Electrical Network Automation and Control Systems

1. Training Introduction

Electrical network automation and control systems are pivotal to the modernization of power grids, utility infrastructure, and industrial facilities. As electricity networks evolve into smart, automated, and highly responsive systems, professionals must master the integration of advanced monitoring, control, communication, and protection technologies.

This training provides a deep and practical understanding of automated electrical networks, covering SCADA, protection systems, distribution automation (DA), substation automation, control devices, communication protocols, remote monitoring, and smart grid technologies. Participants learn to design, implement, test, troubleshoot, and optimize automated control systems for reliable and efficient network operation.

 

2. Training Objective

The programme aims to equip participants with the ability to:

• Understand the architecture and components of modern automated electrical networks.
• Design and implement control systems for distribution, transmission, and industrial networks.
• Apply SCADA, RTU, IED, and communication technologies to electrical automation.
• Diagnose and troubleshoot problems in automated and remote-controlled networks.
• Integrate smart sensors, smart meters, and data analytics for network optimization.
• Enhance the reliability, safety, and efficiency of power systems using automation.
• Apply international standards and best practices in electrical network automation.

 

3. Targeted Group

This training is ideal for:

• Electrical and power system engineers
• Utility company professionals (transmission, distribution & dispatch operations)
• Automation and control engineers
• SCADA/EMS/DMS technicians and operators
• Industrial maintenance and facility engineers
• ICT and network engineers involved in power system automation
• Substation engineers and protection technicians
• Energy regulators and infrastructure policymakers
• Students and trainees in electrical and control systems engineering

 

4. Course Duration

14–16 Days depending on format:

• Intensive Technical Programme: 14 days
• Full Practical and Advanced Modules: 16 days
• Online or Blended Option: Flexible pacing with virtual labs and simulations

 

5. Training Methodology

A hands-on, applied, and system-driven methodology is used:

• Expert-led technical sessions and demonstrations
• SCADA, DMS, and network automation simulation labs
• Practical exercises using RTUs, PLCs, IEDs, and communication tools
• Case studies from power utilities and industrial networks
• Troubleshooting labs and scenario simulations
• Group activities, system design projects, and maintenance planning workshops
• Quizzes, assignments, and a capstone automation project

 

6. Course Content

Module 1: Fundamentals of Power System Automation

• Evolution of electrical network automation
• Key concepts, components, and system layers
• Benefits and applications of automation

Module 2: Power System Architecture & Network Components

• Generation, transmission, and distribution network structures
• Equipment: switchgear, transformers, breakers, capacitors, relays
• Network operational fundamentals

Module 3: SCADA Systems & Remote Control Technologies

• SCADA architecture and functions
• RTUs, PLCs, HMIs, gateways, and communication interfaces
• Real-time monitoring and control strategies

Module 4: Substation Automation Systems (SAS)

• Intelligent Electronic Devices (IEDs)
• IEC 61850 standards, protocols, configuration
• Protection, control, and communication integration

Module 5: Distribution Automation (DA) Technologies

• Automatic feeder switching
• Voltage/VAR control
• Fault detection, isolation, and service restoration (FDIR/FLISR)

Module 6: Communication Networks for Power Systems

• Fibre optics, microwave, Ethernet, wireless mesh
• Power line communication (PLC) and IP networks
• Cybersecurity considerations and standards

Module 7: Protection and Control Systems

• Relay types and protection principles
• Coordination, selectivity, and protection schemes
• Remote protection monitoring and testing

Module 8: Sensors, Smart Meters & Data Acquisition

• Sensor types and automated measurement devices
• AMI (Advanced Metering Infrastructure)
• Integration with DMS/EMS

Module 9: Automation System Programming & Logic Design

• PLC programming (ladder logic, FBD, ST)
• IEC 61131 programming environment
• Automation logic for network control

Module 10: Power Quality Monitoring & Control

• Voltage sags, swells, harmonics, interruptions
• Automated monitoring tools and corrective actions
• Power quality event analysis

Module 11: Troubleshooting Automated Networks

• Diagnostics for SCADA, IEDs, sensors, communication links
• Common faults and advanced troubleshooting techniques
• Testing tools and field practices

Module 12: Smart Grid Technologies & Integration

• Distributed generation and renewable integration
• Demand response and grid intelligence
• Grid edge devices and IoT integration

Module 13: Energy Management Systems (EMS) & Distribution Management Systems (DMS)

• Load forecasting and economic dispatch
• Volt/VAR optimization
• Outage management systems (OMS)

Module 14: Cybersecurity for Automated Electrical Networks

• Risk assessment and intrusion detection
• Power system cybersecurity standards
• Hardening communication and control systems

Module 15: Application Case Studies & Utility Best Practices

• Case studies from smart utilities worldwide
• Industrial network automation applications
• Successes, failures, and lessons learned

Module 16: Capstone Project – Network Automation System Design

• Design of an automated distribution or substation system
• Communication, control logic, protection integration
• Simulation, testing, and final presentation

 

7. Expected Learning Outcomes

By the end of the programme, participants will be able to:

• Understand, design, and manage electrical network automation systems.
• Implement SCADA, DMS/EMS, and substation automation technologies.
• Troubleshoot advanced automation components, communication networks, and control systems.
• Integrate sensors, IEDs, smart meters, and protection devices for optimal performance.
• Apply industry standards (IEC 61850, IEC 61131, cybersecurity frameworks).
• Improve network reliability, resilience, and operational efficiency.
• Develop and document advanced automation and control system designs.

 

8. Certificate of Completion

Upon successful completion of all modules, simulations, assessments, and the capstone automation design project, participants will receive:

Certificate of Completion

Electrical Network Automation and Control Systems

Issued by FOTADE Training, Research and Resource Development Centre

This certificate validates the participant’s professional capabilities in designing, implementing, troubleshooting, and optimizing modern automated electrical networks across utilities, industries, and smart infrastructure systems.