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Class Automation and Control

  • Presentation

    Presentation

    In this UC it is intended that students are able to Analyze the use of different automation components such as PLC's, robots, numerical control system, flexible manufacturing cells, CIM concept and industrial networks. Carry out simple control programs for automation systems Development of simple user interfaces (HMI) using SCADA systems. This UC has as its main area of intervention the industry in its various aspects
  • Code

    Code

    ULP732-10368
  • Syllabus

    Syllabus

    INTRODUCTION MODELIZATION OF INDUSTRIAL SYSTEMS Object Oriented Language, Grafcet, Petri Nets AUTOMATION SYSTEMS - Numerical Control, DNC, CNC, Adaptive Machining Control, INDUSTRIAL ROBOTICS - Definition, robot anatomy, robot configurations, robot control systems, control type classification, intelligent robots, robot industry applications, robot work cell design, material handling, processing, assembly and inspection. FLEXIBLE MANUFACTURING CELLS - FMS, components of an FMS, types of FMS, FMS workstations. MATERIAL HANDLING AND STORAGE SYSTEMS - Configuration, handling equipment, computer control system, FMS planning. COMPUTER INTEGRATED MANUFACTURE - CIM - Computer Intregrated Manufacturing, product design, production equipment, production processes. INDUSTRIAL NETWORKS - Architectures, technologies, protocols. FUTURE FACTORY
  • Objectives

    Objectives

    It is intended that the student acquires A thorough knowledge about automation systems, their components and their integration. Learn about modeling techniques and modeling of automation systems. Learn about the operation of different automation components such as PLC's, robots, numerical control system, flexible manufacturing cells, CIM concept and industrial networks. Deepen your understanding of PLC's operation and programming. Addressing the possible evolution of the factory of the future
  • Teaching methodologies

    Teaching methodologies

    Theoretical instruction is delivered through traditional expository methods, complemented by activities that foster continuous and collaborative learning. Laboratory sessions provide opportunities to apply the theoretical concepts through integrative assignments, which are accompanied by provisional reports contributing to the summative assessment. To enhance the teaching-learning process, theoretical classes incorporate frequent references to industrial use cases, offering concrete illustrations of practical applications. Students are also encouraged to consult relevant online resources and engage with innovative and illustrative video materials related to the course content.
  • References

    References

    Mikell P. Groover, Automation, Production Systems, And Computer Integrated Manufacturing,Pearsonl, 1987. Automation-Production-Systems-and-Computer-Integrated-Manufacturing-Mikell-P, Groover-Ed 4, 2015 Tecnologias de automação na Indústria 4.0; J.R. Caldas Pinto, 2021.  
  • Assessment

    Assessment

     

    Descrição

    Data limite

    Ponderação

    Exame final

    dd-mm-yyyy

    45%

    Trabalhos práticos

    dd-mm-yyyy

    45%

    Participação na Aulas

     

    10%

     

     

     

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