Overview

This project was developed as part of my engineering thesis at the National University of Colombia.

The objective was to design and validate industrial automation architectures capable of supporting training, experimentation and development activities in industrial control, motion systems, supervision and communication networks.

The resulting platform became the basis for several educational activities in mechatronics engineering and industrial automation.

Scientific Context

Modern industrial facilities require the integration of multiple technological layers including:

• Programmable Logic Controllers (PLCs).
• Motion control systems.
• Human-machine interfaces.
• SCADA systems.
• Industrial communication networks.
• Safety systems.

The project addressed the challenge of creating a comprehensive educational and research platform capable of integrating these technologies within a coherent environment.

Main Objectives

The project pursued the following objectives:

• Design industrial control architectures.
• Develop motion control applications.
• Integrate industrial communication protocols.
• Implement supervision systems.
• Create educational automation resources.
• Support training in advanced industrial automation.

Methodology

Axis 1 – Motion Control Systems

Development of coordinated motion control applications using:

• Allen-Bradley CompactLogix.
• Kinetix 350 drives.
• Motion Group modules.
• Multi-axis synchronization.

Particular attention was given to precision, smooth trajectories and dynamic performance.

Axis 2 – Industrial Communications

Implementation of industrial communication networks including:

• Modbus.
• Ethernet/IP.
• PLC communications.
• SCADA integration.

The objective was to ensure reliable information exchange between industrial devices.

Axis 3 – Automation Languages

The project investigated and implemented industrial programming approaches based on:

• Ladder Logic.
• Grafcet.
• Structured industrial workflows.
• Control sequence design.

Translation mechanisms between different automation representations were also developed.

Axis 4 – Educational Platform Development

A complete educational platform was created to facilitate:

• Industrial automation training.
• Motion control experimentation.
• Industrial communication studies.
• Supervision system development.

Main Contributions

The project resulted in:

• Industrial automation architectures.
• Motion control applications.
• Communication frameworks.
• Educational laboratories.
• Technical documentation.
• Training material.

Educational Impact

One of the most significant outcomes was the development of educational resources and technical guides that continue to support teaching activities in mechatronics and industrial automation.

The platform enabled students to gain practical experience with real industrial technologies.

Scientific and Technical Impact

The project strengthened expertise in:

• Automatic control.
• Industrial automation.
• Motion control.
• Industrial communications.
• Real-time systems.
• SCADA architectures.

Many concepts developed during this project later contributed to research activities involving cyber-physical systems, monitoring and industrial diagnostics.

Keywords

Industrial Automation · CompactLogix · Motion Control · SCADA · PLC · Ladder Logic · Grafcet · Modbus · Ethernet/IP · Industrial Communications · Real-Time Systems

Project Status

Completed