacture accurate profiles with variable cross-sections. Int J Mach Tools Manuf 86:68–80
Weiss M (2020) Combined_CoC_Report-2_Weiss 3(1)
Kasaei MM, Naeini HM, Liaghat GH, Silva CMA, Silva MB, Martins PAF (2015) Revisiting the wrinkling limits in flexible roll forming. J Strain Anal Eng Des 50(7):528–541
Groche P, Zettler A, Berner S, Schneider G (2011) Development and verification of a one-step-model for the design of flexible roll formed parts. IntJ Mater Form 4(4):371–377
Abee A, Berner S, Sedlmaier A (2008) Accuracy improvement of roll formed profiles with variable cross sections. 기타자료, 249–250
Abeyrathna B, Rolfe B, Pan L, Ge R, Weiss M (2016) Flexible roll forming of an automotive component with variable depth. Adv Mater Process Technol 2(4):527–538
Abeyrathna B, Ghanei S, Rolfe B, Taube R, Weiss M .(2020) Springback and end flare compensation in flexible roll forming
Yan Y, Nie H, Wang H, Li Q, Liu Y (2017) A novel roll-die forming technology and its FEM simulation
Weiss M, Buddhika A, Sadegh G, Bernard R, Richard T (2021) Optimising part quality in the flexible roll forming of an automotive component
Yu Y, Wang H, Li Q, Guan Y (2015) Finite element simulation of flexible roll forming with supplemented material data and the experimental verification
Kasaei MM, Naeini HM, Abbaszadeh B, Mohammadi M, Ghodsi M, Kiuchi M, Zolghadr R, Liaghat G, Tafti RA, Tehrani MS (2014) Flange wrinkling in flexible roll forming process
Dietl T, Sedlmaier A (2017) Neue Konzepte für konventionelles und 3D Walzprofilieren. Steuerung Umformverfahren Anwendungen
https://youtu.be/7I1EMPflBAw video 2017: Flexible roll forming of Truck Chassis Long Members
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Sun, Y. et al. (2022). Flexible 3D Profile Roll Forming Technology. In: Guo, X. (eds) Flexible Metal Forming Technologies. Springer Tracts in Mechanical Engineering. Springer, Singapore. https://doi.org/10.1007/978-981-19-1348-8_5
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DOI: https://doi.org/10.1007/978-981-19-1348-8_5
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