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Satyandra Gupta, D. Rajagopal (2002)
Sheet metal bending: Forming part families for generating shared press-brake setupsJournal of Manufacturing Systems, 21
B. Babic, Nenad Nesic, Z. Miljković (2008)
A review of automated feature recognition with rule-based pattern recognitionComput. Ind., 59
R. Jagirdar, V. Jain, J. Batra (2001)
Characterization and identification of forming features for 3-D sheet metal componentsInternational Journal of Machine Tools & Manufacture, 41
T. Kannan, M. Shunmugam (2008)
Planner for sheet metal components to obtain optimal bend sequence using a genetic algorithmInternational Journal of Computer Integrated Manufacturing, 21
S. Wagner, Madan Sathe, O. Schenk (2014)
Optimization for process plans in sheet metal formingThe International Journal of Advanced Manufacturing Technology, 71
S. Ong, L. Vin, A. Nee, H. Kals (1997)
Fuzzy set theory applied to bend sequencing for sheet metal bendingJournal of Materials Processing Technology, 69
P. Chandrasekaran, Dr. Manonmani (2015)
A Review on Springback Effect in Sheet metal Forming Process
Junghyun Han, Inho Han, Eunseok Lee, Jun-ho Yi (2001)
Manufacturing feature recognition toward integration with process planningIEEE transactions on systems, man, and cybernetics. Part B, Cybernetics : a publication of the IEEE Systems, Man, and Cybernetics Society, 31 3
H. Sheng, F. Huang (1996)
Feature decomposition from solid models for automatic flatteningComput. Aided Des., 28
E. Nasr, A. Kamrani (2006)
A new methodology for extracting manufacturing features from CAD systemComput. Ind. Eng., 51
M. Shunmugam, T. Kannan (2002)
Automatic flat pattern development of sheet metal components from orthographic projectionsInternational Journal of Machine Tools & Manufacture, 42
K. Toh, H. Loh, A. Nee, Kim Lee (1995)
A feature-based flat pattern development system for sheet metal partsJournal of Materials Processing Technology, 48
F. García, Minna Lanz, E. Jarvenpaa, R. Tuokko (2011)
Process planning based on feature recognition method2011 IEEE International Symposium on Assembly and Manufacturing (ISAM)
J. Duflou, T. Nguyễn, J. Kruth (2004)
Intelligent tool pre-selection : a contribution to automatic process planning for sheet metal bending
S. Subrahmanyam, M. Wozny (1995)
An overview of automatic feature recognition techniques for computer-aided process planningComputers in Industry, 26
Ravi Gupta, Ravi Gupta, B. Gurumoorthy (2013)
Classification, representation, and automatic extraction of deformation features in sheet metal partsComput. Aided Des., 45
TR Kannan, MS Shunmugam (2009)
Processing of 3D sheet metal components in STEP AP-203 format. Part I: feature recognition systemInt J Prod Res, 47
T. Kannan, M. Shunmugam (2009)
Processing of 3D sheet metal components in STEP AP-203 format. Part II: feature reasoning systemInternational Journal of Production Research, 47
L Zhang, Y Zhang, Q Zhou, F He (2011)
Robust sheet metal bend sequencing method based on A-star algorithmProc −2011 I.E. Int Conf Comput Sci Autom Eng CSAE, 2
Zhang Lichao, Z. Qiang, Zhang Yi, He Fafu (2011)
Robust sheet metal bend sequencing method based on A-star algorithm2011 IEEE International Conference on Computer Science and Automation Engineering, 2
Wang Rui, Georg Thimm, Ma Yongsheng (2010)
Review: geometric and dimensional tolerance modeling for sheet metal forming and integration with CAPPThe International Journal of Advanced Manufacturing Technology, 51
R. Jagirdar, V. Jain, J. Batra, S. Dhande (1995)
Feature recognition methodology for shearing operations for sheet metal componentsComputer Integrated Manufacturing Systems, 8
The process planning of V-bending involves the determination of a feasible sequence of bending tasks to achieve the final desired product shape. The feasibility of such a sequence is materialized by the absence of collision between the sheet metal and the tool set or any part of the press brake. Meanwhile, efficient process planning targets the minimization of the number of bending setup and handling tasks. This paper presents an enhanced automated feature recognition system for effectively determining part shape features that are suitable for feasible and efficient process planning of the V-bending process. The developed system automatically recognizes and reasons information of bend lines, and relations between them form STEP AP-203 format. It provides additional information regarding the relationships between bend lines based on a new classification that can facilitate efficient selection of tools and bend sequences. It also provides an easier approach for the estimation of some bend parameters compared to previous methods in the literature. An example is provided to demonstrate the benefit of applying the developed system in generating more efficient process plans.
The International Journal of Advanced Manufacturing Technology – Springer Journals
Published: Feb 9, 2017
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