Industrial Automation & Control Systems Training

Lesson 1 • Industrial Signals and Data Types

Covers analog, digital, and discrete signal types used in automation. Provides the signal literacy needed for all subsequent hardware and programming topics.

Lesson 2 • Automation System Architectures

Explains centralized, distributed, and hybrid control architectures. Students match architecture types to appropriate industrial applications.

Lesson 3 • History and Evolution of Automation

Traces automation from manual production to cyber-physical systems. Establishes context for understanding why modern control architectures exist and how they developed.

Lesson 4 • Core Automation System Components

Identifies sensors, actuators, controllers, and HMIs as the building blocks of automation. Connects component roles to overall system function.

Lesson 1 • DC and AC Circuit Principles

Reviews voltage, current, resistance, and power in DC and AC circuits. Provides the electrical foundation for understanding control panel wiring and power distribution.

Lesson 2 • Protective Devices and Circuit Protection

Explains fuses, circuit breakers, overload relays, and surge protection in control systems. Students select and size protective devices for given load conditions.

Lesson 3 • Reading Electrical Schematics and Diagrams

Develops the ability to interpret ladder diagrams, wiring diagrams, and one-line drawings. Schematic literacy is required for all PLC and control system work ahead.

Lesson 4 • Electrical Measurement and Instrumentation

Teaches use of multimeters, clamp meters, and oscilloscopes for electrical diagnostics. Accurate measurement is essential for troubleshooting control circuits.

Lesson 1 • Program Download, Testing, and Debugging

Guides students through project compilation, hardware download, online monitoring, and fault diagnosis. Systematic testing ensures programs perform correctly before commissioning.

Lesson 2 • I/O Configuration and Addressing

Covers I/O module configuration, address assignment, and tag creation in PLC software. Correct addressing links physical field devices to program logic.

Lesson 3 • Ladder Logic Programming Basics

Introduces contacts, coils, timers, counters, and basic logic instructions in ladder logic. These instructions form the core of most industrial PLC programs.

Lesson 4 • PLC Hardware Architecture

Examines CPU, power supply, I/O modules, and backplane communication in a PLC chassis. Understanding hardware is prerequisite to correct I/O configuration and programming.

Lesson 1 • Sequential Function Chart Programming

Develops SFC-based programs for multi-step sequential processes with transitions and actions. SFC improves readability and maintainability of complex machine sequences.

Lesson 2 • IEC 61131-3 Programming Languages

Surveys all five IEC 61131-3 languages and their appropriate use cases. Multilanguage fluency enables selection of the best language for each programming task.

Lesson 3 • Modular Programming and Reusable Blocks

Teaches function block creation, program organization units, and library management. Modular design reduces development time and simplifies future modifications.

Lesson 4 • Alarm Management and Diagnostics

Implements alarm detection, prioritization, and logging within PLC programs. Effective alarm management reduces operator response time and prevents process upsets.

Lesson 1 • Process Variable Measurement

Examines temperature, pressure, flow, and level measurement technologies. Accurate process variable measurement is the foundation of effective closed-loop control.

Lesson 2 • Discrete Sensing Technologies

Covers inductive, capacitive, photoelectric, and ultrasonic proximity sensors. Students select sensors based on target material, range, and environmental conditions.

Lesson 3 • Sensor Calibration and Verification

Teaches span and zero calibration, loop calibration, and calibration record keeping. Calibrated sensors ensure measurement traceability and process quality.

Lesson 4 • Smart Instruments and HART Protocol

Introduces smart transmitters, HART communication, and remote configuration. Smart instrumentation enables diagnostics and configuration without process interruption.

Lesson 1 • OPC and Data Exchange Standards

Introduces OPC DA and OPC UA for vendor-neutral data exchange between automation layers. OPC UA is the primary integration standard for Industry 4.0 architectures.

Lesson 2 • Fieldbus Protocols

Examines PROFIBUS, DeviceNet, Modbus RTU, and Foundation Fieldbus architectures. Students configure fieldbus segments and connect field devices to PLCs.

Lesson 3 • Industrial Network Fundamentals

Covers OSI model layers, network topologies, and media types relevant to industrial environments. Network fundamentals underpin all fieldbus and Ethernet configuration tasks.

Lesson 4 • Industrial Wireless Communication

Covers WirelessHART, ISA100, and industrial Wi-Fi for wireless field device integration. Students assess wireless suitability and configure access points for reliable coverage.

Lesson 1 • SCADA Architecture and Components

Explains SCADA server, client, historian, and communication layers. Understanding architecture guides correct system design and component selection.

Lesson 2 • Tag Configuration and Data Binding

Covers tag creation, data source configuration, and binding tags to graphic objects. Correct tag configuration ensures accurate real-time data display on operator screens.

Lesson 3 • SCADA Security and Remote Access

Addresses authentication, role-based access, VPN remote access, and patch management for SCADA. Security controls protect critical infrastructure from unauthorized access.

Lesson 4 • HMI Screen Design Principles

Applies human factors and situational awareness principles to HMI graphic design. Well-designed screens reduce operator error and improve response to abnormal situations.

Lesson 1 • Loop Performance Monitoring and Optimization

Uses performance indices, oscillation detection, and valve diagnostics to assess loop health. Continuous monitoring sustains optimal control after initial commissioning.

Lesson 2 • Advanced Control Strategies

Implements cascade, ratio, feedforward, and override control for complex process interactions. Advanced strategies improve disturbance rejection beyond single-loop PID capability.

Lesson 3 • Control Valve and Final Element Selection

Covers control valve sizing, characteristic curves, positioners, and actuator types. Correct final element selection is critical to achieving desired loop performance.

Lesson 4 • Feedback Control Theory

Introduces open-loop vs. closed-loop control, error signals, and the feedback principle. Control theory provides the mathematical basis for all PID tuning and loop analysis.