Platforme prototype to industrial automation tests
DOI:
https://doi.org/10.33448/rsd-v11i5.26589Keywords:
Platform Prototype; Programmable Logic Controllers; Automation Projects; Plants Control; Industrial automation.Abstract
The knowledge of industrial plants is essential for today society. This work aimed to create a platform prototype (EDSLAB) that facilitates testing of industrial plants. It was developed with purpose of bring together the basic elements of the necessary infrastructure for the elaboration of two of the most commons plants for industrial automated processes in a single stand: filling and cooling systems. Considering the intersection of necessary elements in these two automation projects, such as programmable logic controllers, direct and alternating current power supplies, relays, among others, these elements were grouped in a structure arranged in a generic way, since to supply the most diverse design needs, the components should have strategic positioning and the structures should support the coupling of countless measuring tools and other equipment. The obtained set allows both automation and supervision of automatic processes through a human-machine interface. The industrial plants control it was performed by the logic programmable controller LOLLETE LE3U-56MR6AD2DA, from Mitsubish®. To supervision it was implemented the human-machine interface Kinco®, model MT4434T. The tests performed obtained a satisfactorily accomplishment, demonstrating not only the processes inherent of filling and cooling systems, but also general properties of industrial automation projects.
References
Altmann, W. (2005). Practical process control for engineers and technicians. Elsevier.
Caldas, L. N. (2020). Automatização de uma linha de envase na fabricação de nutracêuticos: Uma Análise da eficiência (Trabalho de Conclusão de Curso, Pontifícia Universidade Católica de Goiás). https://repositorio.pucgoias.edu.br/jspui/handle/123456789/1150.
Carvalho, João C. N. & Mourão, Oséias de S. (2020). Um protótipo usando Arduino para o estudo da lei de Hooke. Research, Society and Development. 9(8), 2525-3409. http://dx.doi.org/10.33448/rsd-v9i8.7733
Dunn, W. C. (2013). Fundamentos de instrumentação industrial e controle de processos. Bookman Editora.
Ferreira, J. R. N., Sousa, R. M. de & Neto, A. G. A. de. (2019). Utilização de plataforma de prototipagem opensource como ferramenta de uso didático para controle de temperatura em processos industriais. Brazilian Applied Science Review, 3(2), 1057-1063.
Fogaça, F., Dias, A. L. & Silva, F. F. da. (2021). A importância da análise de falhas para o ensino técnico em automação industrial. Revista Metodologias e Aprendizado, 4, 409–421. https://doi.org/10.21166/metapre.v4i.2261
Jabardo, J. M. S. & Stoecker, W. F. (2018). Refrigeração industrial. Editora Blucher.
Kieckow, F., Freitas, D. B. de & Liesenfeld, J. (2018). O ensino e a aprendizagem na engenharia: realidade e perspectivas/Teaching and learning in engineering: reality and perspectives. Brazilian Applied Science Review, 2(1), 347–356.
Kinco. (2020). IHM MODELO MT4434T. https://en.kinco.cn/download/dmanual.html
Knapp, Eric D. & Langill, Joel Thomas. (2015). Industrial Network Security: securing critical infrastructure networks for smart grid, scada, and other industrial control systems. (2nd ed). Waltham: Elsevier.
Lollette. (2021). Controlador Logico Programável modelo LE3U – 56MR6AD2DA. https://www.lollette.com/le3u-56mr-6ad2da-plc-controller.html
Matos, A. C. & Larquer, T. R. (2017). Desenvolvimento De Plataforma De Instrumentação Utilizando Arduíno. Anais do Seminário de Pesquisa e Inovação Tecnológica-SEPIT, 1(1).
Moraes, C. C. D. & Castrucci, P. D. L. (2010). Engenharia de Automação Industrial. (2a ed.). LTC.
Parede, I. M. et al. (2011). Eletrônica: automação industrial. 6(1). Fundação Padre Anchieta.
Pinho, A. G., Olímpio, E. J. S., Cabral, L. M., Filho, R. M. de O., Silva, B. C. R., Furriel, G. P., & Junior, G. de M. Desenvolvimento de bancada didática contendo múltiplos sensores e atuadores. Research, Society and Development. 10(13), 2525-3409. http://dx.doi.org/10.33448/rsd-v10i13.21165
Ribeiro, M. A. (2001). Automação Industrial (4th ed.). Salvador, Brazil: Tek Treinamento & Consultoria.
Seborg, D. E.; Mellichamp, D. A.; Edgar, T. F. & Doyle III, F. J. (2010). Process dynamics and control (4th ed.). John Wiley & Sons.
Silveira, E. da R., & Brito, L. dos S. (2021). Protótipo De Plataforma Para Ensaios De Automação Industrial (Trabalho de Conclusão de Curso, Universidade Federal do Amapá). Amapá, Brasil.
TASCO LTDA. (2020). Calefator modelo 8050. https://www.tascoltda.com.br/produto.php?ID=MTUw
USINAINFO. (2020). Sensor de nível flutuador horizontal. de https://www.usinainfo.com.br/sensor-de-nivel-arduino/sensor-de-nivel-de-aguacom-boia-horizontal-2580.html
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Copyright (c) 2022 Edvan da Rocha Silveira; Laís dos Santos Brito; Allan Guilherme Lima Pena; Paulo Roberto Moutinho de Vilhena; Werbeston Douglas de Oliveira
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