
Electrical Automation Course
Master the skills that power modern industrial automation — from PLC programming and sensor wiring to SCADA integration and drive commissioning. This course delivers hands-on, job-ready training built around real equipment, real protocols, and real-world scenarios. Whether you're entering the field or leveling up your career, you'll graduate with the technical depth employers demand.
What your team will master:
You'll start with electrical fundamentals and safety, then move into sensor selection, signal conditioning, and PLC hardware installation. From there, you'll write and debug ladder logic programs, configure variable frequency drives, and integrate industrial communication networks including EtherNet/IP and Modbus. You'll also design HMI screens, set up SCADA data acquisition, and perform system acceptance testing. Advanced topics cover servo motion control, PID tuning, functional safety, and industrial cybersecurity. By the end, you'll have the complete skill set to design, commission, and troubleshoot industrial automation systems.
How your team learns in practice Electrical Automation Course
How your team practices Electrical Automation Course
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Course Content
8 Chapters • 35 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Electrical Automation
Foundations of Electrical Automation
Lesson 1 • Electrical Safety and Standards
Covers lockout/tagout, arc flash awareness, and grounding principles. Establishes the safety mindset required before any hands-on work.
Lesson 2 • Electrical Quantities and Units
Covers voltage, current, resistance, and power with SI units. Builds the measurement literacy needed throughout the course.
Lesson 3 • DC and AC Circuit Fundamentals
Introduces series, parallel, and mixed circuits in both DC and AC contexts. Provides the circuit analysis skills used in every automation subsystem.
Lesson 4 • Automation System Architecture
Defines the layers of an automation system from field devices to supervisory control. Frames how components covered later fit together.
Chapter 2HideHide detailsSee detailsSensors and Signal Conditioning
Sensors and Signal Conditioning
Lesson 1 • Encoder and Position Feedback
Covers incremental and absolute encoders for motion and position measurement. Prepares students for drive and motion control chapters ahead.
Lesson 2 • Discrete Sensors and Wiring
Covers proximity, photoelectric, and limit switches with NPN/PNP wiring. Connects sensor selection to control system input requirements.
Lesson 3 • Signal Conditioning Circuits
Teaches amplification, filtering, and isolation techniques for raw sensor signals. Ensures students can prepare signals for reliable controller input.
Lesson 4 • Analog Sensors and Transmitters
Explains 4–20 mA and 0–10 V transmitters for temperature, pressure, and flow. Establishes analog signal standards used in PLC and SCADA integration.
Chapter 3HideHide detailsSee detailsProgrammable Logic Controllers: Hardware
Programmable Logic Controllers: Hardware
Lesson 1 • Power Distribution and Protection
Addresses control panel power supplies, fusing, and circuit breaker sizing. Ensures students can design safe and reliable panel power schemes.
Lesson 2 • PLC Architecture and Module Types
Explains CPU, power supply, and I/O module roles within a PLC chassis. Grounds students in hardware before programming begins.
Lesson 3 • I/O Wiring and Field Terminations
Covers sinking/sourcing wiring, terminal block layout, and cable management. Directly applies sensor wiring knowledge from Chapter 2.
Lesson 4 • PLC Installation and Commissioning
Guides students through mounting, grounding, and initial power-up procedures. Establishes commissioning discipline used in all subsequent lab work.
Chapter 4HideHide detailsSee detailsPLC Programming: Ladder Logic
PLC Programming: Ladder Logic
Lesson 1 • Ladder Logic Fundamentals
Introduces rungs, contacts, coils, and the scan cycle execution model. Provides the conceptual model for all ladder programming that follows.
Lesson 2 • Data Handling and Math Instructions
Teaches MOV, compare, and arithmetic instructions for data manipulation. Connects analog signal values from Chapter 2 to program logic.
Lesson 3 • Timers and Counters
Covers on-delay, off-delay, and retentive timers plus up/down counters. Enables students to implement time-based and event-based control sequences.
Lesson 4 • Sequencer and State Machine Logic
Introduces sequencer instructions and step-based state machine design. Prepares students for structured programming methods in the next chapter.
Lesson 5 • Debugging and Program Testing
Covers online monitoring, forced I/O, and fault diagnostics in ladder programs. Builds the troubleshooting discipline required for advanced programming.
