Authors :
Vijay N. Kalbande; Ashish Fande; Santvan Jagtap; Akash Shendre; Rishabh Chikhale; Anirudhh Sonkamble; Satyendra Upawanshi; Amar Pendram
Volume/Issue :
Volume 9 - 2024, Issue 5 - May
Google Scholar :
https://tinyurl.com/429ft2ww
Scribd :
https://tinyurl.com/mrxmsrhw
DOI :
https://doi.org/10.38124/ijisrt/IJISRT24MAY1652
Abstract :
Today’s scenario of manufacturing activities is
toward automation. To provide practical exposure and
better understand, there is need of automated machines
in the technical institutes. Due to financial& space
constraints, most of the institutes is not having automated
machines for the demonstration. This comprehensive
review navigates the landscape of Flexible Manufacturing
Systems (FMS), dissecting scheduling rules, design, and
simulation methodologies, and the integration of
advanced technologies. The motor control systems,
microcontroller applications, and robotic process
automation contribute to a holistic understanding of FMS
evolution. This synthesis serves as a roadmap for
researchers and practitioners, fostering adaptability and
responsiveness in modern manufacturing. FMS is the
highest automation in manufacturing industry and work
on group technology concept. In this project, the authors
are planning to design and develop FMS Simulator for
technical institute. This helps students to understand
group technology concept, automated vehicle system,
automated material handling system, working of
automated transfer line, industrial robot and so on. This
proposed initiative aligns with the broader goals of
academics – to produce graduates who are not only well-
versed in theoretical concepts but also equipped with the
practical skills demanded by industry The utilization of
an FMS with educational purposes started in the
academic year 2011–2012 and still remains active. Here,
the most illustrative FPs are expounded, and successful
academic outcomes are reported. In addition, a set of
initial considerations based on the experience acquired by
the FMS is provided.
Keywords :
Flexible Manufacturing System, Automation, Simulator, Industry 4.0, Robotics.
References :
- Erol Gelenbe and Hatim Guennouni, European Journal of Operational Research 53 (1991) 149-165 North-Holland
- Sabuncuoglu (1998) A study of scheduling rules of flexible manufacturing systems: A simulation approach, International Journal of Production Research, 36:2, 527-546, DOI:10.1080/002075498193877
- Um, Hyeonjae Cheon, Hongchul Lee Division of Information Management Engineering, Korea University, 136-701 Seoul, South Korea
- Ilesanmi Daniyana, Khumbulani Mpofua, Boitumelo Ramatsetseb, Emanuel Zeferinoa, GiovaniMonzambea, Elvis Sekanoa, Design and simulation of a flexible manufacturing system for manufacturing operations of railcar sub-assemblies, Procedia Manufacturing 54 (2021) 112–117
- Adriana Florescu and Sorin Adrian Barabas Modeling and Simulation of a Flexible Manufacturing System-A Basic Component of Industry 4.0 , Appl. Sci. 2020, 10, 8300; doi:10.3390/app10228300
- A. Anglani, A. Grieco, M. Pacella, T. Tolio, Object-oriented modeling and simulation of flexible manufacturing systems: a rule-based procedure, Simulation Modelling Practice and Theory 10 (2002) 209–234.
- Saxena, A., Anandhi, R.J., Ramesh, B., Fande, A., Chandra, P.K., Sethi, V.A. and Al-Farouni, M., 2024. Advancing Sustainable Agriculture through Resource Efficiency. In E3S Web of Conferences (Vol. 507, p. 01006). EDP Sciences.Mr. R. Vinothkann, Design and Analysis of Motor Control System for Wireless Automation Journal of Electronics and Informatics (2020) Vol.02/ No.03 Pages: 162-167
- Robert Abebe, Gaurang Vaki, Giovanni Lo Calzo, Thomas Cox, Simon Lambert ,Mark Johnson, Chris Gerada, Barrie Mecrow, Integrated motor drives: state of the art and future trends ISSN 1751-8660
- Jacek F. Fande, A., Kalbande, V., Kavishwar, S., Tandon, V. and Dhunde, A., 2024. Enhancing microstructure and mechanical properties of dissimilar TIG welded duplex 2205 and Ni-based inconel 718 superalloy through post weld heat treatment. Engineering Research Express.
- Tyron Louw, Gustav Markkula, Erwin Boer, Ruth Madigan, Oliver Carsten, Natasha Merat, Coming Back into the Loop: Drivers’ Perceptual-Motor Performance in Critical Events after Automated Driving Accident Analysis and Prevention, 108. pp. 9-18. ISSN 0001-4575
Today’s scenario of manufacturing activities is
toward automation. To provide practical exposure and
better understand, there is need of automated machines
in the technical institutes. Due to financial& space
constraints, most of the institutes is not having automated
machines for the demonstration. This comprehensive
review navigates the landscape of Flexible Manufacturing
Systems (FMS), dissecting scheduling rules, design, and
simulation methodologies, and the integration of
advanced technologies. The motor control systems,
microcontroller applications, and robotic process
automation contribute to a holistic understanding of FMS
evolution. This synthesis serves as a roadmap for
researchers and practitioners, fostering adaptability and
responsiveness in modern manufacturing. FMS is the
highest automation in manufacturing industry and work
on group technology concept. In this project, the authors
are planning to design and develop FMS Simulator for
technical institute. This helps students to understand
group technology concept, automated vehicle system,
automated material handling system, working of
automated transfer line, industrial robot and so on. This
proposed initiative aligns with the broader goals of
academics – to produce graduates who are not only well-
versed in theoretical concepts but also equipped with the
practical skills demanded by industry The utilization of
an FMS with educational purposes started in the
academic year 2011–2012 and still remains active. Here,
the most illustrative FPs are expounded, and successful
academic outcomes are reported. In addition, a set of
initial considerations based on the experience acquired by
the FMS is provided.
Keywords :
Flexible Manufacturing System, Automation, Simulator, Industry 4.0, Robotics.