Chapter 5HideHide detailsSee detailsAdvanced PLC Programming Techniques
Advanced PLC Programming Techniques
Lesson 1 • Structured Text Programming
Introduces IEC 61131-3 structured text syntax for calculations and algorithms. Complements ladder logic with a text-based language for complex logic.
Lesson 2 • Interrupt and Event-Driven Programming
Explains timed interrupts, I/O interrupts, and fault routines for real-time response. Addresses timing-critical tasks beyond the standard scan cycle.
Lesson 3 • Modular and Reusable Code Design
Teaches user-defined function blocks, libraries, and program organization units. Enables scalable code architecture for multi-machine projects.
Lesson 4 • Function Block Diagram Programming
Covers FBD graphical programming for signal processing and PID blocks. Bridges sensor signal conditioning concepts to controller algorithm implementation.
Chapter 6HideHide detailsSee detailsVariable Frequency Drives and Motor Control
Variable Frequency Drives and Motor Control
Lesson 1 • AC Motor Principles
Reviews induction motor construction, slip, and torque-speed characteristics. Provides the motor theory needed to configure drives correctly.
Lesson 2 • Drive Parameter Configuration
Covers acceleration/deceleration ramps, current limits, and fault parameters. Ensures students can set up a drive for safe and efficient operation.
Lesson 3 • Drive Troubleshooting and Maintenance
Addresses common drive faults, thermal management, and preventive maintenance tasks. Prepares students for real-world drive uptime responsibilities.
Lesson 4 • VFD Operation and Selection
Explains PWM inverter operation, V/Hz and vector control modes, and drive sizing. Connects motor theory to drive selection criteria.
Lesson 5 • PLC-to-Drive Integration
Teaches analog speed reference, digital control wiring, and fieldbus drive control. Applies PLC programming skills to real drive command scenarios.
Chapter 7HideHide detailsSee detailsIndustrial Networks and Communication
Industrial Networks and Communication
Lesson 1 • Industrial Communication Fundamentals
Introduces OSI model layers, network topologies, and determinism requirements. Frames why industrial networks differ from office IT networks.
Lesson 2 • PLC Network Configuration
Guides students through scanner/adapter setup, I/O mapping, and connection management in PLC software. Applies protocol knowledge to live device integration.
Lesson 3 • Industrial Ethernet Protocols
Teaches EtherNet/IP, PROFINET, and Modbus TCP configuration and device integration. Builds on fieldbus knowledge with higher-bandwidth Ethernet-based solutions.
Lesson 4 • Fieldbus Protocols
Covers PROFIBUS, DeviceNet, and Modbus RTU configuration and addressing. Connects drive and sensor integration from earlier chapters to network-based control.
Chapter 8HideHide detailsSee detailsSCADA, HMI, and System Integration
SCADA, HMI, and System Integration
Lesson 1 • HMI Tag Configuration and Scripting
Teaches tag database creation, PLC communication setup, and basic scripting for dynamic displays. Connects PLC data to operator-facing graphics.
Lesson 2 • System Integration and Acceptance Testing
Guides students through factory acceptance testing, loop checks, and commissioning documentation. Synthesizes all course skills into a complete project delivery workflow.
Lesson 3 • Alarm Management Systems
Covers alarm rationalization, priority assignment, and suppression strategies per industry guidance. Addresses a critical safety and operational layer of automation systems.
Lesson 4 • HMI Design Principles
Covers screen layout, color standards, alarm presentation, and navigation design. Ensures HMIs are intuitive and compliant with operator interface best practices.
Lesson 5 • SCADA Architecture and Data Acquisition
Explains SCADA server, historian, and client roles with OPC-UA data exchange. Extends HMI skills to enterprise-level data collection and reporting.
Your valid completion certificate
This course is for you:
Electrician: ready to move from wiring into programming and system design.
Maintenance technician: wants to diagnose automation faults instead of just reporting them.
Engineering student: building practical industrial skills to complement academic coursework.
Career changer: coming from IT or electronics and targeting industrial automation roles.
Controls engineer: filling gaps in formal training to handle full-project responsibilities.
Manufacturing supervisor: seeking technical fluency to communicate better with automation teams.
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